TW201210564A - Anchor assembly including expandable anchor - Google Patents

Abstract

An anchor assembly can include at least one anchor member, such as a pair of anchor members that are configured to be implanted in a target anatomical location in a first configuration, and can subsequently be actuated to an expanded configuration that secures the anchor members in the target anatomy. The anchor assembly can further include a connector member that attaches the pair of anchor members together across a gap so as to approximate the anatomical defect.

Description

201210564 VI. STATEMENT OF EMBODIMENT: RELATED APPLICATIONS This application claims the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of the benefit of U.S. Patent Application Serial No. 61/398,699 (U.S. Pat. No. No. 61/432,755, filed Jan. U.S. Patent Application Serial No. 61/461,490, filed on Jan. 18, 2011 (Henrichsen, et al.), and U.S. Patent Application Serial No. 61/443,142 (Overes), filed on Feb. 15, 2011. The contents of the disclosure are incorporated herein by reference. [Prior Art] An orthopaedic surgical procedure often involves the use of a fixation device. Often in the bone or soft tissue, the access hole can be fastened to the appropriate holder. Except for the screw, an expandable holder can be used, which is inserted into the hole in a collapsed state, and is converted into an expanded state after being correctly positioned. In an exemplary orthopedic surgery (e.g., lumbar removal), the treatment of radiculopathy is accomplished by surgical removal of herniated nucleus pulposus to achieve neurodecompression. Waist removal is one of the most common spinal procedures available today. Many patients use this procedure to reduce the severity of the disease, but for others, the disc may re-herniate through the opening of the ring causing persistent pain and may require additional surgery. Mesh #, the standard ablation technique does not include the closure of the ring defect (clear 1ardefeet) and makes the surgery a dilemma. The surgeon treating the radiculopathy may choose to remove the protruding portion of the nucleus that invades the nerve, but increases the risk that the remaining dragon will produce a further f through the financial (four) ring defect. Alternatively, the surgeon can choose to perform a large area of demobilization (deMUking). In addition to the protruding part, the basin removes most of the remaining core (4) with the most expensive hand-carrying wind = however, the post-operative vertebra The risk of gap collapse (disc to coma -) and subsequent follow-up of back pain reduction will increase. Two copies = object? Containing a sleeve 'the sleeve has an expandable portion and a compression element extending through the center hole of the (four), and is formed by a hole or a hole in the peripheral wall of the sleeve. "Several = r 曲" - According to an implementation For example, an anchor assembly is fixed to the target anatomy. The tin assembly is configured to include an anchor body that can define a - expandable portion. 兮 = ' and the pin is in the first configuration Extending along the elongate direction; the portion passes through the anchor body and substantially extends along the elongate field to form a plurality of openings 10 201210564. The anchor further includes extending through the actuations The actuating member is "formed by =r=:;r by the first-configuration" _方方::;==收 [Implementation] = Please refer to the respective containment configured At least - expandable 22 that is fixed at _28 of the anatomical location, such as a plurality of expandable aids, :=, an anatomical structure 24 definition. In accordance with the illustrated embodiment, the tin assembly 20 includes a first error 22a and a second pin that are each configured to be secured to an anatomical location (e.g., anatomical structure 24). The anatomical structure 24 can be defined, for example, by a (four) position of a human or other animal or a planted person that is fixed or configured to be affixed to a human or other anatomical location. The definition of the anatomical location may be tissue that may include (d) at least one of soft tissue (e.g., 'tendon, ligament, cartilage, a ring of the disc, or the like). According to an embodiment, at least one anatomical structure 24 can define first and second target anatomical locations 24a, 24b on two opposite sides of a gap (e.g., gap 2 4 c). Thus, the gap 24c can be configured in an anatomical structure, and for example, an anatomical defect can be defined, or can be disposed between different anatomical structures. The first and second anchors 22a, 22b can be injected or otherwise actuated or inserted into the first and second target anatomical locations 24a, 24b' on each of the opposite sides of the gap 24c, and then pulled toward the other side to cause the gap 24c 201210564 Close. Alternatively or additionally, the anchor assembly 20 is configured to secure the auxiliary structure 25 to the anatomy 24 as described in the description of the lc to id diagrams. In this regard, it should be understood that the anchor assembly 2 may need to include any number of I seedlings 22. Each anchor body 28 can include an expandable portion 36 and an actuating member 37, such as an actuation strand 38 that is stepped to drive the expandable portion 36 and thereby the anchor body 28, The first configuration illustrated in FIG. 1A (by initially placing the anchor body 28 at the target anatomical location) is moved to the expanded configuration illustrated in FIG. 1B, whereby the pin body 28 can be secured to the anatomical structure 24 . Thus, the anchors 22a, 2 plus the wrong bodies 28 can each be inserted through the apertures 23 at the target anatomical locations 24a, 24b, for example, the 'target anatomical locations 24a, 24b can be injected into the I seed body 28 at the target anatomical locations 24a, 24b. Produced at the time. Each of the actuation strands 38 of the first and second faults 22a, 22b can be attached to each other. For example, the actuation strand 38 of the first pin 22a can be integrated with the actuation strand 38 of the first error 22b. Alternatively, as detailed below, the actuation strand 38 of the first anchor 22a can be separated from the actuation strand 38 of the second anchor 22a', whereby any suitable connection member 63 is subsequently used (eg, refer to Figure 18C) The actuating strands 38 of the first and second anchors 22a, 22b are attached directly or indirectly. The connecting member 63 can be integrated with either or both of the actuation strands 38 (e.g., with reference to Figure 19A) or can be individually attached to each of the actuation strands 38 (e.g., reference to Figure 20A). According to an embodiment, the actuation strands 38 of the first and second anchors 22a, 22b each define at least an intermeshing portion 131 and may further comprise at least one attachment portion 133. The actuation sections 131 are each configured to accept an actuation force that causes the anchors 22a, 22b to move from the first configuration to the extended configuration, respectively. According to the illustrated embodiment, the attachment portions 133 of the first and second offset actuation strands 38 are configured to be attachable to one another. The attachment portions 133 can be integrated with one another using any suitable attachment member, or Attached. Further, according to the illustrated embodiment, the actuation portion 131 may also define attachment portions that are configurable to each other in any suitable manner before or after application of the actuation force F to the actuation portion 131. Accordingly, the attachment portion 133 of the individual anchor is configured to attach the individual anchor to another anchor, such as the attachment portion 133 of the other anchor. In addition, the actuation portion 131 of the individual anchor is configured to attach the individual anchor to another anchor. According to the illustrated embodiment, the attachment portion 133 of the actuation strand 38 of the first anchor 22a and the attachment portion 133 of the actuation strand 38 of the second anchor 22b, however, it should be understood that the first and second anchors The attachment portions 133 of 22a, 22b can be separated from each other and attached to each other, as described below. With continued reference to Figures 1A through 1B, once the expandable portion 36 of the anchors 22a, 22b has been moved to the expanded configuration, the actuating strand 38 can be tensioned. For example, according to an embodiment, either or both of the proximity force AF can be applied to the actuation portions 131 of the actuation strands 38 of the first and second anchors 22a, 22b to create the first and second anchors. The tension of the actuating strands 38 of 22a, 22b is such as to apply a biasing force that pulls the first and second anchors 22a, 22b toward each other. Therefore, if the configuration gap 24c is moved between the first and second booths 22a, 22b by the biasing force, the gap 24c (in some embodiments, this may be an anatomical defect, such as the above). Tissue defects are close. 7 201210564 Alternatively or additionally, as shown in Figure 1C, the tin assembly 20 is configured to secure the auxiliary structure 25 to an anatomical structure 24 that can define individual target anatomical locations 24a, 24b. The auxiliary structure 25 can be configured as an anatomical structure, such as the tissue described above or an implant that can be configured as a graft, mesh, clay, hardware, bone plate, or any alternative structure, as desired. In this regard, it will be appreciated that tin assembly 20 can include any number of errors 22 as desired. For example, the auxiliary structure 25 can be positioned between one or both of the actuation strands 38, particularly one or both of the attachment portions 133, and between the at least one anatomical structure 24. Thus, when tension is applied to the actuation strand 38 (in particular, the attachment portion 33), the position of the auxiliary structure 24 (e.g., soft tissue) at the first and second target anatomical locations 24a, 24b can be pulled An anatomical structure 24, such as a bone path, is secured, for example, between the actuation strands 38, the anatomy 24. In this regard, it will be appreciated that the gap between the auxiliary structure 24 and the untwisting structure 24 will be reduced. Further, if the gap is disposed between the anchors 22a, 22b, as shown in Figs. 1A to 1B, in addition to fixing the auxiliary structure 25 to the anatomical structure 24, the tension of the actuating strands 38 can bring the gap 24c closer. Thus, unless otherwise indicated, the following description means that the actuation strand 38 tension configured to bring the gap 24c into proximity is also configured to secure the auxiliary structure to the actuation strand 38, the first and second target anatomy Between at least one of the anatomical structures 24 of the locations 24a, 24b. Alternatively or additionally, as shown in FIG. 1D, the anchor assembly 20 can include at least one anchor 22 configured to secure the auxiliary structure 25 between the actuation strand 38 and the anatomical structure 24. For example, the anchor 22 can be secured to the target anatomical location 24a of the anatomy 24 in the manner described above. Actuating cord 8 201210564 = 38, for example, the opposing first and second ends (each of which may be defined by the actuation portion and the attachment portion 33) may be knotted, stitched or otherwise secured to the other anatomy 2 7 Thus, for example, between the actuation strands 38, the anatomical junctions 24, tension is created in the actuation strands 38 and the auxiliary structure 25 (e.g., soft tissue) is pulled and secured to the anatomical structure 24 (e.g., bone). In this regard, it will be appreciated that the gap between the auxiliary structure 25 and the anatomical structure 24 will be reduced. The actuation strands 38 can be separated from the anchor body 28 and woven through the anchor body 28, as shown in Figures 2A-2B, or can be integrated with the pin body 28, as shown in Figure 8A. In addition, when the actuation strand 38 is still tensioned after the defect 24 approaches, the anchor 28 can be prevented from retracting from the anatomical location and possibly opening the anatomical defect. Therefore, once the gap 24c is approached, the actuating strands 38 of the first anchor 22a can be attached to the second pin (4) moving strands % in order to maintain the tension between the first and the m2a, 22b and prevent the first and the first The two anchors 22a, 22b are separated.

Although the first and second anchors 22a, 22b shown in Figs. 1A to 1B are respectively constructed in the manner described below in the description of Figs. 2A and 2B, it should be understood that the construction of the anchors 22a, 22b can be understood. Any of the embodiments or any alternative embodiments described herein are as desired. Moreover, it should be appreciated that although the anchor assembly 20 includes first and second anchors 22a, 22b that are configured to be implantable on two opposite sides of the gap 24c, the anchor set 220 can include a number to which it is intended to be attached. Pins 2 2 - many (eg, at least two) of the anchors 22 ' may be arranged in pairs or as desired, such as over the same gap or anatomical defect, over more than one gap, or by beat The same side of the gap. Alternatively, the plurality of pins U 9 201210564 may all be attached together 'by thereby arranging the selected one of the anatomically-deficient sides of the anchor 22 and the other of the configurable anchors 22, the other side of the defect, or alternatively Cross different anatomical defects. '°' Continuing with reference to Figures 2A-2B, the anchor body 28 is elongated along the central axis 29 with the flared portion 36, and defines the first or proximal end 30 and substantially along the central axis 2 9 and the proximal end 3 〇 separated = two ends or distal ends 32. The central axis 29 can define any shape, and any shape portion is required as needed. For example, the central axis 29 may be linear, substantially linear, non-linear (including regular, irregular, 'or other arcs') or may have other shapes as desired. Thus, body 28 can define an elongated direction 34 that extends linearly between the first and second ends %, 32. It will be appreciated that the elongate direction 34 may substantially coincide with the central axis 29, for example, when the central axis 29 is substantially straight. It will be further appreciated that, for example, when the central axis 29 is non-linear, the elongate direction 34 is at least partially or substantially completely separated from the central axis 29. The anchor body 28 is further defined with a first end or proximal end 39a and a second end or distal end 3% expandable portion 36. The expandable portion 36 W proximal end 39a may coincide or not coincide with the proximal end 3 of the anchor 28 (eg, relatively concave) and the expandable portion%

The distal end 39b may coincide or not be as heavy as the wrong body 28 (four) end. The V-anchor 22 further includes an actuating member 37 that can be configured to actuate the strand 38. 'It can expand the % of the portion to the paving body 28, as illustrated by the first configuration in Figure 1A (4) The extended group of the graph is separated. :== To extend the line of any alternative way to provide an actuation plate 38.田 rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt rt Measured to the distal end 39b. The initial distance di may be of any length as desired, and the lower end may be defined as about 5 mm, or about 10 mm, or about 20 mm, and or about 24.5 mm, and the upper end may be about 5 mm, or about 40 mm. , or about 30 mm, and or about 25.5 mm. Moreover, the initial maximum thickness T1 of the expandable portion 36 defined in the second direction 35 substantially perpendicular to the elongated direction 34 when in the first configuration can be made to the size of the initial maximum thickness τ 按 as desired. As shown in FIG. 1B, 'when the expandable portion 36 is in the expanded configuration, the expandable portion 36 is folded along the elongated direction 34, for example, compressed or tangled to a second distance D2, which is along the length. The shape direction 34 is measured from the proximal end 39a to the distal end 39b. The second distance D2 may be less than the initial distance. When the expandable portion 36 is collapsed in the elongate direction, such as when it is moved from the first configuration to the extended configuration, the expandable portion 36 is along the second direction 35. Expanded to a second maximum thickness T2 that is greater than the initial maximum thickness T1. The second maximum thickness T2 extends along a second direction 35 that is substantially perpendicular to the elongated direction 34. The maximum thickness ΤΙ, Τ2 in the second direction 35 can be defined such that the field body 28 does not define thicknesses greater than the maximum thicknesses τι, Τ2, respectively, in the first direction 35. It will be appreciated that the proximal and distal ends 39a, 39b are in the expandable portion as the expandable portion 36 moves to the extended configuration (e.g., caused by the configuration of the expandable portion 36 when in the extended configuration). The position can be changed on 36. However, when the expandable portion 36 is in the extended configuration, the near and far ends 39a, 39b continue to define the 201210564 most recent and farthest end of the expandable portion 36, and the Su μ + is in the expandable portion % 瑞 & The distance between the proximal and return ends 39a, 39b of the earth portion 36 New Zealand extended configuration knife is defined by a straight line along the lengthwise direction 34 of the crucible. %. The extension portion 36 can define a plurality of coils (1) that each define an opening 40 (e.g., at least two openings 40) extending through the extension portion 36 along the second direction 35. The coil η is configured as a coil 56 as shown in FIG. 3A to FIG. 3C, and is illustrated in the coil 99 of the 11th to 11th drawings, or any suitably configured _. The expandable portion 36 can include any number of coils 31 > (8 coils, 8 or more coils, 8 or less coils. The apertures 40 are substantially separated along the central axis 29, thereby also along the length ^ The / direction 34 is substantially spaced apart. For example, the apertures 4 are spaced apart in a direction that is divided in the elongate direction 34. Thus, the apertures 40 can be spaced apart along the elongate direction 34 and the second direction 35. 40 may define a proximal end opening 4〇a and a distal end opening 40b' and at least one intermediate opening 4〇c, for example, a plurality of disposed between the proximal end opening 40a and the most distal opening 4〇b Intermediate opening 4〇c. The expandable portion 36 can be disposed in a coil 31 defining (including) between the proximal end and the distal opening 40a, 40b. The actuating strand % is configured to be woven through at least one The opening 4 〇 includes a plurality of openings such as: at least two to all of the openings 4). Thus, when the actuation force F is applied substantially in the elongated direction 34 to the actuation strand 38, the actuation strand 38 can bias the expandable portion % so that the anchor body 28 collapses and follows along the elongated direction 34. The second direction 35 is expanded to extend the shop from the first configuration to the extended configuration. The force F can be the tension (seven) still ^ 12 201210564 the force or can deviate from the pure tension but there is a pure pull anus IS ^ should be understood, the force F can be applied substantially along the long direction 24 to the respective actuating strands 3 y 24 coincide Or parallel directions „ have parallel or coincident with the elongated direction. Or may be completely related to the elongated direction 24, at least when the expandable portion 36 is in the first configuration, at least the opening 40 to all the openings 4 The first and largest dimensions of the coil may be defined between the proximal end and the distal end, and a second largest dimension extending between the two opposite sides of the individual coil 31 between the turned coils 31. When the configuration is extended to the extended configuration, the ratio of the at least one opening 40 to the second size of the first size of all the openings 4 可 can be increased. Further, when the expandable portion is in the extended configuration, the plurality of coils 31, for example The two opposite sides of the coil 31 may be larger than the second direction % in the first configuration. According to the additional example, the two opposite sides of the coil 31 are not in the second direction 35. Overlap, or slightly overlapping in the second direction 35, depending on the sheet resulting from the expandable portion 36 Referring to Figures 3A-3C, the form of the anchor 22 can be a substrate 42, in one embodiment, a line defining the anchor strand 44, such as a suture strand or in any Alternative lines of construction. The anchor strands 44 and other components of the anchor assembly 20 are resorbable as desired. The anchor strands 44 can have any suitable USP (United States Pharmacopoeia) size (or diameter) as desired. ), for example between USP 7-0, USP 5 (inclusive), for example between USP 2-0, USP 5 (inclusive), such as USP 2. The anchor strand 44 can be woven and porous to 201210564 Defining the opening, or if desired, the non-woven anchor strand 44 is woven or non-woven and non-woven, regardless of the braided anchor strand 44 to define the opening / / can be constructed as needed to create the cat body 22 Scalable « strands 44 steps to have a strut end - stop knot 46, which can be defined, knot 46. The proximal stop of the body 28 anchor strand 44 defines the first stop The first end portion 52, for example, the second end 54 of the proximal end portion of the free end 5〇* of the post end 48, for example, the end stop blocking method further includes The following steps: the first end portion 52 is looped at the position of the square 46 (1_ to form a first-near stop knot: a terminal coil disposed at the proximal end 30. The first proximal line: ' It passes through the stop knot 46 such that the first end 52 extends from the first, loop 56a through the stop knot 46. The first end 52 can be advanced into a loop such as the proximal coil % and „ to define the Na 28 ^ proximal end The coil 57, as indicated by the second ASI to the second Bffil, = the most = the first portion 52 can be rotated or if necessary (4) at the position of the proximal end coil 57 (and thus immediately adjacent to the proximal end 3. And a simple early knot of 39' and the structural integrity of the hairline a 44 as needed during use. Therefore, the 52-Hai method of the nearest-end coil 57 of the coil 31 of the apex-possible anchor body 28 further includes the substantial portion of the step-excitable expandable portion 36 of the distal end of the second end portion. The axis 29 is separated by a plurality of coils 56 constructed in a three-way manner. The coils 56 each define one of the 201210564 openings 40. For example, the two-end portion 54 can be stepped to include a make-up coil 56b, a new coil on the previous line 1, such as the first 56a, and a second distal coil first-near coil 56a. The step can further scoop the "first-proximal coil end 54 to make a new coil, adding steps: by the second this will be the previous coil (for example, $ _... second end coil 56c, borrowing end coil 56c is near The end seven = thin) is configured to be attached to the previous coil 56b °, the coil 56c is configured to be tight-through the nearest-end coil:::step: including the method of making the additional remote line 4 further include the following steps: By the second end portion 54 as needed, the distal coil is attached, and each of the new additional distal coils 56 is passed through the respective previous coil to make another new remote coil. A new additional remote coil 56 J: to produce a braid 58 of the desired length and a desired number of coils. Once the braid 58 has reached the desired length, the second end 54 can be knotted or otherwise terminated at the distal end of the most distal coil % to define a second stop knot 60 'which defines the distal end of the anchor 28 Stop the knot. The second end portion 54 can be cut or if desired, a simple knot is placed adjacent to the second stop knot 60 and the hair is burned to maintain structural integrity during use. Thus the second end 54 defines the free end of the second stop knot 60. It will be appreciated that although the coils 56 of the expandable portion 36 may be constructed of the wrong body strands 44 as shown in Figures 3A through 3C, they may be integrated with each other according to the illustrated embodiment, however alternatively, the expandable portion 36 may comprise Two or more anchor lines 55, which may be individually and/or splayed, may be defined as 15 201210564. A number of braided segments or coils 56 that are joined in the following manner, for example, soldering (as detailed below in the description of Figure 5C) , suture (as described below in the description of Figure 5D), knotting, splicing (SpHce), or otherwise attached. It will be further appreciated that the pin string 44 can be braided in any alternating manner as desired to define the pin body 28 of the expandable portion 36. The expandable portion 36 is configured to move it from the first configuration to the extension Group cancer, as described herein. Actuating the strands 38 and the expandable portion 36 so as to be separable or unconformable with the brocade 28 and attaching to the expandable portion 36' in any manner as desired, as in Figures 1 to 1 and 2 to The second embodiment shows that the actuation force F applied to the actuation strand 38 causes the anchor 28 to move from the first configuration to the extended configuration. The actuation strand may have any suitable USP (United States Pharmacopoeia) size (or diameter), as desired, for example between USP 7-0, USP 5 (inclusive), such as between USP 2-0, USP 5 (include). For example, as shown in Figure 2, the anchor 22 can include an auxiliary strand 33 that is separate or uncoupled from the substrate 42 of the actuation body 28 and that is attached to the substrate 42. The auxiliary strands 33 can be woven to extend through a pair of apertures 40, such as a first or proximal selected aperture 45a and a second or distal selected aperture 45b disposed at the distal end for the first selected aperture 45a. According to the illustrated embodiment, the first selected opening 45a is the proximal opening 40a and the second selected opening 45b is the distal opening 40b, however, it should be understood that the first and second selected openings 45a, 45b Either or both may be selected from the intermediate opening 40c. The actuation strand 38 can define a first portion 41 'which can be defined to project proximally, such as by actuation of the tin body 28 at a proximal end position for receiving the aperture 40 of the actuation strand 38. Ministry 201210564 copies. The first portion 41 can be further extended and exited from the anatomical location 24 and configured to accept an actuation force F. The first portion 41 can define the end of the actuation strand 38 in accordance with some embodiments. Actuating strands 38 may extend distally of first portion 41. Several specific embodiments are described herein with reference to the first and second selected apertures 45a, 45b. It should be understood that 'with respect to different embodiments for determining the first and second selected apertures, the component symbols "45a" and "45b" are used to conceptually identify the first and second selected apertures in the old aperture 4(). The particular ones of the first and the first selected openings 45a, 45b are not specific to the implementation of the "eyes". The facts may vary from embodiment to embodiment. The actuating strand 38 can be further provided with a coil passing through the second selected opening 45b to define a first portion and a second portion defining a first portion 41 and a second portion 43, the second portion 43 being A looping portion that extends the anatomical structure 24 proximally and opposite the first portion 41 is defined. As will be described below, according to some embodiments, an actuation force F can be applied to the actuation strand 38, for example to at least one of the first portion 41 and the second portion, to enable The extension portion 36 is moved from the first configuration to the extended group, 4. According to the illustrated embodiment, the second portion 43 can be woven to extend through at least one opening 4〇 (eg, a plurality of selected openings 4〇) that can be disposed between the first and second selected openings 45a, 45b. ), so that the activating the strand 38 can be used for the coil 53. For example, the second portion 43 of the actuating strands may be woven through a plurality of intermediate openings and further woven through the first opening 45a, which may be the proximal opening 40a. The first and second portions 41, 43 can be extended from the proximal end of the wrong body and open from 17 201210564. The 彳 position, whereby the actuation force F can be applied to the first portion 41, and the =j portion 43 can be attached to the actuation strand of the second anchor. Thus, in accordance with the illustrated embodiment, the first portion 41 defines the actuation portion 131 of the actuation strand 38 and the second portion 43 defines the attachment portion 133 of the actuation strand 38. Alternatively, as shown in FIG. 2B, the second portion can accept the power F and the first portion 41 can be attached to the actuation rope of the second anchor. Therefore, the second portion 43 can define the actuation rope. The actuation portion of the strand 38 is injured 131 and the first portion 41 can define an attachment portion 133 of the actuation strand. As described above in the description of Figures 1A-1B, the actuation strand 38 can be The second anchor's actuation strands are integrated. Alternatively, the actuation strands 38 can be attached in any manner as desired, for example, via any suitable attachment member, such as an adhesive, a knot, a weldment (e.g., see Figure 5C),

Stitching (eg, refer to FIG. 5D), splicing (eg, refer to Figures 19D through 19H), knots (eg, refer to FIG. 4A), auxiliary connecting members (eg, refer to FIG. 20A), or as needed Any alternative to a suitable connecting member. During operation, with continued reference to FIG. 2A, when actuation force F is applied to actuation strand 38, in particular, first portion 41 of actuation strand 38 is supported and actuated at proximal end 39a of expandable portion 36. When the second portion 43 of the strand 38 is under tension, as the size of the coil 53 decreases, the distal end 39b of the expandable portion 36 is pulled toward the proximal end 39a of the expandable portion. For example, the proximal end 39 can be supported by an anatomical structure 24 or a support tool, or alternatively the proximal end can be supported at the proximal end 3 of the anchor body 28, such as by an anatomical structure 24 or a support tool. 201210564 Therefore the 'extensible part' is extended from the first to the extended configuration. According to the illustrated embodiment, the expandable portion 36 defines a substantially u-shape when the distal end 39b is pulled toward the proximal end 39a. Referring also to Figures 1A-1B, when the actuation force F continues to be applied to the first portion 41, the auxiliary strands 38 translate through the anchor body 28, thereby reducing slack in the second portion 43, and ultimately producing the second portion. The tension of 43 parts. Once the second portion 43 has tension, further application of the actuation force F to the first portion 41 causes the size of the coil 53 to decrease, thereby causing the expandable portion 36 to slide along the second portion 43 of the actuation strand 38. The distal end 39b is further pulled toward the proximal end 39a along the actuation strand 38 and causes the expandable portion 36 to become tangled or otherwise collapsed while still in the expanded configuration. It will be appreciated that additional tension generated at the second portion 43 of the actuation strand or the end of the actuation strand 38 attached to the second anchor can bias the anchor 22 toward the second anchor, thereby bringing the gap 24c into proximity, as described above . The anchor 22 shown in Fig. 2A defines the first anchor 22a shown in Fig. 1A to Fig. 1B and the anchor 22 shown in Fig. 2B. The second diagram is shown in Fig. 1A to Fig. 1B. At the error 22b, the first portion 41 of the actuating strand 38 of the first anchor 22a receives the actuation force F, and the second portion 43 of the actuation strand 38 of the second anchor 22b can receive the actuation force F. The second portion 43 of the actuation strand 38 of the first anchor 22a can be attached to the first portion 41 of the actuation strand 38 of the second anchor 22b. Thus, the tension generated by the actuating strands 38 of the first and second anchors 22a, 22b due to the actuation force applied to the actuating strands 38 causes the first and second anchors 22a, 22b to move from the first configuration to the expansion. configuration. As will be described in detail below in 201210564, it will be appreciated that either or both of the first and second portions 41, 43 of the actuation strand 38 of the first anchor 22a can receive an actuation force f, the first error 22a Either or both of the first and second portions 41, 43 of the actuation strand 38 can be attached (in an integrated manner or separately attached) to the actuation strand 38 of the second pin 22b, Either or both of the first and second portions 4, 43 of the actuation strand 38 of the second error 22b can receive the actuation force F, and the first and second portions of the actuation strand 38 of the second anchor 22b Either or both of the portions 41, 43 may be attached (in an integrated manner or separately attached) to the actuation strands 38 of the first tin 22a. It will also be appreciated that actuation of the first and second errors 22a, 22b may occur regardless of the tension generated by the actuation strands 38 that pass over the gap 24c. For example, one of the anchors 22a, 22b can be actuated to an extended configuration, and the other of the anchors 22a, 22b can be actuated to an extended configuration. Either or both of the actuating portions 131 of the actuating strands 38 can be applied to the attachment portion of the actuating strands 38 when the attachment portions 133 of the actuating strands 38 are attached to each other. Tension is generated in 133. Referring to Figure 2C, it should be understood that the actuating strand 38 can be barbed to facilitate movement of the strand 38 in the actuating direction through the opening 4 to cause the expandable portion 36 to move from the first configuration. To the extended configuration. Thus, the actuating strand 38 can define a ratchet to allow the actuating strand to move unidirectionally through the expandable portion 36 in the direction of actuation, but to prevent or limit actuation of the strand 38 along the direction of actuation. The opposite direction of motion 0 actuation of the strand 38 may comprise a monofilament (m〇n〇fiiament), and in a consistent embodiment, may be a qUill suture. Actuating cord 201210564 actuating portion 131' of strand 38' which may be the second portion 43 of the illustration, may include a first at least one barb 61 each defining a front end 65, such as a first plurality of barbs 61' The front end 65 defines a cam to facilitate movement of the strand 38 in the direction of the leading end 65 (eg, the 'actuating direction'). Each of the barbs 61 can further define a trailing end 67 that defines a catch to prevent the actuating strand 38 from moving through the aperture 40 in a direction opposite the direction of actuation. The attachment portion 133 (which may be the first portion 41 of the illustration) of the actuation strand 38 is configured to be maintained before and during actuation of the expandable portion 36 from the first configuration to the extended configuration The first portion 41a outside the expandable portion 36. The first portion 4la of the first portion 43 may include a second at least one barb 69 defining a front end 65, such as a second plurality of barbs 69, the direction of the front end 65 being the same as the first plurality of barbs 61 The opposite of each of the front ends 65. Each of the second plurality of barbs 69 can further define a trailing end 67 that is opposite the end 67 of the first plurality of barbs 61. Therefore, the trailing ends 67 of the first and second barbs 61, 69 face each other. The trailing end 67 of each of the second barbs 69 can define an engagement member configured to grasp the anchor strand 44 to prevent actuation of the rope when the actuation strand 38 travels in the actuation direction The strand 38 moves through the opening 40. The attachment portion 133 of the actuating strand 38 (which may be the first portion 41 shown) further includes a first end that is disposed at the distal end of the first selected opening 45 a and may also carry a plurality of first barbs 61 Two parts. Thus, during operation, when the actuation force F acts on the actuation portion 131 (e.g., the second portion 43) of the actuation strand 38, the actuation strand 21 201210564 38 travels through the aperture 40. The first plurality of barbs 61 ^ 〒 έ δ δ δ can be defined to allow the actuation of the strands 38 along the actuation _ 广 36 movement from the first configuration to the extended configuration through the opening ratchet. Actuating the strand 38 translates through the opening 4

i A barb 6Q = - (4) The tail end 67 grasps the Burmese strand 4 at the position of the coil 31) which is turned to the first selected hole 2-9. When at the proximal end 3 of the expandable portion 36, for example, '_丰:: actuation force F to actuating the rope, the second pair is matched; = the expandable portion is selected by the second selected opening 3 to open the opening 45a' Thus, the expandable portion == collapse and the "I::: expansion" can define a sliding member 47 that can be defined or 49 for the 'figurable' auxiliary θ-assisted strand 33. special. The first part is the opening of the proximal opening, the plurality of openings 4, and the second portion 43 can be woven through the illustrated embodiment, and the second step defines the sliding member 47. A portion 41 can be woven to be worn at the end of the sliding member 47. The first opening 40, and the opening 40, for example, passes through the plurality 49 to define that the opening of the coil 53^ extending through the sliding member 47 is slidable. The 'first- and second-part 4' states are defined as an embodiment comprising an opening 4, and the actuating strands 38 can be assembled to cut (for example, a plurality of open-ended braided wires. Replacement 43 During operation, the knife cuts through the opening 49 through at least the second portion (eg, the movable member 47, the expandable portion 36 makes the teeth (eg, with the anatomical structure 24 or the support tool) 22 201210564 The actuation force F can be applied to the flute - ώίΤ , , the female 丨 W, Τ Η Η 〇Ρ 41 ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' For the part of the exhibition, the part of the exhibition is 峨^第—朴^ actuation is as follows, “Injury 41 can be further attached to the actuation strand 38 of the anchor. Therefore, the potential brother~ 匕第—Part 41 The descriptive 131 Λ 131 and the attachment part 133 can be defined as the end of the actuating F-moving rope h, such as the part 41 or the second J, the actuating rope ^ the first part 4i Can be defined ^ J = ^ point on 'should understand, I strip the sliding member 47 and the second part " can be used to activate the part 131 and the attachment part 133. For example, please refer to the 2E® The first portion 41 can be provided with a sliding member 47 as described above in the description of the second 〇 _. The second portion of the sliding portion 47 can be the second portion 43 The plurality of openings 4 可 can be woven and extended from the proximal end of the anchor body 28 through the sliding member 47. Therefore, the first and second portions 41, 43 are slidably coupled to each other. Therefore, it should be understood that relative to actuation The attachment portion 133 of the strand 38 (eg, the other of the first portion 41 and the second portion 43), the sliding member 47 is slidably coupled to the actuation portion 131 of the actuation strand 38 (eg, , the first portion 41 or the second portion 43). During operation, when the sliding member 47 or the expandable portion 36 is supported (for example, with the anatomical structure 24 or the plucking tool), the actuation force F can be applied to Actuating portion 131, which reduces the size of coil 53 and causes expandable portion 36 to travel along actuation strand 38 as the expandable portion 36 moves from the first configuration to the extended configuration. 23 201210564 Alternatively Please refer to FIG. 2F. As described above, the first portion 41 can extend through the plurality of openings 4 and the proximal end is separated by the anchor body 28 to set The actuation portion 131' and the second portion 43 may extend from the farthest of the apertures 40 through which the second portion 43 passes, and the proximal end exits the anatomy 24 without passing through any of the apertures 4 Else or elsewhere in the anchor body 28. The second portion 43 can define an attachment portion 133 that can be attached to the actuation strand % of the error 22 and configured to be attachable to another I field 22. During operation, in accordance with the illustrated embodiment, when actuation force F is applied to actuation portion 131 (e.g., first portion 41) a temple of actuation strand 38, there is a proximal end 39a of expandable portion 36. In the case of a slab (for example, with the anatomical structure 24 "supporting tool"), the distal portion of the expandable portion ❸ is woven through the opening 4 in the actuating strand 38 and is pulled toward the proximal end 39a, thereby causing The extension portion 36 becomes tangled as it moves from the first configuration to the extended configuration. Referring to Figures 2G and 4A, the anchor 22 can further include any suitable connecting member 63 that can define a locking member 64 that is configured to selectively secure the slidable portion of the actuating strand. (For example, the relative position of the actuation portion 131 and the attachment portion 133). The connecting member 63 can be configured as a knot 66 or alternatively any suitable connecting member 63 of the type described herein or any alternative connecting member. The knot 66 can be defined by the actuation strand % and the proximal end 30' of the pin body 28 can be disposed at the proximal end. The actuating strand 3 defines a strut end 68 of the knot 66 and a free end 7 () of the knot 66 that is looped around the strut end 68 and knotted so that the free end 7 is tightened around the last strut end 68 Previously, the strut end 68 was slidable for freedom: 7〇24 201210564. According to the illustrated embodiment, the free end 70 defines a plurality of coils, such as four coils 71A-D, around the strut end 68, although it will be appreciated that the free end 70 can define as many coils around the strut end 68 as desired. The free end 70 of the actuating strand 38 includes a static portion 70a extending from the distal end of the knot 66 and into the anchor body 28, and a free portion 70b extending from the knot 66 and not extending into the anchor body 28. The post end 68 can be defined by one of the first portion 41 and the second portion 43, and the free end 70 can be defined by the other of the first portion 41 and the second portion 43. According to the illustrated embodiment, the strut end 68 is defined by the actuating portion 131 illustrated as the first portion 41 and the free end 70 is defined by the second portion 43. Therefore, the first portion 41 and the second portion 43 are slidably coupled to each other such that the first portion 41 can slide relative to the second portion 43. Accordingly, it should be understood that the locking member 64 can further define the sliding member 47, and the knot 66 can be further referred to as a sliding locking knot. During operation, when the actuation force F is applied to the first portion 41, the first portion 41 slides proximally relative to the second portion 43 to reduce the size of the coil 53 and actuate the anchor 28 from the first configuration to Extended configuration. The free end 70, which may be defined by the second portion 43, can be tightened to tighten the free end 70 about the strut end 68, thereby locking the relative translation of the strut end 68 and the free end 70 defined by the first portion 41. When the free end 70 is tightened about the strut end 68, thereby securing the knot 66 about the strut end 68, the free end 70 defines the attachment portion 133 of the actuating strand 38. Alternatively or additionally, once the anchor body 28 has been expanded into an expanded configuration, the knot 66 can be translated distally along the strut end 68, thereby reducing the size of the coil 53 and actuating the expandable portion 36 to the extended configuration, and 25 The 201210564 rear sill 66 can be tightened about the strut end 68 to fix the reduced size of the coil 53 and, in some cases, assist the anchor 28 to maintain the expanded configuration. Referring now to Figures 4A through 4E, the construction of the junction 66 is described in accordance with an embodiment. As shown in Fig. 4A, the free end 7A defines a plurality of sliding coils 71A-D around the strut end 68 that are configured to slide along the strut end 68. At least one of the coils 71a-D (eg, the most distal coils 71A, 71B shown) may further define a locking coil configured to be applied to a tightening force (tightening f〇rCe) F1 to The free portion 7b can be tightened to thereby tighten the free end 70 about the strut end 68 in the manner described above. As shown in Fig. 4B, the formation of the junction 66 is made by winding the free end around the 6688 to / / ^, as in the same direction, to form a loop; at least the sliding coil 71 of the pillar 鳊 68 Α For example, a pair of lines in two cases!: Slide coil 71Α and second slide coil (4). It should be corrected as needed. The white end 70 is around the end of the strut. According to the figure, the second coil 71B can be used. The proximal end & = translation can be defined by the relative free ❹ by the coil by the coil. The distal end of the static portion 70a extends to the second portion 43 of the movable strand 38.夂 can also be defined. Next, please refer to Figure 4C, 70b tightens while maintaining the strut end 6 ^ free partial state so that the sliding coils 71A, 7 are in tension with each other. For example, the distal end 26 201210564 tightening force can be applied to the free portion so that the second coil is affixed to the first coil 71A. Next, as shown in the still figure, the free portion at the proximal end of the first-sliding coil 71A is recirculated around the strut end 68 in the same direction as the sliding coils 71A, 71B to define the third sliding coil. 71C. When the free portion is looped around the strut end 68, a gap 73 is defined between the free portion 70b and the strut end anvil. Then, the free part of the bird can be fed through the gap so that the sliding coil 71C can further define the locking coil, and the free portion 7b is extended by the sliding coil 71C. Next, referring to FIG. 4E, the free portion 70b can be tightened so that the third sliding coil 71 is placed against the first sliding coil 71A spaced apart from the adjacent and proximal ends, so that the free portion 70b is extended by the gap 73. Out. As shown in FIG. 4F, at the position of the third sliding coil 71 (the proximal end, the free portion 70b is again looped around the strut end 68 in the same direction as the sliding coils 71 to c to define the fourth sliding coil 71D. When the free portion 7〇b is looped around the strut end 68, a gap 73a is defined between the free portion 70b and the strut end 68. Then, the free portion wound 70b can be fed through the gap 73 such that the fourth slip coil 71D The locking coil can be further defined, and the free portion 7b is extended by the fourth sliding coil 71E). Next, the free portion 7〇b can be tightened so that the fourth sliding coil 71D is placed against the third sliding coil 71C which is directly adjacent and proximally spaced, as shown in Fig. 4A. It should be understood that the knot 66 can define any number of slip coils 71, such as at least one slip coil 71 or a plurality of slip coil turns. It should be further understood that 'at least one of the swaying coils 71 to all can be entered as needed. 27 201210564 steps to define the locking _ 7 卜 during the operation ... to make the knot, the actuation force F is applied to the definable actuation portion 131 ( The post end 68 of the first portion 41) is shown such that the expandable portion 36 of the anchor body 28 extends from the first configuration to the extended configuration. It will be appreciated that the knot 66 in the unlocked configuration can be configured whereby the strut end 68 translates relative to the coil 71 T through the knot 66 as the anchor 28 expands. The locking force (locking f0rce) can be applied to the free part 7% to actuate the locked configuration (locked C〇nfigUration). In particular, the locking ring 71 is tightened about the strut end 68 to prevent the actuation portion 131 from translating through the knot 66. The free portion of the free end 70 can be extended by the knot, as shown in Figure 2G, and defines the attachment portion 133 of the actuating strands that causes the pin body μ to be attached to the other anchor. As shown in Fig. 2H, the free portion of the bird, and thus the attachment portion 13, can define a connecting member 63 that is configured to be attached directly or indirectly to the other actuating strand. According to the illustrated embodiment, the connection 63 is configured as an aperture 72 that is integrated with the actuation strand 38. Therefore, since the actuating strand 38 is extended by the expandable portion % of the anchor body 28, it can be said that the eyelet 72 is also extended by the expandable portion %. ^ Additionally, the wrong body 28 may include an aperture 9b (refer to FIGS. 6A to (4)) of the expandable portion %, and an aperture 9 申 which is also applied by the expandable portion (refer to FIG. 9A to FIG. , or in any alternative way, constitute a hole complementary line that is directly connected by (4) the hybrid 36 (for example, the attachment portion of the actuating strand), and the connecting member (for example, the connecting strand (connector r price (four) 33A through 33C) may be fed through the aperture 72 or to attach the tin 28 201210564 22 to the second anchor. The complementary line may translate through the aperture 72 such that the aperture 72, and the aperture 84b and 90 may define a sliding member 47. For example, 'as shown in Fig. 2G', the attachment portion 133 defined by the free 4 portions 70b of the actuation strand 48 may be fed through the aperture of the second wrong body. It is configured to be an eyelet 72, an eyelet 84b, an eyelet 90, or alternatively an optional aperture that is directly or indirectly attached to the expandable portion of the anchor body to attach the tin body 28 to the second body. It is understood that in this aspect, the anchor assembly 2 can include at least one connection configured to couple more than one anchor together Item 63. The connecting member 63 can be integrated with at least one of the actuating strands 38 or can be separated and attached to at least one of the actuating strands 38. Please refer to Figures 5 through 5 for an eyelet. 72 may be constructed by the first fold® free portion 70b itself to define a folded portion 74 that extends from the first end (e.g., 'stem 76'). Thus, the stem is %^ knot 66 (see Figure 2H) Extending from the folded portion %. The free Ηπ 70b 疋 is defined by the second end of the folded portion 74, such as the end = %. The free portion 7% can be oriented so that the end 78 can be configured with a stalk The shank 76 is adjacent to each other. The folded portion % can be looped at the % and end of the stem to define the coil 8 and then at the % stem and at the end of the closure m and through the _81 to define the aperture junction 8 and the defect 78 and The closed position of the aperture 72 is defined "1. ^ can be applied to the folded portion 78 to tighten the knot 80 and the sealing eye 72 and the 74 is also extended by the knot and defines the aperture 72. Thus, the knot 80 is defined or can be closed by any alternative Component Definition 29 The base of 201210564. For example, please refer to Figure 5C, the end 78 can be welded (for example, heated) or From the adhesive to the stem 76 in the closed position 113 to close the folded portion 74 and define the aperture 72. The closed position 113 can define the base of the aperture 72. Alternatively, refer to Figure 5D, the end 78 can be sewn to the closed position A stem 76 of 113 is configured to enclose the folded portion 74 and the base of the sinusoidal aperture 72. For example, a wire (eg, at least one suture 75) can be sutured through the distal end 78 and the stem 76 to attach the distal end 78 to the stem 76. Thus, it will be appreciated that the tip 78 can be attached to the stem 76 in any conventional manner to define the eyelet 72 such that a line of another 4 seedling 22 (eg, 'actuating strands') or connecting strands can be fed through the eyelet. 72 and a force (e.g., proximity force) to the aperture 72, as described above in the description of Figures 1A through iB. This approaching force is sufficient to bring the gap 24c disposed between the anchor bodies 28 close as shown in Figs. 1A to 1B. Referring to FIGS. 6A-6B, the error 22 can further include an attachment member 82 attachable to the anchor body 28 (eg, the expandable portion 36) and the actuation strand 38 such that the actuation strand 38 can be It is operatively coupled to the 4 extension portion 36. The attachment member 82 can assist the anchor body 28 and be separate and unconformable from the tracing strands 44 and the actuation strands 38. The attachment members 82 can be defined at opposite first and second ends 82a of the looped strands 79, respectively. 82b defines a looped strand 79 of at least one fixed zone (eg, 'holes, such as first eyelet 84a and second eyelet 84b'). The attachment member 82 can further include a body portion 85 that is attached between the apertures 84a, 84b such that the attachment member 82 can define a continuous coil 83. The first and second apertures 84a, 84b extend substantially through the body portion 85 through at least one of the apertures 40 of the malformed body 28 substantially along the second direction 35. According to the illustrated embodiment, the first and second apertures 84a, 84b each extend through the first and second selected apertures 45a, 45b, and the first and second selected apertures 45a, 45b can be disposed as needed relative to the first The second eye 84b' can be configured with the first eye 84a at the proximal end. As illustrated, the body portion 85 can extend between the first and second apertures 84a, 84b outside the expandable portion 36, or alternatively, the body portion 85 can extend through the first and second selected openings. At least one opening 40 between the holes 45a, 45b includes a plurality of openings 40. According to an embodiment, the first selected aperture 45a can be the proximal end opening 40a such that the first aperture 84a can extend through the proximal opening 40a and the second selected aperture 45b can be the distalmost opening 40b The second eyelet 84b can extend through the most distal opening 40b. It will be appreciated that once the attachment member 82 is attached to the anchor body 28, the first and second eyelets 84a, 84b can each define an opening 87a, 87b of the anchor 22. Actuating strands 38 can be attached to second eyelet 84b, such as through opening 87b through second eyelet 84, to define first and second portions 41, 43 extending from second eyelet 84b. The actuation force F can be applied to the first and second portions 41, 43 such that the actuation strand 38 is biased toward the first aperture, the second aperture 84b, such that the expandable portion 36 is defined by the second selected aperture 45b. 31 moves proximally to the coil 31 defining the first selected aperture 45a, thereby actuating the expandable portion 36 from the first configuration to the display. According to the illustrated embodiment, the actuation strand 38 is folded into a splicable connection location (e.g., pleat 86)' that is configured to attach 31 201210564 to the second aperture 84b. The first and second portions 41, 43 project from the proximal ends of the two pairs of pleats. The pleat pack 86 can extend through the second eyelet 84b' and the first and second portions 41, 43 can extend from the proximal end of the pleat pack 86 and through the opening 87a of the first eyelet 84a. Therefore, the first and second portions 41, 43 extend through the first opening 87a of the first eyelet 84a, and the defective hole gyb that is looped through the second eyelet 84b to attach the actuating strand 38 Connected to the second eyelet 84b. It will be appreciated that the actuating strand 38 defines in this manner the path of travel of the second eyelet 84b through the first eyelet 82a as the expandable portion 36 is actuated from the first configuration to the expanded configuration. For example, during operation, the actuation force F can be applied to the first and second portions 41, 43 that project from the proximal end of the first eye 84a. Thus, both the first and first portions 41, 43 can define an actuation portion of the actuation strand %. Alternatively, the actuation force F can be applied to either the first and the remainder 41, 43 simultaneously. The other of the first and second ends is supported to create tension in the actuating strand during application of the actuation force F. Thus, it can be said that at least one of the first and second portions 41, 43 can define an actuation force F to move the expandable portion 36 from the first configuration to the actuation portion 131 of the extended configuration. The actuation force f creates a pleat 86 such that the actuation strand 38 can bias the second aperture 84b toward and through the first aperture 84a along the proximal end of the path defined by the actuation strand 38. When the second eye 84b is moved proximally, the attachment member 82 actuates the expandable portion 36 from the first configuration to the extended configuration. It should be further understood that at least one or both of the first and second portions 41, 43 may be defined to be attached to the second anchor (refer to, for example, the second U 2 32 201210564 connection portion 133. Alternatively, the second The eyelet 84b can be extended by the first eyelet 84a and if further away from the anatomical structure 24, the actuation strand 38 can be removed by the eyelet 84b, and the connecting member (eg, the connecting strand) can then be fed through the second eyelet 84b and Attached directly or indirectly to the second anchor to attach the anchor 22 to the second blessing as desired. As shown in Figure 6C, the attachment member 82 can be in the form of a substrate, which in one embodiment can be A line having first and second opposite ends 7, 79b, such as a suture or a line 79 formed in any alternative manner. The opposite ends 79a, 79b can be attached as desired such that the attachment member 82 can define a continuous coil 83. As shown in Fig. 6D, the coils 83 can be configured to define first and second apertures 84 & 84b that are alignable with the first and second selected apertures 45a, 45b, for example, at opposite ends of the coil 83. The first and second apertures 84a, 84b can each be inserted into the selected aperture 45a 45b as shown in Figure 6E. It will be appreciated that the body portion 85 can be further woven through at least the aperture 40 disposed between the first and second selected apertures 45a, 45b (e.g., the plurality of intermediate apertures 4〇c) as desired. As described above, the actuation strand 38 can be separate or uncoupled from the substrate 42 of the anchor body 28 and attached to the Na 28, it being understood that the actuation member 37 can alternatively be integrated with the anchor body 28. Thus, the actuation strands are % Alternatively, it can be integrated with the substrate 42, such as the anchor strands 44, and thus also with the expandable portion 36. For example, please refer to Figures 7A through 7C, actuating the strands 38 to pin the strands One of the first and second end portions 52, 54 of 44 defines 'a brocade strand 44! and is as described above in the description of paragraphs 3a 33 201210564 to 3C, or otherwise. a embodiment, the C-common strand 38 projecting from the proximal end of the anchor body 28, and the 卩52 projecting from the distal end of the anchor body 28, swayed closest to the anchor body 28 (eg, closest to the expandable end) The 卩 54 may end at the position of the confrontation, the soil end 39b) of the secluded portion 36 such that the long-term production of the second end portion 54 is attached to the anchor of the second anchor And, as described above in the description of FIGS. 3A to 3C, the first end portion 52 of the body strand 44 may end at the position closest to the nearest two coils 57 of the coil 31, the first end. The portion 52 can alternatively define an actuation strand that extends distally from the proximal end 39a of the = extension portion 36 and can be woven therethrough to extend through the aperture 40 and the distal end of the expandable portion 36 proximal end 39a The spaced apart at least one selected opening 45ae can be selected as the most distal opening 40b, or alternatively one of the opening 40c. Actuating strands 38 can extend through selected openings 45a to define coils 53' including first and second portions 41,43. For example, the first portion 41 can be extended from the distal end of the first portion 52 to the first selected aperture 45a. The second portion 43 can project proximally away from the anchor body 28 and away from the anatomy 24 by the first selected opening 45a. For example, in accordance with the illustrated embodiment, the second portion 43 can be woven therethrough to extend through at least one opening 4'', such as a plurality of selected openings 40, configurable between the proximal end 39a and the selected opening 45a. For example, the second portion 43 of the actuation strand 38 can be woven through at least one of the intermediate aperture (e.g., the plurality of intermediate apertures 40c). The second portion 43 can extend beyond the expandable portion 36 of the anchor body 28 through the second selected opening 45b' in the opening 40, for example, it can be the proximal end opening 4a of the proximal end stop 46. 34 201210564 Therefore, in the expandable portion 36 (for example, = for example, the first portion 41 is applied to the actuation 4 1 , and the first - to the movement to the extended configuration. Therefore, the first portion can be integrated The actuating portion 13 of the moving strand 38, in particular, the expandable portion 36 slides along the elongated direction 3 to form a second distance history IT along the elongated direction 34, such as the 'second portion 43'. When the expandable portion 36~the actuating strand 38 is folded, the 'expandable portion% becomes entangled in the second direction when traveling along the second=part C or the other side ^^' causes the expandable portion The portion 36 is expanded in the second direction 35 by an initial maximum = degree τι to an expanded maximum = T2 greater than the initial maximum A thickness T1. However, the posterior portion 41 may be at the position closest to Na 28, such as cutting and burning the hair, or alternatively may define an attachment portion 133 attachable to the second error, for example, as herein The use is coupled to the second wrong complementary connecting member in any desired manner. Thus, it should be noted that the first portion of the anatomical structure 24 extending from the anchor body 28 can define at least one of the actuation portion 131 and the attachment portion 133. Alternatively, as shown in Figures 8A-8B, the anchor 22 can be configured as described above in the description of Figures 7A-7C, although the second end 54 of the anchor strand 44 can be The distal end 9b of the expanded portion 36 extends a sufficient distance to define an attachment portion 133 that is configured to be attachable to the second face to attach the anchor 22 to the second anchor. For example, the attachment portion 133 can be attached to the anchor line of the second anchor. The attachment portion 35 201210564 133 may be integrated with the layup of the second seedling, or the wrong assembly 20 may include a connection that attaches the attachment portion 133 to the second anchor (eg, the actuation strand of the second anchor) Device. The connector can be coupled to at least one or both of the actuation strand 38 and the actuation strand of the second anchor, or can be detached and attached to the actuation strand 38 and the actuation strand of the second anchor At least one or two. During operation, the actuation force F can be applied to the first portion 41, which defines the actuation portion 131 as described above. It will be appreciated that the actuation force F can be offset at least in part by the attachment portion 133 (defined in the illustrated embodiment by the second portion 43). Moreover, as described above in the description of FIG. 1D, the opposing first and second ends of the actuation strand 38 (each of which may be defined by the actuation portion 131 and the attachment portion 133) may be knotted, stitched, or Other means are secured to the other anatomical structure 27 to create tension of the actuation strand 38 and to secure the auxiliary structure 25 between the actuation strand 38 and the anatomy 24. Referring to Figure 9A, and as described above, the anchor body 28 can include an eyelet 90 extending from the expandable portion 36. According to the illustrated embodiment, the eyelet 90 can be disposed at the distal end 32 of the anchor 28 when the expandable portion 36 is in the first configuration. The eyelet 90 can be configured as described herein or alternatively can include a selected one of the coils of the cat body 28, such as one or more of the other coils defined by the tin body 28. The tin 22 can include an auxiliary strand 33 that can define an actuating strand that is configured to cause the anchor 22 to be in the first configuration, extended configuration, as described above, when the anchor is implanted into the target anatomy 24. Exercise between. Alternatively or additionally, the auxiliary strands 33 may define a deployment strand configured to assist in the attachment of the anchor 22 to another brocade, as described in the following paragraph 36 201210564, for example, in the description of Figures 37A through 37D Mentioned in the figure. The auxiliary fiber strands 33 may define the first and second portions 41, 43 and the joint position 'for example, disposed between the first and second portions 4 and 43 and the ', I σ attached. . The defective stack 86 can extend through the aperture 90 to attach the auxiliary strand 33 to the aperture 9G such that the first and second portions 4 are 43 by the eyelet = proximal when the expandable portion 36 is in the first configuration Extending through at least one of the selected openings 45, such as the opening 4, the opening 45. The selected opening 45 can include at least one intermediate hole 4〇C' and can further include a proximal opening 40a. If the auxiliary strands 33 are to be more knotted or otherwise attached to the eyelets, According to the illustrated embodiment, the first and second portions 41, 43 extend through a plurality of selected openings 45 in the opening 40, and further extend = the same opening 4". For example, the first and second portions 41, 43 may be perforated (10) in the proximal direction every other opening 4G, and every other two, the opening 40 is along the proximal direction by the aperture 90, each opening 40 along The near direction is traversed by the eyelet 9' or extends through the eyelet 40 in any regular repeating pattern or any irregular repeating pattern as desired. Referring to FIG. 9B, since the first and second portions 41, 43 extend through the same selected opening 45 in the proximal direction by the eyelet 90, the first and second portions 41, 43 are defined at the actuation force ρ. When the first and second portions 41, 43 are applied, the aperture 9 〇 passes through the path of travel of the selected aperture 45. Therefore, when the first and second portions 41, 43 of the auxiliary strands 33 travel through the selected opening 45 of the anchor body 28 in response to the applied actuation force ρ, the aperture 90 and the actuating member 38 are in the expandable portion. Traveling through the selected aperture 45 together from the first configuration movement to the extended configuration. Conclusion 37 201210564 =行=C charging Figure 2 shows that the configuration is relatively extended at the expandable portion 36. Therefore, when the configurable coil 86 can be placed at approximately 9 〇 and the expandable portion 36° H is in the extended state, the connection structure of the hole member hole is directly connected (for example, via the second pin or not) The integration and attachment n is separated from the second shop to the second I-connecting member) attached to the second two-hole 90 to be attached to the thin 22-attached strand, (4): the thread-receiving line may be the second anchor Actuating the eye's actuation strands directly or indirectly attached to the apertures 28 can be constructed in any manner as desired, for example by making an expandable ^ and further by making any suitable means in any suitable manner as needed 36. Thus, the anchor strands 44 can be knotted to define a definition of "丨" or welded, stitched or otherwise attached to itself to facilitate the aperture 9 〇. The r-body embodiment, generally referring to the 1GA-to-c diagram, 2::44, is foldable and stitched through itself to define the first and second segments A @ of the coil 99 which are respectively extended from opposite sides of the coil 91. The tip end of the needle 94 can be inserted through the first segment 92a to define a first channel of the extended segment 92a. The second end of the second paragraph can feed the person through the eyelet of the needle 94. Then, the movement can be made to pass through the first segment 92a such that the second segment 92b is pulled through 38 201210564 through the hole made by the needle 94 in the first segment 92a, thereby closing the coil 91, as shown in FIG. 10B. And define the first stitch 93. The coil 91 is extended from the distal end of the first suture 93. As shown in Fig. 10C, the second segment 92b can be translated back through the first segment 92a to adjust the size of the coil 91 as desired. According to an embodiment, the adjustable coil 91 as taught in Figure ii is approximately 5 millimeters in length. Next, referring to Figures 10D through 10E, the tin body strand 44 can be stitched through itself for a second time. For example, at the distal end position of the second suture 93, the tip end of the actuating needle 94 can be passed through the segments 92a, 92b' of the malformed rope win 44 to form a distal end weight at the first suture 93, each extending through the first and The second and third lanes of the second segment 92a, 92b. As shown in Fig. 10E, the second segment 92b can be fed through the aperture of the needle 94, and then the needle 94 can be translated forward through the second and third apertures such that the second segment 92b is pulled through the side of the coil 91. The first segment 92a is itself pulled out, as well as on the opposite side of the coil 91, to define a second stitch 95 at the distal end of the first slot 93. The first and second stitches 93, 95 define the base of the coil 91. The second segment 92b further defines a coil 96 extending from the first and second stitches 93,95. It will be appreciated that the size of the coil 91 will be reduced after the second stitch 95 is made. Referring to Figures 10F through 10G, the Fukui Township 44 is knotted 97 at the first and second stitches 93, 95 to fix the size of the stitch 91 defining the eyelet 90. For example, the second segment 92b can define a free end 92c that extends through the coil % of the third channel of the second segment 92b and is subsequently tightened to define the knot 97. Therefore, the junction 97 is placed at the base of the coil. It will be appreciated that prior to making the knot 97, the second segment 92b can be stitched through the coil 91 to secure the coil 91 as desired by 39 201210564. Thus, it will be appreciated that the eyelet 9 can be made by suturing the anchor strand 44 through itself to make at least a stitch, such as two stitches, to define the stitch, and then to knot a knot 97 around the base of the coil for fixation. Eye 90. A method of constructing an expandable portion will be described hereinafter with reference to Figs. 11A through UH, which includes braiding actuating strands 44. For example, if the first:=: indicates that one end of the '_ strand 44 is used: what is the replacement of the closing member (for example, the perforation 90 of the base defined in the 5A to 5D drawings Z. The pin body 44 is in this manner The sinusoidal aperture 90 is lean _52, and extends from the aperture 90: a first or proximal portion or distal portion 54 on the segment 92. The second tin body 28 that may be included and may include the first segment Scalable ~ ^ The division of the distal end of the division: The construction method of the second 36 generally consists of a plurality of coils 9954 under the order to define the direction of the formation in the same way 34 1% Μ μ RX special coils " If the coils 99 and the handles B are not known, the direction of the directional component _ ^ the hole 4G is separated along the elongated direction Μ in the elongated direction 34 " and opening 4G can be said to be a plurality of openings in each of the openings 4G"

As shown in the figure, the method can be further described above. For example, as in the UA s. _, the step includes the steps of: having the second end 54 defined by the first-first (four) _ end 54 at the junction 86 to extend the pass-ring, for example, the first coil 99a. The first new line first coil 99a defines a respective opening 40 and includes a first segment 101a and a second segment 101b. The first segment 101a of the first coil 99a is extended by the knot 97 and the second segment 101b is extended from the distal end of the first segment 10a to define the first coil 99a. The second end portion 54 defines a free end 100 that projects from the distal end of the second segment 101b such that the free end 100 of the second end portion 54 and the first coil 99a are on opposite sides of the eyelet 90. Next, as shown in FIG. 11B, the second end 54 can be folded to define a second new coil, such as a second coil 99b, which defines a respective opening 40 and includes a first segment 103a and a second segment 103b. . The second pullable coil 99b passes through a second previous coil that may be defined by the first coil 99a, whereby the first segment 103a is disposed at the proximal end relative to the second segment 10b. Alternatively, the free end 100 can be fed through the first coil 99a in a first direction, folded to define a second coil 99b, and reversely passed through the first coil 99a in a second direction opposite the first direction. Thus, the first segment 103a is extended by the eyelet 90 and the second segment 103b is extended by the first segment 103a to define the second coil 99b. The free end 100 of the second end portion 54 projects from the distal end of the second segment 103b such that the free end 100 of the second end portion 54 and the second coil 99b are on opposite sides of the first coil 99a. As shown in Fig. 11C, tension can be applied to the first segment 103a of the second coil 99b, which causes the size of the first coil 99a to decrease and tighten around the second coil 99b. Next, as shown in Fig. 11D, the second end portion 54 is again folded to define a new coil (e.g., the third coil 99c) which defines the opening 40 and includes the first segment 105a and the second segment 105b. The pullable third coil 99c passes through the opening 40 of the previous coil (e.g., the second coil 99b), thereby thereby configuring the first segment 105a at the proximal end relative to the second segment 105b. Alternatively, the free end 100 can be fed through the second coil 99b in a first direction, folded to define a third coil 99c, and reversed through the second coil 99b in a second direction opposite the first direction. Therefore, the first segment 105a is extended by the first coil 99a, and the second segment 105b is extended by the first segment 105a to define the third coil 99c. The free end 100 of the second end portion 54 projects from the distal end of the second segment 105b such that the free end 100 of the second end portion 54 and the third coil 99c are on opposite sides of the second coil 99b. Referring to Fig. 11E, the first segment 105a is tightened, which causes the size of the second coil 99b to decrease and tighten around the third coil 99c. Next, as shown in FIG. 11F, the second end portion 54 can be folded again to define a new coil (eg, the fourth coil 99d) that defines the respective aperture 40 and includes the first segment 107a and the second segment 107b. The pullable fourth coil 99d passes through the opening 40 of the previous coil (e.g., the third coil 99c) whereby the first segment 107a is disposed at the proximal end relative to the second segment 107b. Alternatively, the free end 100 can be fed through the third coil 99c in a first direction, folded to define a fourth coil 99d, and reversely passed through the third coil 99c in a second direction opposite the first direction. Therefore, the first segment 107a is extended by the second coil 99b, and the second segment 107b is extended by the first segment 107a to define the fourth coil 99d. The free end 100 of the second end portion 54 extends from the distal end of the second segment 107b such that the free end 1〇〇 of the second end and the fourth coil 99d are on opposite sides of the third coil 99c. Referring to Fig. 11G, the first segment 107a is tightened, causing the size of the third coil 99c to decrease and tightening around the 42 201210564 brother four coil 99d. Therefore, the following sub-coils are included, one side of the previous coil: the subsequent coil on the opposite side of the circle " extends to the first segment of the coil 99 to reduce the size of the previous coil. For example, in Figure 11 (1), the expansion of the body 28 can be determined by, for example, the length of the desired 掣 踉 々 々 々 々 力 力 力 力 力 力 力 力 力 : : : : : : : : : : : : : : Once the final coil 99 is made, the free end of the second end portion 54 or the feedable person can pass through the final coil and tighten to close the knot of the distal end 39b of the expandable portion 36. The remainder of the second end 54 can then end at the position closest to the expandable distal end 39b or can be extended from the proximal end of the expandable portion to define integration with the pin body 28 and to be woven through the selected opening. 4 turns of actuating strands 38, as described above in the description of Figures 7A-8B, or alternatively may define integrated connecting strands configured to attach anchor 22 to another anchor, such as The following is described in the description of Figs. 42A to 42c. It will be appreciated that the final coil 99 may have no openings 40 in accordance with the illustrated embodiment. In one embodiment, the expandable portion 36 can include 15 coils 99 each having an opening 40. In another embodiment, the expandable portion 36 can include eight coils 99 each having an opening 40. In yet another embodiment, the expandable portion 36 defines eight openings 40. Although the anchor body 22 including the expandable portion 36 and the eyelet 90 can be constructed in the manner described above, it will be appreciated that the expandable portion 36 and the eyelet 90 can be formed by any suitable alternative. For example, alternatively, the (four) 28 of the anchor strand 44 portion 36 can be 'wrapped' in any alternative manner as needed, and the expandable portion has an expandable first configuration actuation to an extended configuration, such as this =, The money portion can be made available from the hybrid strands 44. Alternatively, the expandable strands 44 can be separated or not. 90 can be attached to the anchor body, can be attached, or can be attached as appropriate. 1 , , , = ^ ee ) , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , This out-of-mouth = and actuation section, although the coils 5 of the expandable section 36 are integrated with each other, the expandable section 36 can be more or more of the wrong strands. / or together define a number of braided segments or coils 56 that can be joined in the following manner, such as the second redundant diagram), tan (refer to Figure 5), knotted, spliced, mouth or two pots attached together . 8 Referring to Figures 12 through 12B, the 'auxiliary strands 33 can extend through the apertures 90, and when the expandable portion 36 is in the first configuration' can extend further through the selected openings in at least the apertures 40. 45, for example, a plurality of selected apertures 40. For example, one of the first and second portions 41, 43 of the auxiliary strands 33 can be fed through the aperture 9'. A needle (e.g., needle 94) can be fed through a selected opening 40 that is identified as an opening 40 through which the auxiliary strand 33 will extend. Any one or more of the apertures 40 of the expandable portion 36 to all may define a selected aperture 4〇. For example, the distal end of the needle 94 extends through the opening 4 of the second coil 99, and each of the fourth subsequent coils 99. The first and second portions* 1, 43, 201210564 can feed the eye through the needle 94, and the proximal end of the needle 94 translates through the expandable portion 36, thereby knitting the first and second portions 41, 43 The proximal end of the aperture 90 extends through at least one aperture 4, such as each of the apertures 45. Once the needle 94 has passed through the expandable portion 36, the first and second portions 41, 43 can then be removed by the needle 94, as shown in Figure 9A. Referring to FIG. 11H and FIGS. 12A and B, at least a plurality of openings 40 to all of the openings 4 are divided into a definable first portion 102a and a second portion 1〇2b, the second The portion l2b is substantially adjacent to the first portion 102a along the second direction and is separated from the line 104 extending through the aperture 40 and integrated with the anchor strands 44. According to an embodiment, the first and second portions 4b 43 alternately extend through the selected ones of the first and second portions 102a, 102b sequentially through the selected opening 45. Further, the first and second portions 41, 43 extend through the same portions 102a, 102b. For example, the first and second portions 41, 43 extend through the first of the first and second portions i 〇 2a, l 〇 2b of the first selected opening 45, all passing through the second selected opening The second of the first and second apertures 102a, 102b of the aperture, and the first and second portions 102a, 102b of the subsequently selected aperture, continue to alternate in sequence. Referring again to FIGS. 9A through 9C, it should be understood that the first and second portions 41, 43 of the auxiliary strands 33 are attached to the eyelets 90, and the eyelets 90 extend through the same opening 40 and extend through The same portion 102a, 102b of the opening 4 is extended, and the anchor body 28 is extended, for example, the proximal end projects out of the anchor body 28' and away from the target anatomical location. Therefore, when the actuation force ρ is applied to the auxiliary strands 33 (in particular, at least one of the first and second portions 41, 43), the auxiliary strands 33 (in particular, the first and second portions 45 201210564 Parts 41, 43) define the path of travel of the aperture 90. Thus, at least one or both of the first and second portions 41, 43 may define an actuation portion 131, and at least one or both of the first and second portions 41, 43 may define an attachment portion 133. Thus, when the actuation force F is applied to at least one of the first and second portions 41, 43 while the proximal end 39a of the expandable portion 36 has a support for the actuation force F, the proximal end of the aperture 90 travels through the expandable Part 36, which causes the expandable portion 36 to move from the first configuration to the extended configuration. The actuation force F can be applied to the auxiliary strands 33 until the apertures 90 extend from the proximal end of the expanded actuation body 36. As detailed below, the eyelet 90 can define a connecting member 63 that is configured to attach the tin 22 directly or indirectly to the second anchor. For example, the auxiliary strands 33 of the error 22 can be attached to the second anchor. For example, the auxiliary strands 33 may be integral with or separate from the actuation strands of the second anchor and attached directly or indirectly thereto, or alternatively directly attached to the second | The tin body, for example, if the actuating strand is unloaded by the second anchor after the second anchor has been moved from the first configuration to the expanded configuration. Alternatively, the auxiliary strand 33 can be unloaded by the anchor 22, and another line (eg, an auxiliary strand of another anchor) can be inserted into the eyelet 90 to attach the anchor 22 to another anchor and implant the anatomy at the anchor 22. The actuating strands are provided as detailed below. Referring to Figures 13A through 13B in May, and as described above, the seedling strand 44 may be porous to define the opening 40, or may be non-porous to form an opening 4 in the anchor strand 44. For example, the openings may be laser cut, inserted through the anchor strands 44, or otherwise formed as desired. The central axis 29 of the anchor body may also define the central axis of the anchor strand 46 201210564 44. The anchor strands 44 can define a cross-sectional dimension C1 that is substantially perpendicular to the central axis 29. According to an embodiment, the cross-sectional dimension C1 may be the diameter of the anchor strands 44. The actuating strands 38 can also define a cross-sectional dimension C2 that is perpendicular to the axis 110 therein, and a cross-sectional dimension C2 that is less than the cross-sectional dimension ci of the anchor strands 44. In other words, the actuating strands 38 are thinner than the anchor strands 44. According to an embodiment, the cross-sectional dimension C2 of the actuation strand 38 can be the diameter of the actuation strand 38. Thus, the anchor strands 38 can be inserted through to extend through at least one opening 40, such as a plurality of openings 4. At the contact 108 of the fixed position 115, the actuation strand 38 can be secured to the anchor strand 44. Contact 1〇8 may be defined by actuating strands 38 or may be defined by auxiliary strands attached to the actuating strands. According to the illustrated embodiment, the contacts 108 can be knots, turns, or the like. The joint 108 can be disposed outside of the anchor strand 44 and can be sized to be larger than the adjacent opening 4, such that the contact abuts the outer surface of the actuating strand 44 and is applied to the actuating strand 38 at a pulling force. It does not travel through the opening 40. Alternatively, the contacts 1〇8 may be welded, stitched, spliced, or otherwise secured to the tin body strands 44 outside of the anchor strands 44 or within the anchor strands 44. In this regard, it will be appreciated that the anchor strand % can be attached to the distal end position, for example, knotted, welded, stitched, twisted, relative to the position on the wrong body 28 that actuates the strand 38 away from the anchor body 28. Attached to, or otherwise attached to, any of the anchors 28 described above. The actuation strand 38 extends through the anchor strand 44 and exits the anchor strand 44 at a proximal exit position 119 for the joint 108. Referring to Figure 13C, during operation, when the actuation force F is applied to the actuation strand at the proximal end 39a of the expandable portion 36, the fixed position 115 of the portion of the extension portion 36 of the 201210564 can be extended to the exit position U9. The proximal end is translated so that the expandable portion 36 is moved from the first configuration to the extended configuration. For example, the expandable portion 36 can be folded into a shape having a substantial accordion shape. Referring to Figure 14A, it should be understood that the anchor is 22 can be constructed with a two-section anchor line 44. For example, anchor line 44 can be folded to define first and second anchor line segments 44a, 44b, which together define opposing ends 52,54. For example, as illustrated, the folded end of the anchor line 44 can define a first end 52, and the free end of the anchor line segment 44a, 44b can define a first end 54. Alternatively, the folded end of the tin wire 44 can define a second end 54' and the free end of the anchor segment 44a, 44b can define a first end 52. The anchor line segments 44a, 44b can be manipulated together with respect to the anchor line 44' as described above to construct the anchor 22 in accordance with various embodiments. It should be understood that the anchor wire 44 can be folded as many times as desired to produce an anchor wire having a desired number that can be manipulated together as described above. Alternatively and additionally, the 'anchor segments 44a, 44b, as shown in Fig. 14B, or a desired number of anchor lines, may be defined by separate unconformed staggered lines 44. Thus, it should be understood that the anchor body 28 can be a two-segment' or otherwise define a plurality of segments of wire. Referring to Figures 15A through 15D, and as described above, the substrate 42 of the anchor body 28 can be woven and thus the opening 40 can be defined. For example, as shown in Fig. 15A, the substrate 42 of the anchor body 28, including the expandable portion 36, defines a plurality of anchor fibers 109 that are woven into a definable mesh 111. It will be appreciated that the fibers 109 alternatively may define a woven structure, such as a braid, fabric, mesh, knit. The substrate 42 defines a plurality of openings 40 that extend through the mesh 1Π 48 201210564 and are substantially separated along the elongated direction 34 and substantially along the second direction 35. According to an embodiment, as shown in Fig. 15B, the actuation strand 36 can be integrated with the mesh 111 and the selected aperture 45 can be woven through the aperture 4〇 in the manner described above, as illustrated in Figures 7A through 7C. I am lost. For example, the actuation strand 38 can be extended from the proximal end of the anchor body 28, for example, the proximal end 30 of the bird body 28, and the selected one that can be woven through to extend through the aperture 40. When the actuation strands 38 are woven through the apertures 40, the anchor fibers 109 of the mesh 111 can be separated or broken to amplify the apertures 40 that receive the actuation strands 38. According to the illustrated embodiment, the anchor line 38 can be looped through the first selected aperture 45, and then the proximal end is woven through at least one additional selected aperture 45 spaced apart by the elongated direction 34, such as a plurality of selected openings Hole 45. For example, the actuation strand % can be extended from the proximal end of the expandable portion 36 such that when the actuation force F is applied to the sway strand 38, the actuation strand 38 can cause the expandable portion 36 to move from the first configuration to the configuration To the extended configuration, as described above. Referring to Figure 15C, as described above, the substrate 42 of the anchor body 28 can be woven or non-woven, and the opening 40 can cut through the substrate 42 after knitting through the actuation strands of the substrate 42. For example, the openings 40 can be cut as desired by laser cutting, machine cutting, chemical cutting, or by any suitable alternative. The openings 4 〇 can be substantially separated by the lengthwise direction %. The actuation strand 38 can be integrated with the anchor body 28 and can be woven through the aperture 40 such that when the actuation force F is applied to the actuation strand %, the actuation cord = 38 can cause the expandable portion % to be moved from the first (fourth) to Expand group L as above. 49 201210564 Referring to Figure 15D, the substrate 42 of the anchor body 28 can define at least one anchor strand, which can be a woven or non-woven fabric, such as a plurality of anchor strands 44, and can be braided to define a plurality of openings after fabrication. The braided strand of the hole 4〇. The apertures 40 can be substantially spaced apart along the elongate direction 34. The actuation strands 38 can be integrated with the anchor body 28 and can be woven through the apertures 4 such that when the actuation force F is applied to the actuation strands 38, Actuating the strand % allows the expandable portion 36 to be moved from the first configuration to the expanded configuration, as described above with reference to Figure 16A, the base 42 of the anchor 28, including the expandable portion 36, which can define a plurality of The anchor fibers 1〇9 are woven into a definable mesh 111 as described above in the description of Figure 15A. The substrate 42 defines a plurality of openings 4G which extend through the mesh and are substantially separable along the elongated direction 34 and substantially along the direction; Na 28 can be further defined in the expandable part 3-6 in the hole of the first configuration expansion part 36! 12 If the eyelet 112 is extendable from the distal end of the expandable portion 36, and as described above, it can be passed through the expandable portion at its proximal end. The root:-through embodiment, as shown in Fig. 16B, may be separated or uncoupled from the tin body 28, may extend through the aperture 2 and may extend further through at least one aperture, such as 40. For example, the actuating strand 36 can define first and second portions Μ, 43' and a fold 86 disposed between the first and second portions 4 and 43 and integrated with the basin, as described above. 9A to 9CS1. The first and second portions 41, 43 may extend through the plurality of openings 4Q in a direction proximal to the aperture ι 2 to define the path of the aperture 112 when driving the expandable 201210564 portion 36 to the extended configuration _ The above is described in the description of Figs. 9A to 9C. Therefore, when the extended portion is in the extended configuration, the eyelet 12 can be extended from the proximal end of the expandable screen. ~. 1 pseudo 36 Alternatively, when the expandable portion 36 is in the first configuration, the aperture 112 or eyelet 90 can be extended from the proximal end of the respective expandable portion 36 and the actuating strand 38 can extend through A portion of the plurality of openings 40 are expanded to receive an actuation force to drive the expandable portion 36 from the first configuration to the extended configuration, as described above. Thus, after the expandable portion has been driven to the expanded configuration, the apertures 112 and 90 can be extended by the proximal portion of the expandable portion. Referring to Figure 16C, as described above, the substrate 42 of the anchor body 28 can be woven or non-woven, and the opening 40 can cut through the substrate 42 before the knitting actuation strands 38 pass through the substrate 42, as above This is described in the description of Figure 15C. For example, laser cutting, mechanical cutting, chemical cutting, or cutting of the openings 4 as desired may be performed by any suitable alternative. The opening 40 can be spaced substantially along the elongated direction 34. The anchor body 28 can further include an eyelet 112 extending from the expandable portion 36, such as the distal end, when the expandable portion 36 is in the first configuration. According to an embodiment, the actuating strand may be separate or uncoupled from the wrong body 28, may extend through the eyelet 112, and may extend further through the at least one opening 4'', such as a plurality of openings 40' as above The descriptions of FIGS. 9A to 9C, 3A to 3C, and 16A to 16B will be described. Thus, the eyelet 112 can be extended from the proximal end of the expandable portion 36 when the expandable portion is in the extended configuration. 51 201210564 Referring to FIGS. 17A through 17B_, the pin assembly 2A can include a plurality of wrong members 114 @actuating members 37, such as a common actuating 38. The plurality of wrong members 114 can be associated along the common actuating strand 38. slide. The definable (four) member 114 is a pre-knotted knot, and each eyelet 116 is configured to engage each of the slidable surfaces of the anchor member ι4 to the common actuating strand 38. For example, each of the nave members 114 can be inserted into a common target anatomical location, such as by, for example, opening of a common target anatomical location when the primary access member 114 is at a common target anatomical location, or which can be formed due to a defect in the tissue. The holes are as described above in the description of Figs. 1A to 1B. The first portion 41 of the co-actuating strand 38 can define an eyelet, and the 7-system can allow the first portion 43 to translate relative to the first portion 41 through the sliding member 47 of the eyelet m, such as a slip knot (only knot ) such that the actuation strand 38 can define the coil ι 8 . Therefore, the first and second portions 41, 43 are slidably attached to each other. When the actuation force F% is applied to the second portion 43, it pulls the second portion 43 through the aperture 117' to reduce the size of the coil 118, which causes the pin member 1i to slide and gather along the common actuation strand 38. Together to define a cluster 120 consisting of a number of aggregated nodes. Thus, the second portion 43 can define the actuation portion 131 and can also be attached to the second anchor to define an attachment lesion 133. The tufts 120 are sized to define a maximum thickness T2 that is greater than the maximum thickness T1 of each individual anchor member 114, and at least equal to or greater than the opening at the common target anatomical location. Thus the 'cluster 120' can define an anchor 22 that can be attached to the other anchor across the gap 24c to approximate the gap 24c of the type described above with reference to Figures 1A through ibB 52 201210564. Alternatively, the anchor member 114 can define an anchor body 28 constructed in accordance with any of the above-described embodiments, either in a first configuration or in an extended configuration. The tuft 120 can be attached to the second anchor 22 in any of the ways described herein. For example, the co-actuated strands 38 can be attached directly or indirectly to the second anchor. For example, the 'co-actuated strands 38 can be attached directly or indirectly to the actuation strands of the second anchor. According to an embodiment, the co-actuating strands are integrated with the actuating strands of the second anchor. Referring to Figures 18A through 18C, and generally as described above with respect to Figures 1A through 1B, the wrong component 2A can include first and second errors 22a, 22b. The first error 22a includes a first body 28a that extends in the elongate direction 34 and defines a first plurality of apertures 40a extending through the first anchor body 28a. The first anchor 22a further includes a first actuating strand 38a extending through at least one opening 4A, such as a plurality of openings, and configured to accept the first wrong body 28a in the manner described above The first configuration moves to the actuation force F of the extended configuration. The first actuating strand 38a can be separated from the first anchor body 28a and attached to the first body 28a, such as woven through, as described above in the description of Figures 2A through 2H. The erroneous body 28a is integrated as described above in the description of Figure 7A. The second anchor 22b includes a second anchor body 28b that extends substantially along the elongated direction 34 and defines a second plurality of apertures 40b that extend through the second anchor body 28b. The second depiction 22b further includes a second actuating strand 38b extending through at least the split aperture, such as a plurality of apertures, and configured to be acceptable to cause the second anchor 28b to be in the manner described above by the 53201210564 A configuration movement to the actuation force F of the extended configuration. The second actuating strand 38b can be separated from the second anchor body 28b and attached to the second anchor body 28b, such as woven through, as described above in the description of Figures 2A through 2H, or A pin body 28b is integrated as described above in the description of Figures 7a through 7C. The first pin 22a and the second tin 22b may each include a first and first tin body 28a, 28b and first and second actuating members 37a, 37b, for example, with the first and second I seed bodies 28a, 28b. Integrated actuation strands 38a and 38b. The first and second anchor bodies 28a, 28b each each include first and first expandable portions 36a, 36b configured to be movable from the first configuration to the second expanded configuration as described above. According to the specific embodiment illustrated in Figures 18A through 18B, the first and second actuation strands 38& and are integrated with the respective first and second anchor bodies 28a, 28b. According to other embodiments, the first and second actuation strands 38a and 38b are illustrated as being separate from and attached to the first and second anchor bodies 28a, 28b, respectively, to the first and second anchor bodies 28a, 28b. According to other embodiments, one of the first and second actuation strands 38 & and 38b is integral with the respective anchor body, and the other of the first and second actuation strands 38a and 38b are each Separation and attachment of the anchor body. According to a specific embodiment in which the first and second actuation strands 38a and 38b are illustrated and described as being integrated with the first and second anchor bodies 28a, 28b, it should be understood that the first and second actuation strands 3 and 38b may alternatively be separated and attached to the first and second anchor bodies 28a, 28b, unless otherwise stated. In addition, according to a specific embodiment in which the first and second actuation strands 38a and 38b are illustrated and described as being separate and attached to the first and second anchor bodies 28a, 54 201210564 28b, it should be understood that the first And the second actuation strands 38a and 38b can alternatively be integrated with the first and second anchor bodies 28a, 28b, respectively, unless otherwise stated. Continuing with reference to Figure 18C, the paving assembly 20 can include at least one connecting member 63 configured to engage the pin 22 and allow biasing force to be applied to at least one of the pins 22a, 22b to pull the anchors 22a, 22b together, Thereby the anatomical defect 24 is brought close. The connecting member 63 can be integrated with one or both of the first and second tins 22a, 22b, for example, with one or both of the first and second actuating strands 38a and 38b, and can be combined with the first and the first One or both of the two complexes are integrated or may be separated and attached (directly or indirectly) to one or both of the first and second seedlings 22a, 22b. For example, the connecting member 63 can be separated from and attached to the first and second anchors 22a, 22b, as will be described in more detail below. Although the connecting member 63 is described herein in terms of various embodiments, it should be understood that the anchor assembly 20 can alternatively include any suitable connecting member configured to attach the first knower 22a to the first pin 22b. At least one or both of the actuating strands, or a connecting strand that can be attached to, for example, the eyelet 9〇 or any suitable alternative eyelet after the actuating strand 38 has been removed by the eyelet 9〇, is configured to be acceptable The proximity force AF that biases at least one of the first and second anchors 22a, 22b toward the other to bring the gap 2 4 c close. The anchor assembly 20 can include a connecting member 63 that is integral with the corresponding actuating strands 38a and 38b. As described above, each of the first and second pins Na, m can be implanted in the first and second target anatomical positions 24a, 24b on opposite sides of the gap 24c, as shown in Fig. 18A. First and 55 201210564 each of the second actuating strands 38a and 38b can receive an actuation force F' substantially along the elongate direction 34 which causes the respective first and second anchor bodies 28a, 28b, particularly each The expandable portion 36a, 361) is moved from the first configuration to the extended configuration to secure the first and second anchor bodies 28a, 28b to the respective first and second target anatomical locations 24a, 24b. The actuation force f applied to each of the actuation strands 38a, 38b may be in the form of a different actuation force or, as detailed below, may be the same actuation force. Referring to FIG. 18B, once the first and second wrong bodies 28a, 28b are secured to the respective first and second target anatomical positions 24a, 24b, the proximity force AF can be applied to the first and second actuation segments 38a and 38b. At least one or both of the directions are substantially along the other of the first and second anchor bodies 28a, 28b, which may also face the respective gaps 24c. Thus, the proximity force AF has a directional component that is toward the other of the first and second anchor bodies 28a, 28b, for example, can be oriented to be purely toward the other of the first and second I seed bodies 28a, 28b. Likewise, the proximity force AF has a directional component toward the gap 24c, e.g., oriented toward the gap 24c. Therefore, the proximity force AF is directed to at least one or both of the other biasing anchors 28a, 28b of the four seed bodies 28a, 28b to a biasing position where the gaps 24c are each approached. Referring again to Fig. 18C, a connecting member 63 of at least one of the sliding member 47 and the locking member 64 can be defined, for example, at the connection point 125 to attach the first and second connector actuating strands 38a and 38b together. Accordingly, it will be appreciated that at least one of the sliding member 47 and the locking member 64 can also attach the first actuation strand 38a to the second 56 201210564 actuation strand 38b. According to an embodiment, the connecting member 63 can attach the first and second actuating strands 38a and 38b after the first and second actuating strands 38a and 38b have been subjected to tension to maintain the gap 24c in a proximate condition. The member 63 can be driven to a locked configuration to prevent or resist separation of the first and second anchors 22a, 22b causing the gap 24c to be opened by the approaching state. Alternatively or additionally, prior to applying the proximity force AF to the actuation strands 38a and 38b, the attachment member 63 can attach the first and second actuation strands 38a and 38b to each other, and the actuation strands 38a and 38b is pulled and is before the gap 24c is brought close.

The connecting member 63 is defined and integrated with the first and second actuating strands 38a and 38b in accordance with some embodiments. The connecting member 63 defines at least one of the sliding member 47 and the locking member 64 at the joint 125. According to some embodiments described below, the connecting member 63 can be configured as an auxiliary connecting member 77 (for example, refer to FIG. 20A) attached between the first and second actuating strands 38 & and 38b, and It is configured to accept two or more wires, such as either or both of the first and second actuation strands 38a and 38b and additional wires that can be coupled to other anchors or other anatomical structures. Therefore, it can be said that the connecting member G can directly or indirectly attach the first and second actuating strands 38a and 38b together. In certain embodiments, for example, as shown in FIG. 18D, the auxiliary connecting member 77 can be configured as a connecting strand 59, for example, the connecting member can singly attach the connecting strand 59 to itself to enable the first and second ends The movable strands 38a and 38b are attached to each other (for example, also referring to Figs. 32a to 32C). For example, the connecting strand 59 can extend through the first opening 40 of the first anchor body 28a in a direction away from the second anchor body 2 rib 57 201210564, and fold back through the first direction toward the second anchor body 28b. A second opening 40 of an anchor body 28a and a first opening 40' passing through the second anchor body 28b and a second opening 40 folded back through the second anchor body 28b. The connecting strand 59 can define a first portion 120 extending between the first and second anchor bodies 28a, 28b in this manner, extending from the second opening 40 of the first anchor body 28a and away from the anatomy 24 The second portion 121a extends from the second opening 40 of the second anchor body 28b and away from the third portion 121b of the anatomy 24. It will be appreciated that the anchor assembly 20 can include any suitable connector for attaching the second portion 121a to the third portion 12 as described herein to attach the first and second anchors 22a, 22b to one another. It will be further appreciated that the connecting strands 59 can extend through the number of openings in the first and second anchor bodies 28a, 28b as many as desired. Alternatively, the connecting strand can be attached between the first and second actuating cords 38a and 38b such that the connecting member 63 can attach the connecting strand 59 to the first and second actuating strands 38a and One or both of 38b. Thus, the wrong assembly 20 can include at least one connecting member 63 that attaches the first and second actuation strands 38a and 38b together such that the first and second anchors 22a, 22b and the corresponding anchor bodies 28a, 28b are attached Connected together. Referring also to Fig. 19A', the connecting member 63 can define a sliding member 47 and a locking member for attaching and fixing the two anchors 22a, 22b together. The sliding member 47 allows at least one of the first and second actuation strands 38 & and 38b to slide relative to one another and to create tension to the actuation strands 38a and 38b, and to the other of the anchors 22a, 22b. At least one or both of the faults 58 201210564 22a, 22b are brought to respective biasing positions to approximate the anatomical defect. The locking member 64 is configured to be actuatable to prevent relative actuation of the actuation strands 38a and 38b through the attachment member such that at least one or both of the anchors 22a, 22b are each secured in a biased position. For example, the connecting member 63 can define a knot 66 that can be constructed as described above in the description of Figures 4A through 4F and can be defined by the first and first actuating strands 38a and 38b. According to the illustrated embodiment, the first and second actuation strands 38a and 38b define a knot 66, however it will be appreciated that the knot 66 can be selected by one of the first and second actuation strands 38a and 38b and attached to The selected strand of the selected actuating strand is defined. Thus, at least a portion of the connecting member 63 can be integrated with at least one or both of the actuation strands 38a and 38b. The other of the first and second actuating strands 38a and 38b can define a strut end 68' and the other of the first and second actuating strands 38a and 38b can define a free end 70. According to the illustrated embodiment, the first actuating strand 38a defines a strut end 68' and the second actuating strand 38b defines a free end 70. The first and second actuation strands 38a and 38b can engage a knot 66 prior to applying tension to the actuation strands 38a and 38b that bias the first and second anchors 22a, 22b toward each other. Once the knot 66 is formed, and when the knot 66 is in the unlocked configuration, the proximity force af can be applied to the post strand 68, which causes the strut end 68 to slide through the coils 71A-D' and the respective anchors (eg, The first anchor 22a) is pulled to the other wrong, for example the second error 22b. Once the gap 24c is approached, the free line 70b of the free end 70 (e.g., as defined by the second actuating strand 38b 59 201210564) can be tensioned to lock the coil 71A about the strut line 68 or the first actuating strand 38a to D' thus drives the knot 66 to the locking configuration and the tensioned actuation strands 38a and 38b. While the connecting member 63 can define a locking member 64 that is configured as a knot, it should be understood that the connecting member 63 can be constructed in an alternative manner to define the locking member 64 as desired. For example, please refer to Fig. 19b, the connecting member 63 can be configured as a weldment 130 defining the locking member 64. For example, the actuation strands 38a and 38b can be welded together, such as heated together or glued to one another via an adhesive to define the weldment 130 for securing the first and second actuation strands 38a and 38b, for example, a pin. The relative motion of the bodies 28a, 28b separated. Accordingly, at least one or both of the first and second actuating strands 38a and 38b can each receive at least one or both of the anchor bodies 28a, 28b biased toward the other of the pin bodies 28a, 28b to The proximity position AF is biased so that the gap 24c approaches. The first and second actuation strands 38a and 38b can then be welded to each other to define a weldment 130 that biases the first and second anchor bodies 28a, 28b to their biased positions. Referring to Figure 19C, the connecting member 63 can be configured as a twist tie 132 that defines a locking member 64 that attaches the first anchor 22a to the second error 22b. The kink 132 such that the connecting member 63 can be defined by, for example, the first and second actuating strands 38a and 38b. Thus, at least one or both of the actuation strands 38a and 38b can be made of a soft, deformable material such that the first and second actuation strands 38a and 38b can be twisted together at the attachment point 125 to define the kink 132. . Thus, during operation, at least one of the first and second actuation strands 38a and 38b, or both, may each receive at least one of the anchor bodies 28a, 28b or the other of the anchor bodies 28a, 28b. The proximity force AF is biased to the biased position to bring the gap 24c close. The first and second actuation strands 38a and 38b can then be twisted together to define a kink 132 that secures the first and second anchor bodies 28a, 28b to their biased positions. Alternatively or additionally, 'the proximity force AF can be applied to one or both of the first and second actuation strands 38a and 38b when the first and second actuation strands 38a and 38b are twisted into a kink 132 The gap 24c is brought close to or further close. Referring to Figures 19D through 19H, the anchor assembly 20 can include at least one attachment member 63, such as one that each couples the first actuation strand 38a to the second actuation strand 38b at a pair of attachment points 125a, 125b. Pairs of connecting members 63a, 63b. For example, each of the connecting members 63a, 63b can be configured as a twist 134a, 134b, each defined by the first and second actuating strands 38a and 38b. In one embodiment, one of the first and second actuation strands 38a and 38b can be woven or otherwise spliced through the other of the actuation strands 38a and 38b. According to the illustrated embodiment, the second actuation strand 38a can be woven or otherwise spliced through the first actuation strand 28a to define the first hinge 134a' and the first actuation strand 38a can be woven or Other ways are spliced through the second actuation strand 38b to define the second hinge 134b. The first and second strands 134a, 134b may be spaced apart, whereby the first hinge 134a is disposed closer to the first anchor 22a than the second hinge 134b, and the second hinge 134b is configured to be smaller than the first strand The knot 134a is also closer to the second anchor 22b. 61 201210564 In particular, the second actuating strand 38b can enter the first actuating strand 38a and can be along the first actuating strand 38a along the first actuating strand 38a along the corresponding second slender body 38a. The direction of 28b extends to define a first hinge 134a prior to exiting the first actuation strand 38a. Thus, the first actuating strand 38a can surround the second actuating strand 38b along a portion of the length of the second actuating strand 38b. The second actuating strand 38b defines a terminal portion 135b that exits the first actuating strand 38a and an actuating portion I3la that defines the first actuating strand 38a. The second actuating strand 38b can exit the first actuating strand 38a from the opposite side of the first actuating strand 38a having the second actuating strand 38b. For example, prior to entering the first actuation strand 38a, the second actuation strand 38b can be disposed on the inside of the first actuation strand 38a relative to the anatomical structure 24, and after exiting the first actuation strand 38a With respect to the anatomical structure 24, it may be disposed outside the first actuation strand 38a. The first actuating strand 38a can enter the second actuating strand 38b and extend within the second actuating strand 38b along the second actuating strand 38b in a direction away from the first anchor 28a to exit The second hinge 134b is defined before the second actuation strand 38b. Thus, the second actuation strand 38b can surround the first actuation strand 38a along a portion of the length of the first actuation strand 38a. The first actuating strand 38a defines a terminal portion 135a that exits the second actuating strand 38b, and an actuating portion 131a that defines the first actuating strand 38a. The first actuating strand 38a can exit the second actuating strand 38b from the same side of the second actuating strand 38b that has the first actuating strand 38a. For example, prior to entering and exiting the second actuation strand 38b, the first actuation strand 38a 62 201210564 can be disposed outside of the second actuation strand 38b relative to the anatomy 24. During operation, the first and second actuation strands 38a and 38b are each self-contained to cause the anchor bodies 28a, 28b to each move from the first configuration to the actuation force F of the extended configuration. As illustrated, each of the first and second terminal portions 135a, 135b can directly apply an actuation force F to the first and second actuation strands 38a and 38b, or each can be applied upstream of the hinges 134b, 134a. To the first and second actuation strands 38a, 38b. Next, each of the first and second terminal portions 135a, 135b of the first and second actuation strands 38a and 38b can each receive at least one or both of the anchor bodies 28a, 28b toward the anchor body The other of 28a, 28b is biased to the biasing position to bring the gap 24c close to the force AF. For example, if the actuation force F is applied to the terminal portions 135a, 135b, the proximity force AF may be a continuation of the actuation force F. It will be appreciated that once the first and second actuation strands 38a and 38b are under tension, the first actuation strand 38a applies a compressive force CF1 to the second actuation strand 38b' at the first hinge 134a and the second The moving strand 38b applies a compressive force CF2 to the first actuating strand 38a at the second strand 134b. The first compressive force CF1 is sufficient to prevent the second actuating strand 38b from retreating from the first strand 134a in a direction toward the second anchor body 28b, and the second compressive force CF2 is sufficient to prevent the first actuating strand 38a from following The direction of the first anchor body 28a is retracted by the second hinge 134b. Accordingly, the first and second hinges 134a, 134b are each defined to allow one of the first and second actuation woven strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b so that The sliding member 47 that approximates the gap 24c, and further defines the locking mechanism 63 201210564 64 for securing the first and second actuation strands 38 & and 38b, for example, to separate the first and first pin bodies 28a, 28b Relative movement. Although some of the connecting members 63 are described as being integrated with at least one or both of the actuating strands 38a and 38b such that the actuating strands 38a and 38b are directly attached to each other 'should be understood, alternatively or additionally, the faulty assembly 20 may A connecting member 63' configured to be an auxiliary connecting member 77 is attached to one or both of the first and second actuating strands 38 & and to attach the first and second anchors 22, 22b to each other . Alternatively or additionally, the auxiliary connecting member 77 may attach at least one of the first and second actuation strands 38a and 38b to the connecting strand, which may also define the auxiliary connecting member 77, or for example, in actuation When the strands 38a and 38b define the eyelet and the connecting strand extends through the eyelet, a plurality of portions of the connecting strand can be attached to itself to attach the first actuating strand 38a to the second actuating strand 38b . The auxiliary attachment member 77 can be made of metal, plastic, suture, or any suitable alternative material, as described below. For example, 'Please refer to FIG. 20A', the auxiliary connecting member 77 can be configured as a line 136' that is stitched through the first and second actuating strands 38a and 38b to cause the first and second actuating strands 38a and 38b Attached to each other 'e.g., after the gap 24c has been brought close to it in the manner described above. The wire 136 can be stitched through the first and second actuation strands 38a and 38b at a location between the anchors 22a, 22b, which can be constructed in any desired manner, such as shown in Figures 7A through 7C. Alternatively or additionally, as shown in Fig. 20B, the auxiliary connecting member 77 can be configured as a staple having a crossbar 14 〇 and a pair of legs 64 142 extending from the crossbar 14 2012 20 201210564 (staple ) 138. At least - or both of the feet 142 may extend through the first and second actuation strands 38a and to attach the actuation strands 3, 8a and 38b to the u after the gap 24c has been accessed in the manner described above The nails 138 are thus attached to each other. Alternatively, or additionally, as shown in FIG. 20C, the feet 142 can be bent toward the crossbar 14 to define respective apertures 144, and at least one or both of the apertures 140 can each accept the first and second One or both of the strands 38a and 38b are actuated to attach the actuating strands and the three ribs to the staples 138 for attachment to one another. For example, the foot 142 can be deformed toward the crossbar 140 to clamp each of the actuation strands 38a, 38b, or both, between the respective foot 142, crossbar 140. The staple 138 can be attached to the first and second portions 38a and 38b at a position between the pins 22a, 22b. Referring to Figures 21A through 21B ffi, the auxiliary connecting member 77 = by any suitable metal, plastic, Or any alternative biocompatible material made 'and configurable to be a flexible or rigid block 146, the basin being configured to be attached to the first actuating strands 38a and 38b at (4) 22a, 22b < In the _ or both. For example, each of the first and second actuation tethers & ground can be stitched through the block 146 and the block 146 is knotted to define a knot 148 that can be driven to the lock configuration by the unlock configuration. . The first and second actuating strands and the third are slidable for the 146 when the knot 148 is in the unlocked configuration, and fixed for the block (four) when the , . The block 146 needs to define any shape, such as a substantially cylindrical shape, and can be flexed or substantially rigid as desired. 65 201210564 During operation, the actuation strands 38a and 38b can be stitched through the block 146 and the burnt block 146 in a direction away from the anatomical structure 24 such that the knots 148 are each in an unlocked configuration. The block 146 can be oriented parallel to the anatomy 24 in the direction of its major axis 149. When the actuation strands 38a and 38b are under tension, the block 146 can translate along the first and second actuation strands 38a and 38b in a direction toward the front head 150 of the anatomy 24, which causes the actuation strands 38a and 38b translates the block 146 in the opposite direction indicated by arrow 152. As the block 146 translates along the actuation strands 38a and 38b toward the gap 24c, the block 146 applies an actuation force F to the actuation strands 38a and 38b, causing the pins 22a, 22b to move from the first configuration to the extended set. state. When the block 146 is further translated toward the gap 24c after the anchors 22a, 22b have moved to their expanded configuration, the block 146 applies the proximity force AF to at least one or both of the actuation strands 38a and 38b to anchor the anchor 22a At least one or both of 22b are pulled inward toward each other to bring the gap 24c close. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. Alternatively, the actuation force F can be applied to the actuation strands 38a and 38b at the upstream position of the block 146 or prior to attachment of the actuation strands 38a and 38b to the block 146. The knot 148 can then be tightened to secure the first and second actuation strands 38a and 38b to the block 146 and thus also to each other to prevent separation of the first and second anchors 22a, 22b. Once the gap 24c is approached, the block 146, and thus the knot 148, can be configured to be along the outer surface of the anatomy 24. Alternatively, the block 146 can be sized to position the block 146 once the gap 24c has been accessed so that the knot 148 is open to the opening of the anchor body 28a, 28b 66 201210564 23. Thus, the knot 148 can be disposed behind the anatomy 24 or can be embedded in the anatomy 24. The block 146 can define a sliding member 47 in this manner that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b To allow the gap 24c to approach, and the locking member 64 can be further defined to secure the relative movement of the first and second actuation strands 38a and 38b, for example, to separate the first and second anchor bodies 28a, 28b. Alternatively, please refer to Fig. 21C, at least one or both of the first and second actuation strands 38a and 38b can be woven into a block 146, for example along a substantially opposite direction along the major axis 149. The block 146 can be configured as a stitch defining a core whereby the actuating strands 38a and 38b are woven into a core or as a braid, such as a tube, whereby the actuating strands 38a and 38b are woven into a selected braid. . Thus, the actuation force f and the proximity force AF can be applied to the terminal portions 135a, 135b of the actuation strands 38a and 38b that are extended by the block 146, which translates the actuation strands 38a and 38b through the block 146. Therefore, the block 146 can define the sliding member 47. The actuation force F causes each of the anchors 22a, 22b to move from the first configuration to the extended configuration, and further causes the anchors 22a, 22b to be pulled together to bring the gap 24c into proximity. The actuating strands 38a and 38b can frictionally engage the block 146 to prevent the actuating strands 38a and 38b from receding away from the block 146 in the direction of each of the anchors 28a, 28b, thereby allowing the anchors 22a, 22b to separate. Thus, block 146 can define locking member 64. Alternatively or additionally, the actuating strands 3, such as and 38b, may each be knotted at the first and second terminal portions. The dimensions of the knots may be made to prevent the first and second actuation strands 38a and 38b from retreating away from the block 146. It will be appreciated that the connecting member 63 is configured to allow the actuation strands 38a and 38b or the connecting strands that are directly or indirectly attached to one or both of the actuation strands 38a, 38b to translate therein, which is arguably Define the sliding member. Moreover, the connecting member 63 configured to subsequently prevent the actuation strands 38a and 38b from being translated directly or indirectly to the one or both of the actuation strands 38a, 38b, It can be said that the locking member 64 is defined. Referring to Figures 22A-22C, the auxiliary connecting member 77 can be configured as a clip 154 that is configured to be attachable to the first and second actuation strands 38a and 38b for use in the above After the mode gap 24c has approached, the first and second actuation strands 38a and 38b are attached to each other. A clamp 154 can be attached to the first and second actuation strands 38a and 38b at a location between the anchors 22a, 22b. For example, the clamp 154 can include a pair of body portions 156a, 156b that can be attached to each other. According to one embodiment, at least one or both of the body portions 156a, 156b can include legs 158 that each lock into an opening in the other body portion to tie the body portions 156a, 156b together. When the body portions 156a, 156b are attached to each other, the clamp 154 defines an aperture 160 that can actuate the strands 38a and 38b. The body injuries 156a, 156b can be attached to each other when in the first configuration, and then tightened to the second configuration to the other to thereby reduce the size of the tunnel. Thus, the clamp 154 can be configured from an unlocked configuration (Fig. 22B) where the size of the apertures allows the actuation strands 38a and 38b to move freely within the aperture 160. 201210564 Move to the locked configuration (Fig. 22C), The size of the tunnel 160 is such that the clamp 154 can secure the actuation strands 38a and 38b and prevent the actuation strands 38a, 38b from moving relative to one another and the clamp 154. When the clamp 154 is positioned between the first and second anchors 22a, 22b and the clamp 154 is in the unlocked configuration, the actuation strands 38a and 38b can be fed through the aperture 160 substantially in the opposite direction along the major axis 149. The actuation force F can be applied to the actuation strands 38a and 38b, causing the anchors 22a, 22b to move from the first configuration to the extended configuration. Once the anchors 22a, 22b have been actuated, applying a proximity force AF to at least one or both of the actuation strands 38a and 38b to pull at least one or both of the anchors 22a, 22b inwardly toward the other' 24c is close. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. Alternatively, the actuation force f can be applied directly to the actuation strands 38a and 38b either upstream of the clamp 154 or prior to attachment of the actuation strands 38a and 38b to the clamp 154. Once the gap 24c is approached, the clamp 154 can be driven to the locking configuration 'to fix the translation of the first and second actuation strands 38a and 38b by the clamp 154' thus also securing the actuation strands 38a and 38b to each other so that The first and second anchors 22a, 22b are prevented from separating. The clamp 154 can define a sliding member 47 in this manner that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b to The gap 24c is proximate, and the locking member 64 can be further defined to secure the relative movement of the first and second actuation strands 38a and 38b, for example, to separate the first and second anchor bodies 28a, 28b. Referring to Figures 22D through 22F, the clamp 154 can include a 69 201210564 body housing 156' and can be configured to be crimped over the first and second actuation strands 38a and 38b for use in the manner described above. After the 24c has approached, the first and second actuation strands 38a and 38b are attached to the clamp 154' and thus also attached to each other. For example, the first and second actuation strands 38a and 38b can be inserted through or through the aperture 160 in the opposite direction of the major axis 149. Alternatively or additionally, the clamp 154 can define an opening 161 that extends through the housing 156 and into the bore 160, and is configured to be angularly offset (eg, substantially perpendicular to the long axis 149). Moving strands 38a and 38b. When the clamp 154 is in the unlocked configuration, the clamp 154 can accept the actuation strands 38a and 38b such that the actuation strands 38a and 38b are slidable in the tunnel 160 (Fig. 2E). The actuation force f can be applied to the actuation strands 38a and 38b' causing the anchors 22a, 22b to move from the first configuration to the extended configuration. Once the anchors 22a, 22b have been actuated, the proximity force AF is applied to at least one or both of the actuation strands 38a and 38b to pull at least one or both of the anchors 22a, 22b inwardly toward each other, thereby creating a gap 24c is close. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. Alternatively, the actuation force F can be applied to the actuation strands 38a and 38b either upstream of the clamp 154 or prior to attachment of the actuation strands 38a and 38b to the clamp 154. Once the gap 24c is approached, the clamp 154 can be driven to the locked configuration, as shown in Figure 2F, whereby the clamp 154 will curl over the first and second actuation strands 38a and 38b, thereby preventing the first and second The actuation strands 38& and 38b translate through the clamp 154' to secure the actuation strands 3 and 38]3 to one another and to prevent separation of the first and second anchors 22a, 22b. 201210564 Please refer to Figures 23A through 23D, the auxiliary connecting member 77 can be configured to wrap the first and second actuating strands 38 & and 38b

Shrink wrap material 162. For example, as shown in Figures 23A through 23B, the shrink wrap material 162 can define the channels 164 that receive the first and second actuating strands 38a and 38b when the shrink wrap 162 is in the unlocked configuration, such that The first and second actuation strands 38a and 38b are slidable within the bore 164. It will be appreciated that the shrink wrap material 162 can be substantially tubular to define a channel 164' that accepts the first and second actuating strands 38a and 38b or alternatively can wrap the first and second actuating strands 38a and 38b for definition Hole 164. Actuator F can be applied to the actuation strands 38a and 38b to drive the anchors 22a, 22b from the first configuration to the extended configuration. Once the faults 22a, 22b have actuated, the proximity force AF is applied to at least one or both of the actuation strands 38a and 38b to pull at least one or both of the anchors 22a, 22b inwardly toward each other, thereby causing the gap 24c is close. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. Once the gap 24c is approached, the shrink wrap material 162 can be actuated, such as by heating, which causes the shrink wrap 162 to move to the locked configuration and tighten around the first and second actuating strands 38a and 38b, as in 23C to 23D, thereby applying a compressive force to the first and second actuation strands 38a and 38b, and attaching the first and second actuation strands 38a and 38b to each other to prevent the first and the second The two anchors 22a, 22b are separated. The shrink wrap 162 can define a sliding member 47 in this manner that allows one of the first and second actuating strands 38a and 38b relative to the other of the first and second actuating strands 38a and 38b Slide 71 201210564 passes through the shrink wrap material 162 to bring the gap 24c into proximity. The shrink wrap material 162 can further define a locking member 64 for securing translation of the second = second actuating strands 38a and 38b through which the first and the first * 28 bodies 28a, 28b are separated. Referring to Figures 24A through 24B, the auxiliary connecting member 77 can be configured as a suture cleat 166 that includes a body 168 and at least one barb no by the body 168, such as a pair of barbs 170 And configured to misalign the suture clasp 166 into the anatomy 24. According to an embodiment, the stapling cleat 166 can be configured as a ligating clip' configured to attach to an anatomical location, for example, when the anatomy 24 is a bone. Thus, as shown in Fig. 24A, the actuation strands 32a, 32b are configured to accept an actuation force F to urge each of the first and second anchors 22a, 22b from a first position to an extended position. Next, the first and second actuation strands 38a and 38b can be secured to the suture clasp body 168' and the suture clasp 166 can be implanted and embedded beneath the gap 24c and the anchors 22a, 22b. Anatomical position 22. For example, the first and second actuation strands 38a and 38b can be crimped in the stitching tab body 168 or otherwise secured to the stapling tab body as desired. The length of each of the first and second actuation strands 38a and 38b between the anchor bodies 28a, 28b and the stapling cleat 166 can be made such that when the stapling clasp 166 is implanted into the anatomical position, the stapling clasp 166 creates tension In the first and second actuating strands 38a and 38b, the proximity force AF is applied to the first and second actuating strands 38a and 38b, which biases the first and second anchors 22a, 22b to each other Move to make the gap 24c 72 201210564 close. The barbs 170 assist in retaining the suture clasp 166 in the anatomy 24 and preventing the suture clasp 166 from receding away from the anatomy 24. Referring to Figures 25A through 25B, the auxiliary connecting member 77 can be configured as a collar 172' that is configured to be attachable to the first and second actuating strands 38a and 38b for use with the above The first and first actuating strands 38a and 38b are attached to each other. The collar 172 is attachable to the first and second actuation strands 38a and 38b at a position between the 22a, 22b. For example, collar 172 can define a pair of apertures 174, 176 that are configured to accept the one of the first and first actuation strands 38a and 38b. The channels 174, 176 can each extend along an axis that is oriented substantially parallel to the major axis 182 of the sleeve 172. In addition, the collar I72 defines at least one internal ratchet tooth 178, such as a plurality of ratchet teeth 178, and each of the first and second actuation strands 38a and 38b can be defined separately from the collar 172. The ratchet teeth 178 are complementary to the ratchet teeth 180a, 180b. According to the illustrated embodiment, the ratchet teeth 178 are mated with the ratchets i8a, 180b to allow the first and second actuation strands 38a and 38b to each slide in a direction away from the first and second anchors 22a, 22b. The collar, and the interlock, prevents the first and second actuation strands 38a and 38b from sliding in the collar Π2 in a direction toward the first and second anchors 22a, 22b. Thus, the 'actuating strands 38a and 38b can be fed substantially through the respective channels 174, 176 in the opposite direction of the long draw 182 of the collar 176, for example when the collar is oriented substantially parallel to the underlying anatomy 24. And the collar 172 is between the first and second anchors 22a, 22b. 73 201210564 The actuation force F can be applied to the actuation strands 38a and 38b, which in turn causes the faults 22a, 22b to move from the first configuration to the extended configuration. For example, the actuation force F can be applied to the actuation strands 38a and 38b prior to actuation of the strands 38a and 38b into the collar. Alternatively, after the actuation strands 38a and 38b have been inserted into the collar, the actuation force F can be applied to the actuation strands 38a and 38b' such that the ratchet teeth 180a, 180b slide past the complementary ratchet teeth 178 of the collar 172. Once the anchors 22a, 22b have been actuated, the proximity force AF is applied to at least one or both of the actuation strands 38a and 38b, for example to the respective terminal portions 135a, 135b, which results in the first and second As the moving strands 38a and 38b translate away from the respective anchors 22a, 22b, the ratchets 180a, 180b slide over the complementary ratchets 178 of the collar 172, thereby pulling at least one or both of the anchors 22a, 22b inwardly toward each other. And bringing the gap 24c close. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. The ratchet teeth 178 of the collar 172 interlock with the ratchet teeth i8a, 180b of the first and second actuating strands 38a and 38b to prevent the actuating strands 38a and 38b from being directed toward the anchor bodies 28a, 28b, respectively. Translation causes the first and second anchors 22a, 22b to separate. The collar 172 can define a sliding member 47 in this manner that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b so that The gap 24c is brought close to 'and the locking member 64 can be further defined to secure the relative movement of the actuating strands 38a and 38b, for example, to separate the first and second anchor bodies 28a, 28b. Although the connector 63 is illustrated in FIGS. 18A-25B as being attached between the first and second actuating 201210564 strands 38a and 38b that are each integrated with the anchor bodies 28a, 28b, it should be understood that The connector a can alternatively attach the first and second actuation strands 38a and/or at least one or both of the actuation strands 38a and the passages are separated and attached from the respective bodies 28a, 28b (eg, , cross-woven, braided) auxiliary strands 33 definition. Moreover, as described above in describing FIGS. 1A-1B, each of the first and second actuation strands 38a, 38b can each be configured to be capable of accepting an actuation force F and can be advanced. The first or actuating portions 13la, mb configured to accept the proximity force AF, and the respective second or attached portions 133a, 133b. The attachment portions 133a, 133b of each of the actuation strands 38a, 38b are configured to be attachable to the actuation strands 38 & and the other attachment portions 133a, 133b for their respective The tin 22a, 22b are attached to each other. For example, the attachment portions 133a, 133b of the actuation strands 38a and 38b can be integrated with each other. Alternatively, the attachment portions 133 & 13 can be attached via any suitable connector 63 that can be integrated with either or both of the actuation strands 38a, 38b, or with the actuation strands 38a, 38b Either or both of them are separated and attached directly or indirectly. It will be further appreciated that the actuating portions 131a, 131b of the actuating strands 38a and 38b can be further attached to each other to allow the anchors 22a, 22b to be attached to each other. Therefore, regardless of whether or not the attachment portions 133a, 133b are attached, it can be said that the attachment of the actuation portions 131a, 131b causes the respective first and first errors to be attached to each other. Therefore, regardless of whether or not the attachment portions 133a, 133b are attached, it can be said that the attachment of the actuation portions 131a, 131b causes the respective first and second tungsten 22a, 22b to be attached to each other. Also, regardless of whether or not the actuation portions 13a1, 13lt) are attached, it can be said that the attachment of the attachment portions n3a, 75 201210564 133b causes the respective first and second pins 22a, 22b to be attached to each other. Therefore, it should be understood that the connecting member 63, to which the actuating strands 38a and 38b are attached, can be applied to the connecting portions of the actuating strands 38a and 38b, unless otherwise stated, even if the actuating strands 38a have been attached and The other part of 38b is integrated, for example, via another connecting member 63 which may comprise a connecting strand. For example, the attachment member 63 can attach the connecting strand to either or both of the actuation strands 38a, 38b. Alternatively, the connecting member 63 can attach the connecting strand to itself to attach the first and second actuating strands 38a and 38b, or the paving bodies 28a, 28b to each other. Referring to Figures 26A through 26B, and generally as described above with respect to Figures 1A through 1B, the anchor assembly 20 includes woven fabrics 28a, 28b for defining the actuation strands 38a and 38b, respectively. Auxiliary strands 33. The first attachment portion 133a can be integrated with the second attachment portion injury 133b to attach the actuation strands 38a and 38b and thus the anchors 22, 22b across the gap 24c. The actuation strands 38a and 38b further define first and second actuation portions 131a, 131b each configured to receive an actuation force F to drive the anchors 22a, 22b from the first configuration to the extended configuration' and The force AF is approached to bias the anchors 22a, 22b toward each other, thereby bringing the gap 24c close. Additionally, the first and second actuation portions 131a, 133b are configured to be attachable to each other. In this case, referring specifically to Figures 26A through 26B, the auxiliary connecting member 77 can be configured as a ratchet housing 184 that is configured to be attachable to the first and second actuating portions 131a, 131b, thereby The first and 76 201210564 second actuating strands 38a and 38b are attached to each other, and the anchors 22a, 22b are also attached to each other. The position of the ratchet housing 184 between the pins 22a, 22b can be attached to the first and second aligned moving fiber strands 38a and 38b. For example, the ratchet housing 184 can define a pair of apertures i86, 188 that are configured to accept one of the first and second actuation strands 38a and 38b. The first and second actuation strands 38a & 38b can be inserted into the channels 186, 188 along substantially the same direction as the bottom anatomical structure 24 and the corresponding anchors 22a, 22b. The ratchet housing 184 can be oriented such that the channels 186, 188 each extend along an axis substantially parallel to the axis 187 of the ratchet housing 184. Accordingly, the ratchet housing 184 can be oriented such that the mid-cuff line 187 extends substantially perpendicular to the underlying anatomy 24. Further, 'the ratchet housing 184 defines at least one internal ratchet 190, such as a plurality of ratchet teeth 190, and each of the first and second actuation strands 38a and 38b can each define a ratchet 190 with the ratchet housing 184. Complementary ratchets 192a, 192b. In accordance with the illustrated embodiment, the ratchet teeth 190 are mated with the ratchet teeth 192a, 192b to allow the ratchet housing 184 to slide along the first and second actuation strands 38a and 38b in a direction toward the underlying anatomy 24 toward the gap 24c. The ratchet 190 is further interlocked with the ratchet teeth 192a, 192b to prevent the ratchet housing 184 from sliding along the first and second actuation strands 38a and 38b in a direction away from the underlying anatomical structure 24. Thus, during operation, the actuation strands 38a and 38b can be fed through the respective apertures 184, 186 in a direction away from the anatomical structure 24 such that the ratchet teeth 192a, 192b are mated with the ratchet teeth 19 of the ratchet housing 184. The actuation force F can be applied to the actuation strands 38a and 38b such that when the ratchet teeth 192a, 192b slide over the ratchet teeth 19 of the complementary ratchet housing 184 at 77 201210564, the anchors 22a, 22b are moved from the first configuration to the extended set state. Once the I seed 22a, 22b has actuated, the proximity force AF is applied to at least one or both of the actuation strands 38a and 38b to cause the ratchet teeth 192a, 192b to slip over when the ratchet housing 184 translates toward the anatomy 24. The ratchet teeth 190' of the complementary ratchet housing 184 thereby apply a proximity force AF to the first and second actuation strands 38a and 38b' to create tension to the first and second actuation strands 38a and 38b' including the actuation portion Parts 131a to b and attachment portions 133a to b. In other words 'with respect to the ratchet housing 184, the first and second actuation strands 38a and 38b', in particular the terminal portions 135a, 135b of the actuation portions i3ia, 131b, are each translated away from the anatomical structure 24, and the respective anchor 22a 22b. At this point, it should be understood that the 'proximity force AF' can be a continuation of the actuation force f. Alternatively, the actuation force F may be applied to the actuation strands 38a and 38b, or to the attachment wires 133a-b, upstream of the ratchet housing 184 prior to attachment of the actuation strands 38a and 38b to the ratchet housing 184. , or to actuate the strands 38a and 38b. The ratchet teeth 190 of the ratchet housing 184 interlock with the ratchet teeth 192a, 192b of the first and second actuation strands 38a and 38b to prevent the ratchet housing 184 from moving away from the anchors 22a, 22b (this will make the first And the second anchors 22a, 22b are separated) to translate. Thus, the ratchet housing 184 can define a sliding member 47 that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b so that The gap 24c is approximated, and the locking member 64 can be further defined for securing the relative movement of the actuation strands 38a and 38b, for example, for each other and the housing ratchet housing 78 201210564 184 to separate the first and second anchor bodies 28a, 28b. . Referring to Figures 27A through 27B, the auxiliary connecting member 77 can be configured as a zip tie housing 194 that is graded to enable the first and second actuating strands 38a and 38b. Attached to each other. The zip tie hosing 194 is attachable to the first and second actuating strands 38a and 38b, particularly the actuating portions 131a-b, at positions between the tins 22a, 22b. For example, the drawstring hose 194 can define a pair of apertures 196, 198 that are configured to accept one of the first and second actuation strands 38a and 38b. The drawstring hose 194 can be oriented such that the channels 196, 198 each extend along an axis substantially parallel to the axis 197 of the drawstring hose 194. Accordingly, the drawstring hose 194 can extend through the central axis 197 that is substantially perpendicular to the underlying anatomy 24. In addition, the drawstring hose 194 defines at least one internal tooth 200, such as a plurality of teeth 200, and each of the first and second actuation strands 38a and 38b can define respective teeth 202a, 202b. The strip is complementary to the teeth 200 of the drawstring hose 194. As noted above, the teeth 200 and 202a-b can be smaller than the teeth 190 and 192a-b, and the spacing of the teeth 202a-b can be closer relative to the ratchet teeth 192a-b described above. Alternatively, at least one or both of the actuation strands 38a and 38b can be substantially smooth and paired with the teeth 200 of the drawstring outer tube 194 in the manner described herein. In accordance with the illustrated embodiment, the ankle 200 is mated with complementary teeth 202a-b to permit the strap hose 194 to slide along the first and second actuation strands 38a and 38b toward the underlying anatomy 24 to direction the gap 24c. The teeth 200 are further interlocked with the teeth 202a, 202b to prevent the bundle 79 201210564 belt hose 194 from sliding along the first and second actuation strands 38a and 38b in a direction away from the bottom anatomy 24 and away from the anchor bodies 28a, 28b. Thus, during operation, the actuating strands 38a and 38b can be fed through the respective bores 196, 198' in a direction away from the respective anchor bodies 28a, 28b such that the teeth 202a, 202b and the ratchet hose 194 are ratcheted. 200 pairs. When the teeth 202a, 202b slide over the complementary teeth 2 of the drawstring hose 194, the actuation force F can be applied to the actuation strands 38a and 38b, particularly the actuation portions 131a-b, thereby causing the anchor 28a, 28b, moving from the first configuration to the extended configuration. Once the anchors 22a, 22b have been actuated, the proximity force AF can be applied to at least one or both of the actuation strands 38a and 38b as the strap outer tube 194 translates toward the anatomy 24 causing the teeth 202a, 202b to slip past The complementary teeth 200 of the hose 194 are brought up to create tension in the actuation strands 38a and 38b, including the actuation portions i3ia through b and the attachment portions 133a through b. In other words, the first and second actuation strands 38a and 38b are translated away from the anatomical position' and the respective anchor bodies 28a, 28b relative to the strap hose 194'. At this point, it should be understood that the proximity force AF can be a continuation of the actuation force F. Alternatively, the actuation force f can be applied directly to the actuation strands 38a and 38b, including the actuation portions i3ia to b and attached, before or after the actuation portions 131a-b are attached to the drawstring hose 194. Any one or both of parts 133a to b. The teeth 200 of the drawstring hose 194 interlock with the teeth 202a, 202b of the first and second actuation strands 38a and 38b to prevent the drawstring hose 194 from separating the first and second anchors 22a, 22b. Direction shift. 201210564 Thus the 'tape hose 194 defines a sliding member 47 that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b. In order to bring the gap 24c closer to 'and the locking member 64 can be further defined for securing the first and second actuation strands 38a and 38b for translation with each other and for the outer tube 194, the first and second anchor bodies 28a, 28b separation. Referring to FIGS. 28A-28C, the first and second anchors 22a-b can each include first and second attachment members 82a-b of the type described in the description of FIGS. 6A-6E. . Accordingly, the first and second attachment members 82a-b each include a loop of strands 79 that define apertures 84a, 84b, respectively, and then define apertures 87a, 87b, respectively. The auxiliary strands 33 may define actuating strands 38a and 38b that each extend through respective apertures 84a and through respective apertures 84b to operatively couple the actuation strands 38a and 38b to the anchors 28a, 28b. Each of the expandable parts 36. It will be appreciated that the eyelet 8 may be further extended by the anatomy 24. The anchor assembly 20 includes a connecting member 63 that can be configured to be attachable to the first and second actuating portions 131a, 131b such that the first and second actuating strands 38a and 38b are attached to each other, And also the anchors 22a, 22b are attached to each other. Over the gap 24c, the attachment portions 133a-b of the auxiliary strands 33 can be attached, for example in an integrated manner in accordance with the illustrated embodiment. As described above, the connecting member 63, which may define at least one of the sliding member 47 and the locking member 64, for example, attaches the first and second actuation strands 38a and 38b together at a connection point I", as explained above in section 181 In addition, according to the illustrated embodiment, the connecting member 63 can be defined by the auxiliary strands 33 and thus by the actuating strands 38a and 38b. Thus, according to one embodiment, there is tension in the actuating strands 38a and 38b. The connecting member 63 can attach the first actuating strand 38a to the second actuating strand 38b to maintain the gap 24c in an approximated state. Alternatively or additionally, it will be appreciated that the actuating strand 38a and Before the tension of 38b is applied, the connecting member 63 can cause the first and second actuating strands 38a and 38b to be attached to each other before the gap 24c is brought close. According to the illustrated embodiment, the connecting member 63 is first and second. The movable strands 38a and 38b are defined and integrated therewith. Therefore, the actuating strands 38a and 38b are directly attached to each other. The connecting member 63 can define the sliding member 47 and the locking member 64 at the joint 125. For example, the connecting member 63 can be defined Junction 66 'knot 66 can be used above in the description 4A to 4F are constructed in a manner and may be defined by one or more to all of the actuating strands 3ga and 38b. However, it should be understood that the knot may alternatively be actuated by the actuating strands 38a and 38b and the connecting strand. At least one of the strands is defined. Alternatively, for example, when the connecting strands are attached to the actuating strands 38a and 38b, the knots 66 can attach portions of the connecting strands to each other for attachment of the actuating strands 38a and 38b. According to the illustrated embodiment, the first and second actuation strands 38a and 38b define a knot 66. Thus, at least a portion of the attachment member 63 can be associated with at least one of the actuation strands 38a and 38b. Or both. The first and second actuating strands 38a and 38b may define a strut end 68' and the other of the first and second actuating strands 38a and 38b may define a free end 70. In the illustrated embodiment, the first actuation 82 201210564 strands, such as the first actuation portion 13ia, define a strut end 68, and a second actuating strand 38b, such as a second actuating portion 131b, defining a free end 70. The free portion of the free end 7〇b can be defined by 13% of the terminal portion of the second actuating strand 13%. The terminal portion 135a of the coincident movable strand 38a projects from the knot 66 to the strut end 68. The tension is applied to the actuating strands 38a and 38b to bias the first and second seedlings 22a, 22b toward each other and to make the gap 24c Before approaching, the first and second actuation strands 38a and 38b can be knotted 66. Once the knot 66 is formed, and when the knot 66 is in the unlocked configuration, the actuation force f can be applied to the actuation strands 38a and 38b' In particular, the portions i31a to b are actuated to drive the respective expandable portions 36 from the first configuration to the extended configuration. Next, the proximity force AF can be applied to the terminal portion n5a of the first actuation strand 38a defining the strut line 68, thereby causing the strut end 68 to slide through the knot 66 and the respective pin, such as the first error 22a, toward Another anchor 'such as the second anchor 22b, pulled. Once the gap 24c is approached, the free end 7b (e.g., by the end portion 135b of the second actuation strand 38b) can be tensioned to lock the knot 66 and prevent the first actuation strand 38a from shifting. The knot 66 is passed through to secure the tensioned actuation strands 38a and 38b.

Although the connecting member 63 can be configured as the knot 66, it should be understood that the connecting member 63 or any suitable alternative connector can be configured as desired in accordance with any of the embodiments described herein. Moreover, although each of the errors 22a, 22b is illustrated as containing a respective attachment member 82, it will be appreciated that one of the anchors may include the attachment member 82 while the other is directly engaged to the respective actuation. Strand 38. It should be further appreciated that the aperture 84b of one or both of the errors 22a, 22b may extend beyond the anatomy 24 as shown in Figure 28D S3 201210564. Referring to Figures 29A-29B, the anchor assembly 20 may include The plurality of connecting members 63 are attached to attach at least one or both of the actuating strands 38a and 38b. According to the illustrated embodiment, the actuating strands 38a and 38b are joined by a common strand (eg, an auxiliary strand) The strands 33) are defined such that the respective attachment portions 133a, 133b are integrated with one another. Thus, according to the illustrated embodiment, the first and second actuation strands 38a and 38b are integrated with one another. The first and second connecting members 63a, 63b can be attached to the other positions of the common strand so as to be attached to each other. According to the illustrated embodiment, the first connecting member 63a can make a corresponding The first actuating portion 131a is attached to another position of the auxiliary strand 33 spaced apart from the first actuating portion 131a. Similarly, the second connecting member 63b can attach the corresponding second actuating portion 131b To another position in the auxiliary strand 33 that is spaced apart from the second actuating portion 13A. For example, according to the illustration In an embodiment, the first connecting member 63a attaches the first actuating portion 131a to the first attaching portion n3a, and the second connecting member 633b attaches the second actuating portion 131b to the first attaching portion The connecting portion 13 3 b. Therefore, it can be said that 'at least one connecting member, such as the first and second connecting members 63a, 63b, can respectively attach the first and second actuating portions 131a, 131b to the auxiliary strand The other positions of 33 are such that the first and second actuation portions l31a, 1311) are attached to each other, for example by at least one or both of the attachment portions 133a, 133b in an indirect manner. 63a operatively attaches 84 201210564 and =2 of the first actuating strand 38a to another position of the actuating strand 38a to connect the member 63b to connect a portion of the second actuating strand 38b to Another position of the second actuating strand 38b. Alternatively to the second understanding, the first and second connecting members 63a, 63b can each attach, for example, a second actuating portion 131&, 131b to the anchor body 28 , and, and the first end portions 52, 54. Although the actuating strands 38a are shown as being separated from each other, the actuating strands 38a and 38b may alternatively be Connected, for example, via any suitable connector 63' of the type described herein to define an outer connecting strand. According to the embodiment of the figure *, the mothers of the first and second connecting members 63a, 63b can each be configured to be assisted The scorpion 33 is stunned by the gentleman 6 as a touch. The knots 66a, 66b are constructed in the manner described above in the description of Fig. 2 to Fig. 2, or may be constructed in an alternative manner as needed. The first tie includes a post anvil and a free end 7'' defined by the actuation portion 131a of the first actuation strand 38a, the free end 70 can be defined by the first end 137a of the first attachment portion 133a The static portion 7A is a free portion 70b defined by the second end 139a of the first attachment portion 133 & The first end 137a may be disposed between the junction 66a and the first tin body 28a, and the second end 139a may be disposed between the junction 66a and the second connecting member 63b. Alternatively, the free portion 70b can be defined by the attachment portion 133b of the second actuation strand 38b. According to an embodiment, the second knot 66a includes a strut end 68 that can be defined by the actuating portion 131b of the second actuating strand 38b, and the free end 70' can include the second attachment portion 133b The 85th 201210564 one end 137b defines a static portion 70a and a free portion 7b defined by the second end 139b of the second attachment portion 133b. The first end 137b may be disposed between the junction 66b and the second anchor body 28b, and the second end 139b may be disposed between the junction 66b and the first connecting member 63a. Alternatively, the free portion 70b can be defined by the attachment portion 133a of the first actuation strand 38a. The attachment portions 133a, 133b are illustrated as being integrated with one another, however it will be appreciated that the attachment portions 133a, 133b can be detached and attached to each other, for example, each of the anchor assemblies 20 are operatively coupled to the first and second anchors 22a. The first and second auxiliary strands of 22b, 33&, 331) (for example, 'refer to Figs. 30A to 3D). Each of the first and second junctions 66a, 66b can each define a sliding member 47 that allows the respective strut end 68 to translate therethrough relative to the free end 7〇. Thus, when the knots 66a, 66b are in the unlocked configuration, the slide member 47 allows the first and second actuating portions 131a, 131b to translate for the first and second attachment portions 133a, 133b, for example in response to an applied actuation force F, thereby driving the respective anchors 2, 2, to move from the first configuration to the extended configuration. Each of the knots 66 further defines a locking member 64 that is actuatable to the locking configuration to secure at least one or both of the anchors 22a, 22b to their respective biased positions. For example, a tensile locking force can be applied to the free portion 7b of the free ends of the knots 66a, 66b to prevent the actuation portions 131a, 131b from translating through the knots 66a, 66b relative to the attachment portions 133a, 133b. The first and second knots 66a, 66b can be spaced a fixed distance L along the auxiliary strands 33, thereby maintaining the gap 24c close as the anchor bodies 22a, 22b are each inserted into the target anatomical locations 24a, 24b. For example, gap 86c may be brought into close proximity before 86 201210564 knots 66a, 66b are injected into respective target anatomical locations 24a, 24b. During operation, once the first and second target anatomical locations 24a, 24b are implanted into the first and second anchors 22a, 22b, respectively, the knots 66a-b can be in an unlocked configuration such that the actuation force F is applied to the respective actuation cord The strands 38a-b, such as the actuating portions 131a-b, cause the respective anchor bodies 28a-b to move from the first configuration to the extended configuration. Next, the tensile locking force can be applied against the respective attachment portions 133a-b against the corresponding knots 66a-b to drive the knot 66a to the b-lock configuration and the anchors 22a-b to maintain the expanded configuration. The distance L of the first and second junctions 66a, 66b may be substantially equal to or less than the distance of the target anatomical locations 24a, 24b such that the gap 2 expands behind the anatomical locations of the first and second anchors 22a, 22b and the auxiliary strands 33 is brought close to each other so that the tension generated by the actuating strands 38a and 38b maintains the approach of the gap 24c. Although the first and second connecting members 63a-b can each be configured as a knot 66, it will be appreciated that either or both of the first and second connecting members 63a, 63b can alternatively be configured as described herein. Any suitable locking member 63 of the type or any suitable locking member that is constructed in an alternative manner. For example, at least one or both of the connecting members 03a-b can define a twist, whereby the actuating strands 38a-b can each be hinged through the other or itself of the actuating strands 38a-b, and at the anchor 22a After actuation of 22b, the connecting strands are tensioned to apply a compressive force that prevents translation of the anchor lines 38a-b. A twisted embodiment has been described above in connection with the description of Figures 19D to Η. As described above in the description of Figures 29 to 29D, the first and second attachment portions 133a, 133b may be integrated with each other for attachment to the first and second of the integration of the 87 201210564 common auxiliary strands 33. The moving strands 38a and 3 are here. Alternatively, as shown in Figures 30A-3B, the anchor assembly 20 can include a first auxiliary strand 33a defining a first actuation strand 38a, and a second actuation strand 38b and first The second auxiliary strand 33b is separated by the auxiliary strands 33a. Therefore, the first and second attachment portions 133a, 133b can be separated from each other. The anchor assembly 2 can include first and first connections for attaching the actuation portions 131a, i3ib to the attachment portions 133a, 13A, respectively, as described in the description of Figures 29A through 29D. Members 63a to b. The 4 seedling assembly 20 can further comprise at least one connecting member, such as a pair of third and fourth connecting members 63c to d, configured to enable actuation of the strands 38 & and 3, such as attachment portion l33a , 133b, whereby the first and second anchors 22a, 22b are attached to each other. According to the illustrated embodiment, each of the third and fourth connecting members 63c, 63d may be defined by the first and second auxiliary strands 33a. For example, the first attachment portion 133a protrudes from the first connecting member 63a toward the second connecting member 36b so as to also protrude toward the second attachment portion 13b. Similarly, the second attachment portion 133b is extended from the second connecting member 63b toward the first connecting member 36a so as to also protrude toward the first attaching portion 133a. According to the illustrated embodiment, the second actuation strand 38b, and in particular the first attachment portion 133b, is woven or otherwise spliced through the first, strands 38a', particularly the first attachment portion 133a, In order to define a third connecting member 63c that attaches the first actuating strand 38a to the second actuating strand 38b. Therefore, the third connecting member 63c can be configured as a twisted pair, . 134c. The first attachment portion 133b can be woven or otherwise twisted 88 201210564 through the attachment portion l33a as desired to define a third connection for attaching the first anchor 22a to the second anchor 22b in the first position Member 63c. According to the illustrated embodiment, the attachment portion 133b is woven along the direction from the first connecting member 63a toward the second connecting member, and thus also in the direction from the first anchor body 28a to the second anchor body 28b. An attachment portion 133a. However, it should be understood that the second attachment portion 133b may be along the direction of the first connector 63a by the second connector 6 so as to be along the direction of the second anchor body 2 toward the first anchor body 38a. Braiding through the first attachment portion 133a. The second attachment portion 133b can leave the first attachment portion 133a to define the second terminal portion 丨 35b. According to the illustrated embodiment, the first actuating strand 38a, in particular the first attachment portion 133a, is woven or otherwise spliced through the second actuating strand 38b, in particular the second attachment portion 133b To define a fourth connecting member 63d that attaches the first actuating strand 38a to the second actuating strand 38b. Therefore, the fourth connecting member 63c can be configured as the twist 134d. The first attachment portion 133a can be woven or otherwise spliced through the second attachment portion 133b as desired to define a fourth connection for attaching the first anchor 22a to the second anchor 22b at the first location. Member 63d. According to the illustrated embodiment, the first attachment portion 133& woven along the direction from the second connecting member to the first connecting member 63a, and thus also in the direction from the second anchor body 28b toward the first anchor body 28a Pass through the second attachment portion 133b. However, it should be understood that the first attachment portion 133a can be woven along the direction from the first connector 63a to the second connector 63b, and thus in the direction from the first anchor body 28a to the second anchor body 38b. Passing through the second attachment portion 133b. The first attachment portion 89 201210564 133a can exit the second attachment portion 133b to define the first terminal portion 135a. The first terminal portion 135a is spaced apart from the second terminal portion 135b. For example, the second terminal portion 135b can be disposed closer to the first 4 seed body 28a' than the first terminal portion 135a and the first terminal portion 135a can be closer to the second terminal portion 135b than the second terminal portion 135b. The anchor body 28b, however, should be understood that the 'first and second terminal portions 135a, 135b can be spaced apart to define any suitable spatial relationship to each other and to the first and second pin bodies 28a, 28b as desired. For example, the tin component 2 can further include a connecting member that attaches the first and second terminal portions 135a, 135b together. For example, the first and second terminal portions 135a, 135b can be tied to define an appropriate junction, such as junction 66 (e.g., first and second connecting strands 59a, 59b as illustrated in Figures 33A through 33C). At the time of insertion, the first and first junctions 66a to b may each be in an unlocked configuration such that actuation force F is applied to each of the first and second actuation portions 131a-b to cause a respective The first and second anchor bodies 28a to b are moved from the first configuration to the extended configuration. Next, a tensile locking force can be applied to the first and second attachment portions 133a to b for use in the above description. The first and second junctions 66a-b are locked in the manner mentioned in Figures 29A through 29D. According to the illustrated embodiment, the proximity force AF is applied to the first and second of the first and second actuation strands 38a and 38b. Two terminal portions U5a to b. When the proximity force AF is applied to the second terminal portion, the second attachment portion 133b of the second actuation strand 38b translates through the first of the first & 201210564 strands 38a The attachment portion 133a, for example, at the hinge defined by the third connection member 63c. When the proximity force AF is applied to the first terminal portion 135a, 'first The first attachment portion 133a of the moving strand 38a passes through the second attachment portion 133b of the second actuation strand 38b, such as at the hinge defined by the fourth attachment member 63d. Thus, it should be understood that the third And the fourth connecting members 63c, 63d may define sliding members 47 and 47 that allow the first and second attachment portions 133a, 133b such that the first and second actuation strands 38a and 38b translate relative to each other. The proximity force AF creates tension in the actuation strands 38a and 38b to apply a locking force to the free portion 70b of the knot 66, thereby driving the knot 66 to the locked configuration. Thus, the proximity force AF can define a lock for the knot 60. Further, the tension generated by the first and second actuating strands 38a and 38b biases at least one or both of the first and second anchors 22a, 22b toward each other to cause the gap 24c to approach. The tension generated in the first attachment portion 133a in response to the application of the proximity force AF to the respective first terminal portion 13 may cause the first attachment portion 13 3 a to apply compression at the third connection member 633 The force is applied to the second attachment portion 133b. The compressive force prevents the second attachment portion 133b from being in the second connection The hinge of the piece 63e is translated with the first attachment portion 133&=. Therefore, it should be understood that the third connection member 63c can further disambiguate the respective third locking member 64c. Also, the first attachment is generated. The tension of the portion l33b in response to the proximity force AF applied to each of the 2nd terminal portions (10) may cause the second attachment portion 133b to apply a compressive force at the four connecting members 63d to the first attachment portion 133& The force prevents the first attachment portion 133a from being relatively translated with respect to the second attachment portion (10) at the knuckle defining the fourth connection 91 201210564 connector member 63d. Therefore, it should be understood that the fourth connecting member 63d can further define the respective fourth locking members 64d. Although each of the third and fourth connecting members 63c, 63d is configured to be twisted 'by the first and second of the second actuating strands 38a-b through the first and second From the other, it is to be understood that the first and fourth connecting members 63c, 63d can be configured to have any suitable connecting member (4) as described herein or configured to enable the first actuating rope. The strand 38a is attached to any of the second actuating strands 38b. For example, at least - or both of the third and fourth connecting members ^ can each be configured as a knot, such as f 66 ' having any of the above faces or any suitable shaped member. And, the configuration of each of the first and second connecting members 63a, 63b is a knot 66 'by the first and second strands 38a to the first - and the second actuating strand Another of 38a to b -

The Si right t::, first and second connecting members 63a, 63b can be configured to enable any of the first and second connection members of the first and second ports to be configured as the second and second actuation portions 131 From 133a to ..., any of the appropriate alternative connecting members of b to b. For example, the first and first connecting members 63a 6 may each be configured to twist the wires 134c to d' or any suitable alternative locking member. Please refer to FIG. 31A to FIG. 1 to be configured as the first and the first ι66: the component 2 can include the #63a, the first and second connection structures of the ”6邰, so that the actuation portions Ula to b are attached to Corresponding to the attachment portions 133a to b of 201210564, as described above in the description of Figures 3A to 30C. Further, as described above in the description of Figures 3A to 3D, The second and fourth connecting members 63C, 63d can be configured as any suitable connector of the type described herein or any suitable alternative connector. For example, the third connecting member 63c can be decoupled by the second actuating strand 38b, and The apertures 72 can be formed, for example, with the apertures 72 of the type described herein in the description of Figure 2h, however it will be appreciated that the apertures can be constructed in an alternative manner in accordance with any of the embodiments described herein or any suitable alternative embodiment. The eyelet of the third connecting member 63c may be actuated by the actuating strand 38b, the anchor body 28b, or an attachment member (eg, an attachment member 82 configured to be attachable to the anchor body 28b (refer to Figures 6A-6B) )). According to the illustrated embodiment, the second attachment portion U3b can be connected by the second connection The member 63b extends to define the free portion 70b of the second knot 66b in the manner described above. The second attachment portion n3b can further define the eyelet 72. Thus, the second connecting member 63c is configured to enable the second actuating cord The strand 38b is attached to the first actuating strand 38a. For example, as shown, the first actuating strand 38a, and particularly the first end 137a' of the first attachment portion 133a, is oriented toward the third connecting member 6 Thereby, the first direction toward the second anchor 22b can be extended by the first connecting member 63a so as to protrude from the first anchor body 28a. The first attachment portion 133a can extend through the eyelet 72 such that the first attachment portion The second end 139a of the portion 133a extends toward the first connecting member 63a in a second direction substantially opposite the first direction to extend rearwardly toward the first anchor body 28a to attach the first attachment portion injury 133a to the eyelet 72, thereby Attached to the second attachment portion 93 201210564 133b. Due to the first attachment portion 133a, thereby the first actuation strand 38a, relative to the second attachment portion 133b, the second actuation strand 38b can Sliding through the eyelet 72, it can be said that the third connecting member 63c defines the sliding member 47. The connecting member 63d can be configured as a knot, such as a knot 66d of the type described above, which can be defined by actuating strands 38a, such as first attachment portion 133a, particularly first and second portions of first attachment portion 133a The ends 137a, 137b. Thus, the fourth connecting member 63d can define a sliding member 47 and a locking member 64 that attaches the actuating strands 38a to itself for attaching the first and second actuating strands 38a and 38b. The junction 66d can include a strut end 68 that can be defined by the second end 139a of the first attachment portion 133a, and a free end 70 that includes the first end 137a defined by the first attachment portion 133a. The static portion 70a, and the free portion 70b defined by the attachment portion 133a disposed between the first connecting member 63a and the fourth connecting member 63d. Thus, the first terminal portion 135a of the first actuating strand also extends from the knot 66d and defines a portion of the strut end 68. Thus, during operation, when each of the junctions 66a, 66b is in the unlocked configuration, the actuation force F can be applied to the actuation portions 131a, 131b' of the first and second actuation strands 38a and 38b such that the actuation portion The i3ia, 131b are each slidable through the junctions 66a, 66b with respect to the attachment portions 133a, 133b. Thus, when the actuation forces F are each applied to the actuation portions 131a, 131b of the first and second actuation strands 38a and 38b, the corresponding anchor bodies 28a, 28b are driven from the first configuration to the extension in the manner described above. configuration. 94 201210564 Next, a locking force can be applied to the free portion 70b of the knots 66a, 66b to drive the knots 66a, 66b to the locked configuration and to secure the anchors 28a, 28b to the expanded configuration. For example, the locking force can be applied directly to the free portion 70b of the knots 66a, 66b. Alternatively, the proximity force AF may be applied to the first terminal portion 135a of the first actuation strand 38a to create tension in the actuation strands 38a and 38b, thereby causing a locking force to be applied to the first and second junctions 66a, Free part of 66b 70b. For example, as described above, the knot 66d can be configured to be in an unlocked configuration such that the second end 139a of the first attachment portion 133a can translate through the knot 66d relative to the first end 137a of the first attachment portion 133a. . Thus, the 'proximity force AF' can be applied to the first terminal portion 135a of the first actuating strand 38a to create tension in the actuating strands 38a and 38b, each of which actuates the biasing force to the first and The second anchor bodies 28a, 28b cause the anchor bodies 28a, 28b to translate toward each other, thereby bringing the gap 24c into proximity. Moreover, once the gap 24c is approached, continued application of force to the terminal portion 135a may cause sufficient tension to build up on the actuation strands 38a and 38b such that the free portions 70b of the knots 66a, 66b and 66d can apply a locking force to the knot 66a. , 66b and 66d, thereby driving the junctions 66a, 66b, and 66d to the locked configuration, thereby maintaining the gap 24c in an approximated state.

Referring to Figures 32A through 32B, the anchor assembly 20 can include first and second attachments a 63b that become the first and second junctions 66a, 66b that attach the actuation portions i3ia through b to Corresponding to the attachment portions 133a to b, as described above in the description of FIGS. 31A to C. Further, as described above in the description of FIGS. 31A to 31C 95 201210564, the 'third and fourth connecting members 63c, 63_ state become any riding device or any suitable replacement connector having the surface described herein. . - for example, 'the third connecting member 63c may be defined by the second actuating strand m' and configurable as an eyelet' for example having the eyelet 72 of the type mentioned above in the description of Figure 2h, however, it should be understood that Any of the embodiments or any suitable alternative embodiment may constitute the aperture in an alternative manner, as described above in the description of Figures 31A through 3ic. Thus, the third connecting member 63e& eyelet may be defined by the actuating strand 38b, the inscription 28b, or the attachment member, such as the attachment member 82 configured to be attachable to the tin body 28b (refer to Figures 6a through 6b figure). According to the illustrated embodiment, the second attachment portion 133b can be extended by the connecting member 63b to define the free portion m of the second junction _ in the above manner. The second attachment portion 133b can further define the aperture 72° such that the 'third connection member 63e is configured such that the second actuation strand can be used in the direct manner described above or as shown in FIG. 32A to FIG. Indirect means attached to the first actuating stock. In addition, the fourth connecting member 63d can be defined by the first actuating strand 38a and can also be configured as an eyelet, for example with the eyelet 72 of the type mentioned above in the description of the figure, however, it should be understood that according to the stroke Any of the embodiments herein or any suitable alternative embodiment may constitute the aperture in an alternative manner, as described above in the description of FIGS. 31 to 31C. The aperture of the fourth connecting member (four) may be actuated. 38a, the first-displaced body 28a, or an attachment member definition, for example, the attachment member 82 attached to the wrong body 28a via the group 2 (refer to Figure 28A Figure 96 201210564 to Figure 28C). According to the illustrated embodiment, the first attachment portion 133a can be extended by the first connecting member 63a to define the free portion 7b of the first knot 66a in the manner described above. The first attachment portion 133& can further define the aperture 72. Accordingly, the fourth connecting member 63d is configured to allow the first actuating strands 38b to be attached to the first actuating strands 38a in the direct manner described above or in an indirect manner as shown in Figs. 32A through 32C. In particular, the anchor assembly 20 can include at least one connecting member, such as a fifth connecting member 63e, configured as an auxiliary connecting member 77, such as a connection between the first and second actuating strands 38a and 38b. Rope 59. The connecting strands 59 can be provided as sutures or as a line of any suitable construction as desired. Accordingly, the anchor assembly 2 can include at least one connecting member, such as a sixth connecting member 63f, which can be configured to attach and secure the connecting strands 59 to the first and second actuating strands 38a and 38b, thereby The first and second actuation strands 38a and 38b are attached and fixed to each other. According to the illustrated embodiment, the sixth connecting member 03f attaches the first portion 120 of the connecting strand 59 to the second portion 121 of the connecting strand 59 to pass the first and second actuating strands 38a and 38b via The connecting strands 59 are indirectly attached together. Thus, unless otherwise stated, it will be appreciated that any of the aforementioned connecting members 63 that can attach the first actuation strand 38a to the second actuation strand 38b can also attach the first portion 120 of the connecting strand 59. Connected to the second portion 121 of the connecting strand. Alternatively or additionally, the anchor assembly 2A can include a connector that attaches the first portion 120 of the connecting strand 59 to the first anchor body 28a, and attaches the second portion 121 of the connecting strand 59 to a second connecting member of the second anchor body 28b. For example, the eyelet 72 of the first actuating strand 38a can attach the 97 201210564 connecting strand 59 to the first anchor body 28a, and the eyelet 72 of the second actuating strand 38b can attach the connecting strand 59 to the first Two anchor bodies 28b. According to the illustrated embodiment, the first portion no of the connecting strand 59 extends through the eyelet 72 of the first actuating strand 38a, and the second portion 121 of the connecting strand extends through the second actuating strand 38b The apertures 72 are such that the first and second portions 12, 121 are slidably attached to the respective apertures 72, thereby defining the sliding member 47. The sixth connector 63e attaches the first portion 120 of the connecting strand 59 to the second portion 121 of the connecting strand 59, thereby attaching the first actuating strand 38a to the second actuating strand, thereby The first anchor 22a is attached to the second anchor 22a. It will be appreciated that the sixth connecting member 63f can be configured as any suitable connecting member of the type described herein or any suitable alternative connecting member that is configured to enable the first portion 12 of the connecting strand 59 to be Attached to the second portion 121 of the connecting strand 59. According to the illustrated embodiment, the sixth connecting member 63f includes a knot, such as a knot 66f of the type described above. In particular, one of the first and second portions of the connecting strand 59, such as the first portion 120, defines the post end of the knot 66 and the first and second portions of the connecting strand 59. The other can define the free end 7〇f of the junction 66. Thus, the connecting strands % and the connector 63f that can be integrated with or disconnected from the connecting strands 9 can define the closed coil 204. Relative to the second portion 121, the first portion 120 can translate through the junction 66f to reduce the size of the coil 204 when the junction 66f is in the unlocked configuration. Thus, during operation, the actuation force F can be applied to the actuation portions 131a, 131b of the first and second actuation strands 98 201210564 and 38b when the respective knots 66a, 66b are in the unlocked configuration, such that actuation Portions 131a, 131b can each slide through knots 66a, 66b relative to attachment portions 133a, 133b. Therefore, when the actuation forces f are each applied to the actuation portions I31a, 13lb of the first and second actuation strands 38a and 38b, the corresponding dislocations 28a, 28b are driven from the first configuration to the extension in the manner described above. configuration. Next, a locking force can be applied to the free portion 70b of the knots 66a, 66b to drive the knots 66a, 66b to the locked configuration and to secure the anchors 2, 28b to the expanded configuration. For example, the locking force can be applied directly to the free portion 70b of the knots 66a, 66b. Alternatively, the proximity force AF can be applied to the actuation strands 38a and 38b, thereby causing a locking force to be applied to the free portions 70b of the first and second junctions 66a, 66b. For example, as described above, the knot 66f in the unlocked configuration can be configured such that the first portion 120 of the connecting strand 59 can translate through the knot 66f relative to the second portion 121 of the connecting strand, thereby reducing the coil The size of 2〇4 and the tension generated in the coil 204. Therefore, the connecting strands % apply the proximity force AF to the first and second actuating strands 38 & to b, and in particular to the attachment portions 133a, l33b of the first and second actuating strands to b. Thus, the proximity force AF can cause the first and second attachment portions 133a, 133b of the free portion 70b of the definable knot 66 & 66b to exert a tensile locking force to the knots 66a-b, thereby driving the knots 66a-b to The respective lock configuration. The proximity force AF further biases the first and second actuating strands 38a-b such that the first and second anchor bodies 28a, 28b move it toward each other, thereby bringing the gap 24c into proximity. In addition, the gaps 24c are close to each other, and the first portion 99 of the connecting strands is continuously applied to the first portion 99 201210564 parts 120, which may cause sufficient tension in the coil 204 to cause the first and second anchor bodies 28a, 28b to be in the first A compressive force can be applied to the anatomical structure 24 at a location between the second anchor bodies 28a, 28b. Therefore, the anchor bodies 28a, 2 讣 apply a compressive force to the gap 24c, so that the gap 2 can be kept close. A tensile locking force can be applied to the second portion 121 of the connecting strand 59 to drive the knot 66f to the locked configuration, thereby fixing the size of the coil 2 and maintaining the biasing force against the anchors 22a, 22b. Referring to Figures 33A through 33B in May, the wrong component 2A can include first and second connecting members 63a, 63b configured as first and second junctions 66a, 66b, such that the actuating portion 131a is b attached to the corresponding attachment portions 133a to b as described above in the description of FIGS. 32A to 32 (: FIG. Further, as described above, the third and fourth connecting members 6A to d may be second The wick 38b is defined, and can be configured as an aperture, such as, for example, the aperture 72 of the type mentioned above in the description of FIG. 2H, however, it should be understood that any embodiment or any suitable alternative embodiment described herein can be used. The eyelet may be constructed in an alternative manner. In particular, the anchor assembly 20 may include at least one connecting member attached between the first and second actuating strands 38a and 38b. For example, it may be configured as a fifth connecting member 63e. The at least one connector may include at least a connecting cord such as, for example, a first connecting strand and a second connecting strand 59b that are attached to each other and further attached between the first and second actuating strands 38a and 38b. It can be said that the anchor assembly 2 can be configured to be directly or indirectly Attached to at least one connecting strand 59 of at least one or both of the first and second actuating strands. For example, according to the illustrated embodiment, the first connecting strand 59a is directly attached to the first actuation The cord 100 201210564 strand 38a, and the second connecting strand 59b are directly attached to the second actuating strand 38b. According to the illustrated embodiment, the first and second connecting strands 59a-b are each attached to a defined sliding member 47. The apertures 72 of the first and second actuation strands 38a-b, as described above, allow the first and second actuation strands 59a-b to slide relative to the actuation strands 38a-b, respectively. The first connecting strand 59a is indirectly attached to the second actuating strand 38b via the second connecting strand 59b, and the second connecting strand 59b is indirectly attached to the second actuating strand 38b via the second connecting strand 59a Although the connecting members 63c, 63d are integrated with the respective actuating strands, it should be understood that the connecting members 63c, 63d may alternatively or additionally be integrated with the respective connecting strands 59a, 59b. It will be appreciated that the anchor assembly 20 may comprise Separating from and attached to the first connecting strand 59a, the first actuating strand 38a The connecting member 77, and the auxiliary connecting member 77 separated from and attached to the second connecting strand 59b, the second actuating strand 38b. Accordingly, the anchor assembly 20 can include at least one wire configured to be Directly or indirectly, the first and second anchors 22a, 22b (including the respective first and second anchor bodies 28a, 28b, including the respective first and second expandable portions 36a, 36b) are attached to each other across the gap 24c. The at least one line may be an actuating strand of at least one or both of the anchors 22a, 22b, or may be a separate line from the actuating strands 38a and 38b. For example, it should be understood that in some embodiments 'The actuation strands 38a and 38b are removable after the anchor bodies 28a, 28b have been actuated from the first configuration to the expanded configuration, and at least one connecting member can be attached directly or indirectly to the first and first anchors At least one or both of the bodies 28a, 28b are adapted to attach the anchors 28a, 28b across the gap 24c 101 201210564. According to the illustrated embodiment, the faulty assembly 20 can include at least one (e.g., a plurality) of connecting members 63 that can attach the injuries of the first and third connecting strands 59a 59b to one another. According to the illustrated embodiment, the first connecting strand 59a defines the first portion 12Ga and the second portion i2u, and the second connecting strand 59b defines the first portion i2〇b and the second portion 121b. At least one connecting member of the first connecting strand, such as at least one or both of the first and second portions 120a, 12la of the first connecting strand 5, is attached to the first and second portions of the second connecting strand 59b At least one or both of 12〇b, 121b such that the first and second actuation strands 38a and 38b are indirectly attached together via the connecting strands 59a-b. According to the illustrated embodiment, the first connecting strand 59a is folded through to extend through the eyelet 72 of the first actuating strand 38a to define first and second portions of the first connecting strand 59a that are spaced apart from each other. 12A, 121a' allows the apertures 72 of the first actuation strand 38a to separate the first and second portions 120a, 121a. Similarly, the second connecting strand 5% is folded through to extend through the eyelet 72 of the second actuating strand 38b so that the first and second portions 120b, 121b of the connecting strand 59b are spaced apart from each other. 'The aperture 72 of the second actuation strand 38b is such that the first and second portions 120b, 121b can be separated. The first and second portions 120a, 121a of the first connecting strand 59a extend toward the second error 22b, and the first and second portions 120b, 121b of the second actuating strand 38b extend toward the first anchor 22a. It will be appreciated that either or both of the connecting strands 59a, 59b can be integrated with the respective actuating strands 38a and 38b and can extend through the aperture of the anchor, such as the aperture 90 or in any alternative form 102 201210564 Eyelet, as described herein. The first and second connecting strands 59a-b can be attached to each other at one or more locations via any suitable connector of the type described herein. For example, the first connecting strand 59b can be woven through another line, such as the second connecting strand 59b, to attach the first anchor 22a to the second anchor 22b. It will be appreciated that, for example, in a particular embodiment in which the second actuation strand 38b does not define an eyelet, the first attachment strand 59a can be woven through the second actuation strand 38b to attach the first and second anchors 22a to b. According to the illustrated embodiment, at two different locations, the first portion 120b of the second connecting strand 59b can be woven or otherwise spliced through the first portion 120a of the first connecting strand 59a to define a respective First and second strands 134a-b, and two different positions, the first portion 120a of the first connecting strand 59a can be woven or otherwise spliced through the first of the second connecting strand 59b Portion 120b is used to define respective third and fourth strands 134c through d. Accordingly, it should be appreciated that the anchor assembly 20 can include at least one (e.g., a plurality) of connecting strands that can be attached to one another at one or more locations. For example, each of the plurality of connecting strands may be attached to each other at one or more strands (e.g., strands 134a through d). According to the illustrated embodiment, the first hinge 134a can be defined by the first portion 120b of the second connecting strand 59b and the first portion 120a of the first connecting strand 59a. In particular, the first portion i2〇b of the second connecting strand 59b can be woven through the first connecting strand in a direction away from, for example, the corresponding first anchor body 28a and toward the second anchor body 28b, as desired. The first portion i2〇a of the strand 59a is defined to define a 103 201210564 twisted knot 134a that attaches the first and second connecting strands 59a-b to thereby also attach the first and second anchors 22a-b. Although the first portion 120b of the second connecting woven strand 59b can be woven through the first portion 120a of the first connecting strand 59a as illustrated, it should be understood that the first portion 12b of the second connecting strand 59b One of the segments may extend along the extending direction of the first portion 120a in the first portion 12a of the first connecting strand 59a such that the first portion 12a is along the first portion 120b. The length of the segment surrounds the segment, for example as described above in the description of Figures 19G through 19H. The first portion 120b of the second connecting strand 59b exits the first portion 120a of the first connecting strand 59a to define the first terminal portion 141b of the second connecting strand 59b. The second hinge 134b may be defined by the second portion 121b of the second connecting strand 59b and the second portion I21a of the first connecting strand 59a, for example, along the desired number of times, for example, away from the corresponding first anchor body 28a And in a direction toward the second anchor body 28b, the second portion 121b of the second connecting strand 59b can be woven through the second portion 121a of the first connecting strand 59a to define the attachment of the first and second connecting strands 59a to b thus also attach the second hinge 134b of the first and second anchors 22a to b. Although the second portion 121b of the second connecting strand 59b can be woven through the second portion 121a of the first connecting strand 59a, it should be understood that the second portion 121b of the second connecting strand 59b is One segment may extend along the extending direction of the second portion 121a in the second portion 121a of the first connecting strand 59a such that the second portion 121a surrounds the segment along the length of the segment in the second portion 121b For example, as described above in the description of the 19Gth to 19thth drawings. The second portion 121b of the second connecting strand 59b exits the second portion 121a of the first connecting strand 59a to define the second terminal portion 141b of the second connecting strand 59b. The first and second terminal portions 141b and 141b may define free ends that are separated and spaced apart from each other, i.e., detached from one another, or alternatively directly via any suitable connecting member 63 of the type described herein or suitably The connecting members 63 which are formed in an alternative manner are indirectly attached to each other. For example, in accordance with the illustrated embodiment, the faulty component 2 can define a junction defined by the first and second terminal portions 14A and 141b, such as a junction 66 of the type: For example, one of the terminal portions, for example, the first terminal portion 141b can define the leg end 68 of the junction 66, and the other terminal portion of the terminal portion, such as the second terminal portion 141b, can define the free end of the junction 66. . Thus, when the junction 66 is in the unlocked configuration, the first terminal portion injury 141b can be translated through the junction % relative to the first terminal portion 141b. The locking force can be applied to the free portion 70b defined by the second terminal portion 141b in the manner described above to drive the junction 66 to the locked configuration such that the first terminal portion 141b is translatably fixed to the second terminal portion by the junction 66. Part 141b1. The second knot 134c can be defined by the first portion 120a of the first connecting strand and the first portion 12〇b of the second connecting strand 59b. In particular, the first portion 120a of the first connecting strand 59& can be woven through the second connecting strand, along the desired number of times, for example, away from the corresponding second anchor body 28b and toward the first anchor body 28a. The first portion 120b of 5% defines a third yoke i34c that attaches the first and second connecting strands to b to also attach the first and first anchors 22a-b. Although the first portion 12〇a of the first connecting strand 59a can be woven through the first portion 12〇b of the second connecting strand 59b, it should be understood that the first joint 105 201210564 is connected to the strand 59a. The first portion 12a can extend along the extending direction of the first portion 12〇b in the first portion i2〇b of the second connecting strand 59b such that the first portion 120b follows The length of the 5th segment in the first portion i20a surrounds the segment, for example as described above in the description of Figures 19G through 19H. The first portion 120a of the first connecting strand 59a exits the first portion 120b of the second connecting strand 5% to define the first terminal portion i41a of the first connecting strand 59a. The fourth hinge 134d can be defined by the second portion 121a of the first connecting strand 59a and the second portion 121b of the second connecting strand 59b. For example, the second portion 12la of the first connecting strand 59a may be woven through the second connecting strand 59b along the direction of, for example, leaving the corresponding second anchor body 28b and toward the first i-body 28a, as desired. The second portion 121b defines a fourth hinge I34d that attaches the first and second connecting strands 5, such as to b, thereby also attaching the first and second anchors 22a-b. Although the second portion i2la of the first connecting strand 59a can be woven through the second portion 121b of the first connecting strand 59b as illustrated, it should be understood that the second portion 121a of the first connecting strand 59a is A section may extend along the direction in which the second portion 12b extends in the second portion 121b of the second connecting strand 59b such that the second portion 121b surrounds the segment along the length of the segment in the second portion 121a, For example, as described above in the description of the 19Gth to 19thth drawings. The second portion 121a of the first connecting strand 59a exits the second portion 121b of the second connecting strand 59b to define a second terminal portion 141a' of the first connecting strand 59a. The first and second terminal portions 141a and 141a may define free ends that are separated and spaced apart from each other, i.e., detached from each other, or alternatively directly or 106 201210564

66. The locking force can be applied to the following in the above manner: Terminal part ΐ4ι& ,  The free portion 70b is defined to drive the junction 66 to the locked configuration such that the second terminal-terminal portion 141a is translatably fixed to the first portion 141a' by the junction 66.  During operation, First and second actuation strands 38 & And 38b each with an acceptable actuation force F resulting in junction 66a, 66b is in the unlocked configuration, the anchor body 28a, Each of 28b moves from the first configuration to the extended configuration. As shown, The actuation force F is in the first and second actuation portions 131a, respectively. 131b can be applied directly to the first and second actuation strands 38a and 38b, Or the first and second connecting members 63a, respectively An upstream position of 63b can be applied to the first and second actuation strands 38a, 38b. then, The knots 66a-b can be locked by applying a tensile locking force to the attachment portions 133a to b' of the actuation strands 38, respectively. Alternatively, This tensile stabilization can be applied by the proximity force AF. This will be described.  For example, 'once the anchor body 28a, 28b has been activated to the expanded configuration after the first and second connecting strands 59a, First and second terminals of 59b 107 201210564 Part 141a, Each of 141b is each acceptable to produce a connecting strand 59a, The proximity force AF of the tension in 59b, Thereby, the proximity force AF is applied to the actuating strands 38a and 38b and at least one or both of the anchors 22a-b and thus the respective anchor bodies 28a-b are biased toward the biasing position to bring the gap 24c into proximity. It should be understood that Produced from the connecting strand 59a, The tension of 59b further imparts tension to the eyelet 72. Since the eyelets 72 are defined by the respective attachment portions 133a to b, The tension created by the apertures 72 will counteract the respective junctions 66a-b producing a pulling force that drives the junctions 66a-b to the locked configuration.  In addition, Since the first and second connecting strands 59a to b respond to the application of the proximity force AF in tension, The first connecting strand 59a can apply a compressive force to the second connecting strand 59b, for example, at the first and second strands 134a-b. especially, The first portion i2〇a of the first connecting strand 59a can apply a compressive force to the first portion 120b outside the second connecting strand 5 at the first knot 134a, And the second portion 121a of the first connecting strand 59a can apply a compressive force to the second portion nib of the second connecting strand 59b at the second strand i34b. The compressive force applied by the first connecting strand 59a to the second connecting strand 59b can reduce or prevent the second connecting strand 59b from being displaced at the strands 134a-b for the first connecting strand.  In addition, The second connecting strand 59b can apply a compressive force to the first connecting strand 59a, for example, at the third and fourth strands 134c to d. especially, The first portion 12Gb of the second connecting strand 59b can apply a compressive force to the first portion 120a of the first connecting strand at the third strand 134c, And the second portion i2ib of the second connecting strand 59b can apply a compressive force to the first connecting strand 59& at the fourth 108 201210564 = knot 134a The second decoration 121a. The compressive force from the second connecting strand 59 to the first connecting strand may reduce or prevent the first connecting strand from 5% of the translation of the second connecting web at the knots 134c to d, respectively.  Once the gap 24c is approaching, Each of the first connecting strands 5, such as the first and second terminal portions 141 & And 14la, The junction 66 can be actuated to lock the configuration' thereby preventing the first and second portions 12& , 121& Relatively Move through the junction 66. Similarly, the first and second terminal portions 141b and 141b of the second connecting strand 59b are attached, respectively. The junction 66 can be actuated to the lock configuration. Thereby preventing the first and second portions 12〇b, The db is translated relatively through the junction 66.  Although the figure anchor assembly 2 includes at least one side that may include an eyelet, Attached to the second anchor over the defect via at least one integrated connecting member, It should be understood that The anchor assembly may alternatively or additionally comprise an auxiliary connecting member of the type described herein to attach the aperture of an anchor to the second error across the anatomical defect.  E.g, Please refer to Figures 34A to 34B, First and second in Tian 22a, At least one or both of 22b may comprise any suitable aperture of the type described herein or an aperture formed in any alternative manner, An eyelet 72 of the illustrated embodiment is illustrated. The anchor assembly 1A can further include an auxiliary connecting member 77 that attaches the first pin 22a to the second anchor 22b. For example, the 'auxiliary connection member 77 can be configured to attach the first anchor 22a to at least one hook of the second anchor 22b, For example, a pair of hooks 21〇a, 21〇b.  According to an embodiment, the first hook 21A can define a corresponding first attachment end 212a and a second engagement end 214a, And the 109th 201210564 two hook 210b can define the second attachment end 212b and the second engagement end 214b. First and second attachment ends 212a, 212b can each be attached to actuating strands 38a and 38b, For example, the apertures 72 defined by the first and second actuation strands 38a and 38b. According to an embodiment, Attachment ends 212a through b define apertures, And the respective actuating strands 38a to b, For example, attaching parts 131a to b, During the construction of the respective apertures 72,  It can be fed through the first and second attachment ends 212a-b. Alternatively, First and second attachment ends 212a, 212b can be attached to the prefabricated eyelet 72,  For example, the clip is 'adhered with an adhesive or otherwise attached.  The engagement ends 214a-b are configured to be matable with each other to attach the first hook 210a to the second hook 21 Ob, Thereby, the first | seedling 22a is also attached to the second tin 22b', for example, in the shop 22a, 22b has been activated to the extended configuration. According to an embodiment, Hook 210a, 210b can be made of shape memory material. For example, you are Nitinol, So that once the hook 210a, 210b pairing 'hook 210a, 210b will revert to hook 210a, 210b has a different shape when paired. therefore, The hooks 21〇a to b define the first shape when paired, And a second shape different from the first shape after the hooks 2i〇a to b are paired.  For example 'hook 210a, 210b can lie substantially across the anatomy 24. Alternatively, Hook 210a, 210b can be paired with each other to maintain their shape. The hooks 210a-b can define a sufficient length to extend between the anchors 22a-b such that the hooks 210a-b can apply an abutting force to the actuating strands 38a-b after mating to cause the anchor 28a, At least one or both of 28b are biased toward each other to bring the gap 24c close. Alternatively or additionally, For example, if the hooks 210a to b are made of shape memory material 110 201210564, For example, the length of your Tino's hooks 210a-b between the anchors 22a-b can be reduced after pairing to apply a proximity force to the actuation strands 38a-b. So you should understand that The auxiliary connecting member 77 can define the first and second actuating strands 38a, 38b is a fixedly attached locking member,  And also applying a proximity force to the anchor 22a, 22b is biased toward the other to bring the gap 24c close to 'and keep the gap 24c close.  Please refer to pictures 35A to 35C, The auxiliary attachment member 77 can be configured as a connecting strand 59 substantially as described above, It can define and connect the first and second parts of the strand 12〇, 121 integrated connecting member 63. According to the illustrated embodiment, The connecting strand 59 can define an intermediate portion 123 extending between the apertures 72 of the first and second actuating strands 38a-b. The connecting strands 59 are fed through or otherwise extend through the apertures 72 such that the first and second portions 12, 121 is extended by the eyelets 72 and is sinusally attached to each other. For example, 'the first and second parts are 12〇,  At least one of 121, For example, as shown in the first part of the figure 12〇, Can be barbed, Thus, the ratchet teeth 216 each having a front end 216a and a rear end 216b are defined to protrude outward. First and second parts 120, Another one of 121, For example, the first part 121 as shown, At least one of the engine members 218' can be defined to be configured to mate with the ratchet teeth 216 to attach the first portion 120 to the second portion 12, for example, The dice member us can be configured to be the first and second parts 120, a defined aperture in the aperture 121, the second 220 can be cut through the second portion 121, As shown in Figure 35B,  It can be defined as the gap 222 between the fibers of the second portion 丨21, For example, in the first °, the mesh 223 or the braided structure, Or any alternative structure that accepts the first 12G gap 222 with barbs 111 201210564. It should be understood that Alternatively, the forceps member 218 can be configured as desired.  During operation, The first and second anchors 22aib can be actuated to the extended configuration in the manner described above. And at the anchor 22& Before or after actuating b, Connecting strands 59 can be fed through respective apertures 72. The ratchet 216 of the first injury 120 can be mated with the forceps member 218 of the second portion 21〇 such that the connecting strand 59 defines a closed coil 2〇4. E.g, The first portion 210 with barbs can be fed through the aperture 220 of the second portion 121 to attach the first portion 12A to the second portion 121, Thereby the first actuating strand 38a is also attached to the second actuating strand 38b. The front end 216a and the trailing end 216b of the ratchet teeth 216 can be configured to allow the first portion of the wound 120 to travel relative to the second portion 121 in a direction that causes the size of the coil 204 to decrease. And preventing the first portion 12 from substantially traveling relative to the second portion 121 in a direction opposite to the increase in the size of the coil 204. The size of the coil 204 is reduced, The connecting strands 59 apply a proximity force to the first and second actuating strands 38a and 38b to bias the first and second anchors toward each other to bring the gap 24c into proximity. So you should understand that The connecting member illustrated in Figures 34A through 34B may define a sliding member and a locking member of the type described herein.  Please refer to figure 35D, The auxiliary attachment member 77 can be configured as a spring member 224, It is configured to be attachable between the first and second actuation strands 38a and 38b, Thereby the first and second anchors 22a,  Between 22b. The spring member D4 can be configured as a coil spring as shown.  Or a spring member constructed in any alternative manner, attached to the iron 22a, When between 22b, its spring constant can make the anchor 22a, 22b is biased to the office. E.g, The spring member 224 can be configured as a spring wire or a spring member 224 that is suitably constructed in an alternative manner. The magazine member 224 can define first and second attachment ends 224a, 224b, It is configured to be attachable to the first and second actuation strands 38a and 38b, respectively. E.g,  The attachment ends 224a-b define apertures, And the respective actuating strands 38a to b', for example, the attachment portions 131a to b, During the construction of each eyelet 72, It can be fed through the first and second attachment ends 212a-b. Alternatively, the first and second attachment ends 212a, 212b can be attached to the pre-formed eye 72', such as on a clip, Adhesive sticking, Or attached in other ways.  Alternatively, the 'first and second attachment ends 214a-b can be integrated with the actuation strands 38a and 38b' thereby defining the magazine member 224 as an auxiliary strand member 33 (defining the first and second sides that can be integrated with each other) The elastic portion of the strands 38a and 38b) is actuated.  During operation, The first and second anchors 22a-b can be actuated to the extended configuration in the manner described above. And before or after actuation of the faults 22a-b, the spring member 224 can be attached to the actuation strands 38a and 38b, It is attached to the pin bodies 28a to b. The spring member 224 applies a spring force that defines the proximity force to the first and second actuation strands 38a and 38b to bias the first and second anchors toward each other to approximate the gap 24c.  It will be appreciated that a connecting member 63 of the type described herein is configured to attach the first and second actuating strands 38a and 38b to each other, The proximity force can be applied to the anchor 22a, 22b and anchor 22a, 22b is biased to the opposite side to bring the gap 24c close. Please refer to Figures 36A through 36B. It should also be understood that One of the actuating strands 38a and 38b can be associated with each of the anchor bodies 28a, 28b integration, And the other of the actuating strands 38a and 38b can be associated with the respective anchor body 28a, 28b separation and weaving penetration 113 201210564 Pass it to attach the actuation strand to the anchor body. According to the illustrated embodiment,  The second actuating strand 38b is integrated with the pin body 28b, And the first actuating strand 38a defines an auxiliary strand 33a associated with the first pin body 38a. Therefore, The integrated actuating strand 3 of the second anchor 22b complements the auxiliary actuating strand 38a of the first anchor. therefore, As described above in the description of Figs. 7A to 7B, the first portion 41 of the second cat body 22b can define the respective actuation portions 131b and attachment portions 133b. In addition, After the auxiliary strands 33 are removed, a connecting member 63 of the type described herein can be attached directly to any of the apertures of the type described herein. For example, the apertures 90' are as detailed below in the description of Figures 37A through 37B:  The attachment portion 丨 33b of the second actuation strand 38b can be integrated with the attachment portion 133a of the first actuation strand 38a. First Consistent Rope 38& Can be woven through the tin body in the above manner, The first actuation portion 131a of the first panel 22a is caused to extend from the first anchor body 28a and to be spaced apart from the first attachment portion 133a in the manner described above. The pin assembly 20 can include another location for attaching the first actuating portion 131a to the auxiliary strand 33a (e.g., First and second attachment portions 133a, A connecting member 63 of either or both of 133b. According to the illustrated embodiment, the connecting member 63 attaches the first actuating portion injury 131a to the first to the attachment portion 133b. The connecting member 63 can be configured to be adapted according to any of the embodiments described herein. In order to attach the first actuation portion 131a directly or indirectly to another target position of the auxiliary strand 33a, For example, the first and second attachment portions 133a,  At least one or both of 133b.  According to the illustrated embodiment, The connecting member 63 is configured as a target position & by the first actuating portion 131a and the auxiliary strand 33a (which may be the second attachment portion 114 201210564 133b).  ★ Set the knot of 疋, As above. First Motion 1& Available & The new end 68 of Yijie 66, The terminal portion 135a ώ I j is extended, And the second actuating strand 38b defines the free end 70 of the knot 66. E.g, 哲一 rA &  Gotti II actuated strand 38b is placed in knot 66,  The part between two and three can define the static part of the free end 7G: The unconstrained strand 38b is disposed in the knot 66, First anchor body 28a, P injury can be used as a free part of the free end.  = during the period, Job can be in the unlocking group minus the pillar end "  Actuating part 131a, Relative to the free end 7〇 or the second actuating strand 38b, It can be described as J's movement through the knot 66. therefore, Actuator F can be applied to: Actuating part 131a, Especially applied to the terminal part 5& This creates tension in the first and second actuation strands 38a and 38b, thereby driving the first and second errors 22a, 22b is each applied from the first configuration motion to the extended planting state. The proximity force AF is applied to the first actuation portion 131a', Don't apply it to the first terminal part 13 brother, Further generating tension in the first and second actuation strands 38a and 38b, Thereby the first and first anchors 22a, 22b biases the opponent and brings the gap 24c closer. therefore, The proximity force AF can be a continuation of the actuation force F.  As above, The anchor assembly 20 can include a first eyelet attached to the first anchor 22a, A connecting member 63 between the second holes of the second anchor 22b.  Any suitable embodiment or any suitable alternative embodiment described herein may constitute at least one or both of the first and second apertures. Please refer to pictures 37A to 43C. At least one or both of the first and second apertures may be configured as apertures 90 as described above in the description of Figures 9A through 12B.  115 201210564 For example, Please refer to Figures 37A to 37D, And as described above in the description of Figures 9A to 9C, The auxiliary strands 33 can extend through the apertures 90 and can be woven through the anchors 28 to define the path of the apertures 90 through the anchors 28 when the anchors 28 are actuated from the first configuration to the expanded configuration. In addition, The auxiliary strands 33 can be configured to facilitate deployment of the anchor 22 to another anchor line. Alternatively or additionally, it may be configured to accept an actuation strand that causes the pin to be actuated from the first configuration to the extended configuration upon implantation of the anatomy 24.  According to the illustrated embodiment, Tin assembly 20 can include perforations 9〇a, First and second anchors 22a of 90b, 22b, It is activated to an extended configuration, As described above in the description of FIGS. 9A to 9C. Next, the auxiliary strands 33 of one of the anchors 22a to b can be unloaded by the respective apertures 90a to b' and the auxiliary strands 33 of the other of the anchors 22a to b can be fed through the faults 22a to b. The eyelets 90a to b of the auxiliary strand. Thus, the auxiliary strands 33 of one of the 'anchors' may define a first coincident movable strand 38a and a second actuated strand 38b. Alternatively, Anchor 22a,  The auxiliary strands 90a to b of both 22b can be removed by the respective eyelets 90a to b, And a new auxiliary strand 33 can be fed through the aperture 90a, 90b both to make the first anchor 22a, 22b is attached to each other. therefore, The auxiliary strand 33 illustrated in Fig. 37A and the anchor body 28a, 28b separates and extends through respective apertures 90a, 90b to define the respective integrated actuation strands 38a and 38b.  As shown in Figure 37B, Along the respective actuation strands 38a and 38b, Driving the anchor body 28a, The 28bs are each moved from the extended configuration to the first configuration. therefore, Actuating strands 38a and 38b extend through anchor body 28a,  116 201210564 28b the same opening, As described above, the auxiliary strands 33 shown in Figs. 9a to 9C are illustrated. therefore, The strands 38a and the respective first and second actuating portions 131a-b and the first and second attachment portions 133a-b are actuated. The first and second actuating portions 131a-b are configured to each accept an actuation force F that moves the anchors 28a-b to an extended configuration in the manner described above, And the second actuation portions 133a-b are configured to be attachable to each other. E.g, The first and second actuation portions 133a to b can be integrated with each other, It can be attached via any suitable connecting member of the type described herein.  Continue to refer to Figures 37A through 37D, The anchor assembly can include a connecting member 63, It can be configured to be attachable to the first and second actuation portions 131a, 131b' thus attaches the first and second actuation strands 38a and 38b to each other' and also causes the anchor 22a, 22b is attached to each other. For example, in an integrated manner across the gap 24c, according to the illustrated embodiment, Attachment portions 133a to b of the auxiliary strands 33 may be attached.  The connecting members 63, which may define at least one of the sliding member 47 and the locking member 64, as described above, for example, attach the first and first actuating strands 38a and 38b together at the joint 125. In addition, According to the illustrated embodiment, the connecting member 63 can be defined by the auxiliary strands 33 and thus by the actuating strands 38a and 38b. therefore, According to an embodiment, The connecting member 63 can attach the first actuating strand 38a to the second actuating strand 38b while actuating the strands 38a and 38b with tension, In order to keep the gap 24c in a close state. Alternatively or additionally, It should be understood that Before the actuation strands 38a and 38b are tensioned, Therefore, before the gap 24c is brought close, The connecting member 63 allows the first and second actuating strands 38a and 38b 117 201210564 to be attached to each other.  According to the illustrated embodiment, The connecting member 63 is defined by and integrated with the first and second actuating strands 38a and 38b. therefore, The actuation strands 38a and 38b are directly attached to each other. The connecting member 63 can define the sliding member 47 and the locking member 64 at the connection point 125. E.g, Connection member 63 can define a junction 66, The knot 66 can be constructed in the manner described above in the description of Figure 4A to the stimuli, and the knot 66 can be defined by one or more of the actuating strands 38a and 3bb. However, it should be understood that The knot may alternatively be defined by at least one of the actuation strands 38a and 38b and the connecting strand. Alternatively, For example, when the connecting strands are attached to the actuating strands 38a and 38b, The knot 66 allows portions of the connecting strand to be attached to each other to attach the actuating strands 38a and 38b. According to the illustrated embodiment,  The first and second actuation strands 38a and 38b define a knot 66. therefore, At least a portion of the connecting members 63 can be integrated with at least one or both of the actuation strands 38a and 38b.  One of the first and second actuation strands 38a and 38b can define a strut end 68' and the other of the first and second actuating strands 38a and 38b can define a free end 70. According to the illustrated embodiment, The first actuating strand ', such as the first actuating portion 131a, Defining the strut end 68, And the second actuating strand 38b, For example, the second actuation portion 131b, Definition Free end 70. The free end free portion 70b can be defined by the terminal portion 135b of the second actuating strand 135b. same, The terminal portion 135a of the first actuating strand 38a is extended by the knot 66 into a strut end 68.  Applying tension to the actuating strands 38a and 38b to cause the first and second pins 22a, 22b biases the opponent and brings the gap 24c closer,  118 201210564 The first and second actuation strands 38a and 38b can be knotted 66. Once the junction 66 is formed, And when the knot 66 is in the unlocked configuration, The actuation force f can be applied to the actuation strands 38a and 38b, Especially the actuation parts 13la to b, In order to drive the respective expandable portion 36 from the first configuration to the extended configuration. Next, The proximity force AF can be applied to the terminal portion 135a of the first actuating strand 38a, It defines a pillar line 68, Thereby causing the strut ends 68 to slide through the knots 66 and the respective anchors, For example, the first anchor 22a, Pull to another anchor, For example, the second anchor 22b. Once the gap 24c is approaching, Can make the free end 70 (for example, The free line 7 〇b defined by the terminal portion 135b of the second actuating strand 38b has a tension secondary locking knot 66 and prevents the first actuating strand 38a from translating through the 钤 66, Thereby, the tension actuating strands 38a and 3 are fixed.  The deadlock interface 63 can be configured as a knot 66. It should be understood that  Alternatively, the connection member 63 can be configured as needed according to any solid paste or any alternative connection H'. In addition, Do your best ^ 22a, Each of the illustrations 22b has a respective _joining member η, = solution, One of the tins may include attachment members 82 while being coupled to the respective actuation strands 38.  Tian In addition, please refer to the 37th chart, It should be understood that The U2 of the wrong component 可 may include the actuating strand 38 mountain extending through the aperture 9 或 or more in the manner described above in the description of Fig. 37A. E.g, —曰=two Actuated to the extended configuration so that the eyelet 9G is out of the expandable body 28 A plurality of auxiliary strands 3Mb can be inserted into the perforated ^ protruding tin body 28 along the respective actuating ropes to b from the extended stage = 119 201210564 to the first configuration. therefore, Each of the plurality of actuating strands 38a-b extends through the same opening of the pin body 28, As described above, the auxiliary strands 33 shown in Figs. 9A to 9C are illustrated. It should be understood that  The actuation strands 38a-b can be configured to be attachable to other anchors or anatomical locations as desired. At this point, 'should understand, As needed, At least one of the plurality of actuating strands 38a-b may be referred to as a connecting strand.  凊 Refer to Figures 38A through 38C, The recording assembly 20 as described above in the description of Figures 37A through 37D may include a plurality of connecting members 63 configured to attach at least one or both of the actuation strands 38a and 38b. According to the illustrated embodiment, Actuating strands 38a and 38b are defined by a common strand. For example, the auxiliary strands 33, Making the respective attachment portions 133a, 133b integrates with each other. therefore, According to the illustrated embodiment, the first and second actuation strands 38a and 38b are integrated with each other.  The anchor assembly 20 can include a configuration configured to cause the actuation portion i31a, 131b are attached to the other positions of the common strand to thereby attach the first and second connecting members 63a, 63b. According to the illustrated embodiment, The first connecting member 63a can attach the corresponding first actuating portion 131a to another position of the auxiliary strand 33 spaced apart from the first actuating portion 131a. same, The second connecting member 63b can attach the corresponding second actuating portion 131b to another position of the auxiliary strand 33 spaced apart from the second actuating portion 131b. E.g, According to the illustrated embodiment, The first connecting member 63a attaches the first actuating portion 131a to the first attaching portion 133a, And the second connecting member 63b attaches the second actuating portion 131b to the second attaching portion 133b.  therefore, It can be said, At least one connecting member, For example, the first and the 120th 201210564 - the connecting member 63a, 63b, The first and second actuation portions 13ia, 131b are each attached to other positions of the auxiliary strands 33 so that the first and second actuating portions 13la, 13讣 are attached to each other, For example, indirectly through the attachment portion 133a, At least one or both of 133b. More to say, The first attachment member 63a operatively attaches one of the first actuation strands 38a to another location of the actuation strand 38a, And the second connecting member 63b allows one of the second actuating strands 38b to be attached to another position of the second actuating strand 38b.  According to the illustrated embodiment, First and second connecting members 63a, Each of 63b can be individually configured as a knot 66a defined by the auxiliary strands 33 at different locations on the auxiliary ropes. 66b. Junction 66a, 66b can be constructed as described above in the description of Figs. 4A to 4F.  Or it can be constructed in an alternative way as needed. According to the illustrated embodiment, The first knot 66a includes a strut end 68 that can be defined by the actuating portion 13 of the first actuating strand 38a, And a free end 70 defined by the first end 137a of the first attachment portion 133a and a free end 70 defined by the second end 139a of the first attachment portion 133a. The first end 137a can be disposed at the junction 66a, The first Jin 2 is like this, And the second end 139a is configurable at the junction 66a, Between the second connecting members 63b. Alternatively, The free portion 7% can be defined by the attachment portion 133b of the second actuation strand 38b.  According to an embodiment, The second knot 66a includes a support end that can be defined by the actuating portion i31b of the second actuating strand 38b. And a free end of the free portion 70b defined by the first end portion 1131 of the second attachment portion 133b and the second end portion 13b of the second attachment portion 133b 70. The first end 137b can be placed in the junction 66b, Between the second pin bodies 28b, And the second end 139b is disposed at the junction 66b, Between the first connecting members 63a. Alternatively,  The free portion 70b can be attached to the first actuation strand 38a by a portion 133 &  definition. Attachment portion 133a, 133b is illustrated as being integrated with each other, However, it should be understood that Attachment portion 133a, 133b can be separated and attached to each other, For example, the anchor assembly 20 defines each of the first and second anchors 22a, 2 operably consuming the first and first auxiliary fibers 33a, 33b (for example,  Refer to Figure 30A to Figure 3D).  First and second junctions 66a, Each of 66b can define a respective sliding member 47, It allows the respective strut end 68 to translate through it relative to the free end 70. therefore, The sliding member 47 allows the first and second actuation portions 131a and 131b and the first and second attachment portions 133a, 133b is relatively translational, For example, in response to knot 66a, 66b can be applied to the terminal portion 135a when the configuration is unlocked, 135b's additional actuation force F, Thereby driving the respective anchor body "a, 28b is moved from the first configuration to the extended configuration. Each knot 66 is further defined to be actuatable to a locked configuration to enable I seed 22a, At least one or both of 22b are secured to locking members 64 at respective biasing positions. E.g, The tensile locking force can be applied to the knot 66a, The free portion of the free end of 66b is 7〇b to prevent the actuating portion 131a, 131b with respect to the attachment portion 133a, 133b translates through the knot 66a, 66b.  First and second junctions 66a, 66b may be spaced along the auxiliary strands 33 by a fixed distance L' whereby the anchor body 22a, 22b is inserted into the target anatomical position 24a, At 24b, the gap 24c is kept close. E.g, At 122 201210564 knot 66a, 66b injects their respective target anatomical locations 24& , Before 2 Park,  The gap 24c can be brought close to it. During operation, Once the first and second target anatomical locations 24a, Each of 24b is implanted with a first and second anchor 22a, After 22b, The knots 66a-b can be in an unlocked configuration such that the actuation force F is applied to the respective actuation strands 38a-b, For example, the actuation portions 131a to b,  This causes the respective faults 28a to b to move from the first configuration to the extended configuration. Next, The tensile locking force can be applied to the respective attachment portions 133a-b against the corresponding knots 66a-b, In order to drive the knot 66a to b to the locked configuration and to keep the anchors 2 2 a to b in an extended configuration.  First and first knot 66a, The distance l of 66b can be substantially equal to or less than the target anatomical position 24a, 24b distance, Making the gap 24c in the first and second tins 22a, 22b expands behind the anatomical position and approaches when connected with the auxiliary strands 33, The tension generated by the actuation strands 38a and 38b is maintained to maintain the proximity of the gap 24c. Although the first and second connecting members 63a to b can each be configured as the knot 66, It should be understood that  First and second connecting members 63a, Either or both of 63b can alternatively be configured as any suitable locking member 63 of the type described herein or alternatively in any suitable locking member. E.g, At least one or both of the connecting members 63a to b may define a twist, Thereby one or both of the actuating strands 38a-b can be hinged through the other of the self-actuating strands 38a-b, And at the anchor 22a, The actuation of 22b causes tension in the connecting strands to apply a compressive force that prevents translation of the anchor wires 38a-b. A twisted embodiment is described above in the context of the description of the 19D to the drawings.  , '° Please refer to pictures from 39 to 39D. The auxiliary strands 33 can be inserted 123 201210564 to extend through the first and second anchor bodies 28a, Hole 28a of 28b, 90b, As described above in the description of Figure 37A, And then,  Along the first and second anchor bodies 28a, The direction between 28b, In more than one location separated from each other (for example, Two positions) can be hinged through itself. Thus the 'anchor assembly 20 can include at least one connecting member 63 that couples the first actuating strand 38a to the second actuating strand 38b, For example, a pair of connecting members 63a, 63b.  E.g, Connecting member 63a, Each of 63b is configurable to be a knuckle 134a defined by first and second actuation strands 38a and 38b, respectively 134b. In an embodiment, One of the first and second actuation strands 38a and 38b can be woven or otherwise spliced through another location of the auxiliary strand 33, For example, through the actuating strands 38 & And another of 38b. According to the illustrated embodiment, The actuation portion 131b of the first or second actuation strand 38b can be woven or otherwise spliced through the attachment portion 133b of the second or second actuation strand 38b and the second or first actuation At least one or both of the attachment portions 133a of the strands 38a are used to define the first hinge 134a. The second actuation strand 38b can enter the first actuation strand 38a and can extend along the first actuation strand 38a in a direction away from the corresponding second anchor 28b within the first actuation strand 38a for The first hinge 134a is defined at the first terminal portion 135b prior to exiting the first actuation strand 38a. Thus the first actuating strand 38a can surround the second actuating strand 38b along a portion of the length of the second actuating strand 38b.  In addition, The first actuating strand 38a can be woven or otherwise twisted through the second actuating strand 38b to define a second strand i34b. Root 124 201210564 According to the figure, no embodiment, The first or actuating portion 131a of the first actuating strand 38a can be woven or otherwise spliced through the attachment portion 133a of the second or first actuating cord 38a and the second or second At least one or both of the moving strands 38b^ attach portions 133b to define a first twisted junction l34b. First and second attachment portions 133a, The 133b may be attached to each other', for example, in an integrated manner or in a separate manner via a connecting member.  First and second kinks 134a, 134b can be separated, Thereby, the first hinge U4a is disposed closer to the first anchor 22a than the second hinge 134b. And the second twist 134b is disposed closer to the second twist 22b than the first twist 134a. The first actuating strand 38a can enter the second actuating strand 38b and extend along the second actuating strand 38b in the second actuating strand 38b in a direction away from the first tin body 28a for exiting The second twist 134b is defined at the first terminal portion 135a prior to the actuation of the strand 38b. therefore, The second actuating strand 38b can surround the first actuating strand 38a along a portion of the length of the first actuating strand 38a.  During operation, First and second actuation strands 38a and 38b,  In particular, the first and second actuation ends 131a, 131b, Each of them can be made to form an anchor body 28a, Each of 28b moves from the first configuration to the actuation force F of the extended configuration. As shown, The actuation force F is in the first and second actuation portions 131a, respectively. 13lb (for example, First and second terminal portions 135a, 135b) can be directly applied to the first and second actuation strands 38a and 38b, Or each in the knot 134b, An upstream position of 134a can be applied to the first and second actuation strands 38a and 38b.  Next, First and second actuation portions 131a of the first and second actuation strands 38a and 38b, Each of 131b can accept proximity force AF,  125 201210564 The system makes 4 seed bodies 28a, At least one or both of 28b are directed to tin body 28a,  The other of 28b is biased to the biasing position to bring the gap 24c closer. The proximity force AF can be a continuation of the actuation force f. E.g, If the actuation force F is applied to the actuation portion 丨3ia, 131b words. It should be understood that Once the first and second actuating strands 38a and 38b have tension, The first actuating strand 38a applies a compressive force at the first strand 134a to the second actuating strand 38b' and the second actuating strand 38b applies a compressive force at the second strand 134b to the first actuating strand Share 38a. The first compressive force is sufficient to prevent the second actuating strand 38b from retreating away from the first strand 134a in a direction toward the second anchor body 28b, And the second compressive force is sufficient to prevent the first actuating strand 38a from retreating away from the second strand 134b in a direction toward the first anchor body 28a.  Therefore, the first and second kinks 134a, Each of the 134b defines a sliding member 47' that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b to cause the gap 24C Approaching, And further defining the locking member 64 for securing the first and second actuation strands 38a and 38b, for example, the first and second anchor bodies 28a, The relative motion of 28b separation.  Eyes refer to pictures 40A to 40C, Before driving the first and second anchor bodies to the first configuration, The auxiliary strands 33 are insertable to extend through the first and second anchor bodies 28a, Hole 28a of 28b, 90b, As described above in the description of Figure 37A, And can be further spliced through itself. E.g, The auxiliary strands 33 can include a compression member 228, It can define a braided structure, such as a braid, Fabric, Mesh or knitwear, Or 126 201210564 any suitable component constructed in an alternative manner, For example, a non-woven structure defining at least one opening. In the first and second anchor bodies 28a, Attachment position 230a separated by a direction between 28b, 230b, a second or attachment portion 133a of the first and second actuation strands 38a and 38b, 133b can be attached to the compression member 228, For example, the opposite ends 228a of the compression member 228, 228b. therefore, The auxiliary strands 33 can define a common strand for the first and first actuating strands 38a and 38b and also for the compression member 228. According to an embodiment, In any way you want, Attached 133a, 133b can be woven into a compression member 228, Knotted with the compression member 228, Attached to the compression member 228 with an adhesive, Soldered to the compression member 228, Integrated with the weaving section, Or otherwise attached to the compression member 228. At this point, It should be understood that For example, when attaching parts,  When 133b is integrated with the compression member 228, The substantial entirety of the auxiliary strands 33 can be a woven structure. More should understand, The compression member 228 can define a connecting member 63 that is integral with the auxiliary strands 33 or that can be separated and attached to the secondary strands.  Therefore, the 'wrong component 20' can define its own configuration as a twist 134a,  134b's & First - connecting member 63a, 63b, It is defined by the auxiliary strands 33, In particular, the first and second actuation strands 38a and 38b are defined by the compression member 228. In an embodiment, The first actuating portion of the first actuating strand 38a is said to be extendable by the overcompressing member to define the first strand 134a. The first actuation portion ma extends substantially through the compression member 228 in a first direction from the first anchor body 28a toward the second anchor body. therefore, The compression member 228 can extend around the length of the actuation portion (four) U of the first actuation strand. The first-actuating portion 127 201210564 portion 13la can leave the compression member at the first terminal portion 135a 228 °, The second actuation portion 131b of the second actuation strand 38b can extend through the compression member 228 to define a second hinge 134b. Thus, the compression member 228 can surround the length of the actuation portion 131b of the second actuation strand 38b. The second actuating portion 131b extends substantially through the compression member 228 along a second direction from the second pin body 28b toward the first anchor body 28a. therefore, The second direction can be substantially opposite to the first direction. The second actuating portion 131b can exit the compression member 228 at the second terminal portion 135b.  During operation, First and second actuation strands 38a and 38b,  In particular, the first and second actuation ends 13la, 131b, Each can accept the formation of a wrong body 28a, 28b moves from the first configuration to the extended actuation force F. As shown, The actuation forces f are each in the first and second actuation portions 131a, 131b (for example, First and second terminal portions 135a, 135b) can be directly applied to the first and second actuation strands 38a and 38b, Or separately in the knot 134b, An upstream position of 134a can be applied to the first and second actuation strands 38a and 38b.  Next, First and second actuation portions 131a of the first and second actuation strands 38a and 38b, Each of 131b can each receive a first and second actuation portion 131a, The 131b translates through the tensile proximity force AF of the compression member 228 that defines the connector 63, It is along the anchor body 28a, At least one or both of 28b are directed to the anchor body 28a, The other of 28b is biased to the biasing position to bring the gap 24c into the first direction. The proximity force AF can be a continuation of the actuation force F. E.g, If the actuation force F is applied to the actuation portion 131a, 131b words. It should be understood that  128 201210564 Proximity force AF causes tension on the auxiliary strands 33, Thereby causing the compression member 228 to apply a compressive force at the first hinge 134a to the first actuation strand 38a (particularly the 'first actuation portion i31a'), And applied to the second actuation strand 38b at the second hinge 134b, In particular, the second actuating portion 131b. Applied to the first and second actuation strands 38a by the compression member 228, The compressive force of 38b prevents the first and second actuating strands 38& And 38b retreat away from the compression member 228 toward the respective first and second anchor bodies 28b in a second direction opposite the first direction.  therefore, First and second kinks 134a, Each of the 134b defines a sliding member 47' that allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b to cause the gap 24c Approaching, And further defining a locking member 64 for securing the first and second actuation strands 38a and 38b, such as in a second direction substantially opposite the first direction, to cause the first and second anchor bodies 28a, The relative motion of 28b separation.  Please refer to Figures 41A through 41C, The auxiliary strands 33 define first and second actuating strands 38a and 38b. The first actuating strand 38a defines a first end 232a and a second end 234a of the other end, And the second actuating strand 38b defines a first end 232b and a second end 234b of the other end. The auxiliary strands 33 further define a compression member 228, Causing each along the first and second anchor bodies 28a, Attachment position 230a separated by a direction between 28b, 230b, First ends 232a of the first and second actuation strands 38a and 38b, 232b are attached to the compression member 228, For example, to the opposite ends 228a of the compression member 228, 228b.  According to an embodiment, In any way you want, Attachment portion 133a, 133b 129 201210564 : , , The flat woven compression member 228' is knotted with the compression member 228, Soldered to the compression member 228 with adhesion = attached to the compression member 228', Compiling with the weaving, Or otherwise attached to the compression member 228. It will therefore be appreciated that the 'compression member 228 can define a connecting member 63 that is integral with or can be separated and attached to the auxiliary strands.  Each of the first and second actuation strands 38a and 38b can extend through the first and second apertures 9a, 90 both, As described above in the description of the figure, Driving the first and second anchor bodies to the first configuration. E.g, The first actuating strand 38a can be extended by the first end 232a.  Passing through the first eye 90a, Passing through the second hole 9〇b, And the second end 234a can extend through a corresponding opening 236a that extends through the compression member 228. same, The second actuating strand 38b can be second end 232 &  Extending the 'tooth through the first eye 90b' through the first eye 90a, And the second end 234b can extend through a corresponding opening 236b that extends through the compression member 228. The first and second actuating strands 3, such as and 38b, can each define a terminal portion 135a that extends downstream of the compression member 228, 135b.  At each of the openings 236a of the compression member 228, 236b and each defining a terminal portion 135a, Before 135b, At the position closest to the compression member 228 (for example, The second end 234a of the first and second actuation strands 38a and 38b can be further wrapped around each other at the upstream of the compression member. 234b. The first terminal portion 135a of the first actuating strand 38a exits the compression member 228' at the first position and the second terminal portion 135b of the second actuation strand 38b exits the compression member 228' at the second position. Compared to the first position, The second position is relatively close to the first pin 28a. It should be understood that The auxiliary strands 33 can be defined for the first and second 130 201210564 actuating strands 38a and 38b and also for the common strand of the dust-reducing member 228.  Therefore, the 'wrong component 20 can define the configuration as a twist 134a, First and second connecting members 63a of 134b, 63b, It is defined by the auxiliary strands 33', in particular by the first and second actuating strands 38a and 38b and the compression member 228. In an embodiment, The first hinge 13 is defined by the first actuation strand 38a extending through the second end 234a of the compression member 228, for example, at the first aperture 236a. The second hinge 134b is defined by the first coincident strand 38b extending, for example, at the first opening 23 6a through the second end 234b of the compression member 228. therefore, The compression member 228 has a length around the first and second actuation strands 38a and 38b.  During operation, the first and second actuation strands 38a and 38b,  In particular, the first and second ends 135a, 135b, Each can accept the anchor body 28a, Each of 28b is moved from the first configuration to the extended actuation force F. As shown, The actuation forces F are each in the first and second terminal portions 135a, 135b can be directly applied to the first and second actuation strands 38a and 38b, Or each of the knots 134b, The upstream position of 134a can be applied to the first and second actuation strands 38 & And 38b.  Next, the first and second terminal portions 135a of the first and second actuation strands 38a and 38b, Each of the respective acceptable extensional force AF' of 135b is along the anchoring body 28a, At least one or both of 28b are directed to the anchor body 28a, The other of 28b is biased to the biasing position to cause the first direction in which the gap 24c is approaching to cause the first and second actuation strands 38a and 38b to translate through the compression member 228. Proximity force AF can be a continuation of the actuation force F. For example, 'If the actuation force ρ is applied to the terminal portion 131 201210564 copies 135a, 135b words. It should be understood that The proximity force AF causes the auxiliary strands 33 to have tension, Thereby causing the compression member 228 to apply a compressive force to the first actuation strand 38a at the first hinge 134a, And applied to the second actuation strand 38b at the second twist 134b. Applied to the first and second actuation strands 38a by the compression member 228, The compressive force of 38b prevents the first and second actuating strands 38a and 38b from receding away from the compression member 228 toward the first and second anchor bodies 28b, respectively, in a second direction opposite the first direction.  therefore, First and second kinks 134a, Each of the 134b defines a sliding member 47, The sliding member 47 allows one of the first and second actuation strands 38a and 38b to slide relative to the other of the first and second actuation strands 38a and 38b to bring the gap 24c into proximity. And further defining a locking member 64 for securing the first and second actuation strands 38a and 38b, such as in a second direction substantially opposite the first direction, to cause the first and second anchor bodies 28a, The relative motion of 28b separation.  Please refer to pictures 42A to 42C, It should be understood that The anchor assembly can include at least one anchor, For example, the first and second anchors 22a to b, The system includes an aperture 90 of the type described above, And each of them may further comprise a separate body 28a, The end of 28b (for example, Corresponding second end portion 54a, 54b) defined connecting strands 59a, 59b. therefore, Connecting the strands 59a, 59b and the anchor body 28a, 28b integration, And configured to enable the first and second anchors 22a, Each of 22b is attached to the first and second anchors 22a, The other of 22b. E.g, The first connecting strand 59a is extended by the first anchor body 28a and woven through the second eyelet 90b of the second anchor 22b. Therefore, the first connecting strand 59a extends through the second eyelet 90b, And 132 201210564 defining a first portion 120a extending from the first anchor body 28a to the second eyelet 90b, And a second portion Ula extending from the second aperture 90b at a position spaced apart from the first portion 12A. same, The second connecting strand 5卯 projects from the second wrong body 28b and is woven through the first eyelet 90a of the first anchor 22a. therefore, The second connecting strand 59b extends through the first eyelet 90a, And defining a first portion i2〇b' extending from the second anchor body 28b to the first aperture 90a and a second portion 121b extending from the first aperture 90a at a position spaced apart from the first portion i20b.  Once the second connecting strand 59b has been attached to the first eyelet 90a' thereby attaching the first anchor 22a to the second anchor 22b, The first wrong body 28a can be driven along the respective connecting strands 59b, Especially along the first and second parts 12〇b, 121b, Move from the extended configuration to the first configuration. Thus the second connecting strand 59b can define the first coincident strand 38a of the first anchor 22a. The first portion 120b of the second connecting strand 59b can define an attachment portion 133a of the first actuating strand 38a, And the second portion 12lb of the second connecting strand may define an actuating portion 131a of the first actuating strand 38a. therefore, The first actuating strand 38a can define an auxiliary strand 33a associated with the first anchor 28a, And can be integrated with the second anchor body 28b.  Similarly, once the first connecting strand 59a has been attached to the second eyelet 90b, Thereby attaching the first anchor 22a to the second anchor 22b, The second anchor body 28b can be driven along the respective connecting strands 59a, Especially along the first and second portions 120a, 121a, Move from the extended configuration to the first configuration. therefore, The first connecting strand 59a can define a second actuating strand 38b of the second anchor 22b. The first portion 12〇a 133 201210564 of the first connecting strand 59a may define an attachment portion 133b of the second actuating strand 38b, And the second portion 121a of the first connecting strand 59a defines an actuating portion 131b of the second actuating strand 38b. therefore, The second actuating strand 38b can define an auxiliary strand 33b associated with the second wrong body 28b, And it can be integrated with the first anchor body 28a.  The anchor assembly 20 may include at least one connecting member 63' such as a first connecting member that attaches the actuating portion 131a of the first actuating strand 38a to the attachment portion 133a of the first actuating strand 38a. 63a. The anchor assembly 20 can further include a second attachment member 63b that attaches the actuation portion 131b of the second actuation strand 38b to the attachment portion 133b of the second actuation strand 38b. E.g, Connecting member 63a, Each of 63b is configurable to be a hinge 134a defined by the first and second actuation strands 38a and 38b, 134b. In an embodiment, One of the attachment portion 133a of the first movable strand 38a and the actuating portion 131a can be woven or otherwise spliced through the other. same, One of the attachment portion 133b and the actuation portion 131b of the second actuation strand 38b can be woven or otherwise spliced through the other. According to the illustrated embodiment, For example, along the direction from the first anchor body 28a toward the second anchor body 28b, The actuating portion 131a of the first actuating strand 38 8a can be woven or otherwise spliced through the attachment portion 133a of the first actuating strand 38a, And, for example, in a direction from the second anchor body 28b toward the first anchor body 28a, The actuating portion 131b of the second actuating strand 38b can be woven or otherwise spliced through the attachment portion 133b of the second actuating strand 38b.  The actuating portion 131a of the first actuating strand 38a can thus extend through the attachment portion 133a of the first actuating strand 38a to define a first strand 134 201210564 knot 134a, Having the attachment portion 133a surrounding the actuation portion 131 & There is a length. same, The actuating portion 131b of the second actuating strand 38b can thus extend through the attachment portion 133b of the second actuating strand 38b to facilitate the twisting of the knot 134b, The attachment portion 133b is caused to have a length around the actuation portion 131b. First and second actuation portions 131a,  131b is defined in the kinks 134a, respectively. Terminal portion 135a extending downstream of 134b, 135b.  During operation, First and second actuation strands 38a and 38b,  In particular, the first and second actuation ends 131a, 131b, Each can accept the pin body 28a, 28b is actuated from the first configuration to the actuation force F of the extended configuration. As shown in the figure, the actuation force f is in the first and second actuation portions 131a, respectively. 131b (for example, First and second terminal portions 135a, 135b) can be directly applied to the first and second actuation strands 38a and 38b, Or at the knot 134b, An upstream position of 134a can be applied to the first and second actuation strands 38a and 38b.  Next, First and second actuation portions 131a of the first and second actuation strands 38a and 38b, Each of 131b can accept an anchor 28a, At least one or both of 28b are directed to the anchor body 28a, Another proximity force in biasing to the biasing position in 28b to approximate the gap 24c AF 〇 proximity force AF may be a continuation of the actuation force F, E.g, If the actuation force F is applied to the actuation portion 131a, 131b words. It should be understood that The proximity force AF is applied to the first and second actuation portions 131a, 131b causes tension between the first and second actuating strands 38a and 38b, The first attachment portion 133a is caused to apply a first compressive force to the first movable portion 131a at the first hinge 134a, And the second attachment portion 133b applies a second compressive force to the first attachment portion 131b at the second twist 135 201210564 junction 134b. The first compressive force is sufficient to prevent the first actuating portion 131a from retreating away from the first striking 134a in a direction toward the respective first anchor body 28a, And the second compressive force is sufficient to prevent the second actuating portion 131b from retreating away from the second striking 134b in a direction toward the second anchor body 28b.  therefore, The first hinge 134a can define a sliding member 47, Passing the first portion of the first actuating strand 38a relative to the second portion of the first actuating strand 38a to actuate the respective anchor 28a from the first configuration to the extended configuration, And also close the gap 24c,  And further defining the locking member 64 for securing the first and second portions of the actuation strand 38a, for example, the first and second anchor bodies 28a, 28b Relative motion of separation. same, The second hinge 134b can define a sliding member 47, It allows the first portion of the second actuating strand 38b to slide relative to the first portion of the second actuating strand 38b to actuate the respective anchor 28b from the first configuration to the expanded configuration. And also close the gap 24c, And further defining the locking member 64 for securing the first and second portions of the second actuation strand 38b, for example, the first and second anchors 28a, The relative motion of 28b separation.  Please refer to pictures 43A to 43B, The anchor assembly 20 can include a first anchor 22a having an eyelet 90a, As described above in the description of Figs. 37A to 37D, And the second anchor 22b can include an anchor body 28b that integrates the actuating strands 28b, As described above in the description of Figs. 36A to 36B. therefore, As above, One of the actuation strands 38a and 38b can each be associated with the anchor body 28a, 28b integration, And actuating the strands 38a,  The other of 38b can be connected to the anchor body 28a, 28b separates and weaves through each of the 136 201210564 from the anchor body 28a, 28b to attach the actuation strand to the anchor. According to the illustrated embodiment, The integrated actuating strand 38b of the second anchor 22b defines the auxiliary actuating strand 38a of the first anchor 22a. therefore, As described above in the description of Figs. 7A to 7B, The first portion 41 of the second anchor 22b can define a respective actuation portion 131b and attachment portion 133b.  The attachment portion 133b of the second actuation strand 38b can be integrated with the attachment portion 133a of the first actuation strand 38a. In the manner described above when describing Figures 9A through 9C, The first movable strand 38a can be woven through the anchor body, The first actuating strand 38a can be defined as a path through which the eyelet 90a can travel when the anchor 28a is moved from the first configuration to the extended configuration. In addition, The first or actuating portion 131a and the second or attachment portion 133a are extended by the first anchor body 28a and spaced apart from each other in the manner described above.  The anchor assembly 20 can include another location for attaching the first actuation portion 131a to the auxiliary strand 33a (e.g., First and second attachment portions 133a,  The connection member of either or both of 133b is magical. According to the illustrated embodiment, The connecting member 63 attaches the first actuation portion 131a to the second attachment 133b. According to any of the specific embodiments described herein, The connecting member 63' can be adapted to attach the first actuating portion 13la directly or indirectly to the other target position of the auxiliary strand 33a, For example, the first and second attachment portions 133a, 13 at least one or both of them.  According to the illustrated embodiment, The connecting member 63 is configured to be defined by the first 133 bl portion 13U and the lion strand 33a (which may be the second attachment portion mi ‘position defined knot 66, As above. The first-actuator ^ Ula defines a post end 68 of the knot 66, Making the terminal portion a knot 66 extend, And the second actuating strand 381) defines the 137 201210564 free end 70 of the knot 66. E.g, The second actuating strand 38b is disposed in the knot 66,  The portion between the anchors 28b defines a static portion 70a of the free end 70, The second actuating strand 38b is disposed in the knot 66, The portion between the first anchors 28a may define a free portion 70b of the free end 70.  During operation, The knot 66 can be in an unlocked configuration such that the strut end 68, Or the first actuating portion 131a' relative to the free end 70 or the second actuating strand 38b, It can slide through the knot 66. therefore, The actuation force ρ can be applied to the first actuation portion 131 a ', in particular to the first terminal portion 135a, This creates tension in the first and second actuation strands 38a and 38b, Thereby driving the first and second anchors 22a, Each of 22b moves from the first configuration to the extended configuration. The proximity force AF is applied to the first actuation portion 131a, Especially applied to the first terminal portion 135a, Further generating tension in the first and second actuation strands 38a and 38b, Thereby the first and second anchors 22a, 22b biases the opponent and brings the gap 24c closer. therefore, The proximity force AF can be a continuation of the actuation force F.  Although the connecting member 63 is illustrated as a knot 66 in Figs. 43A to 43B, It should be understood that According to any suitable embodiment or any suitable alternative embodiment described herein, The connecting member 63 can be configured. E.g, As shown in Figures 43C through 43D, The connecting member 63 can be configured as a hinge 134 defined by the first and second actuating strands 38a and 38b.  According to the illustrated embodiment, The first actuating strand 38a is hinged through the second actuating strand 38b to define the strand 134.  In particular, the first actuating portion 131a is hinged through the second actuating strand 38b extending from the second anchor body 28b. So’ as mentioned above, The second actuating strand 38b has a length that can surround the first actuating strand 38a - length 138 201210564 degrees. Alternatively, the first actuation strand 38a can be woven through the first actuation strand 38b to define the hinge 134 as desired.  During operation, The first consistent moving strand 38a, In particular, the terminal portion 135a of the actuating portion 131a, Acceptable to cause the anchor 28a to move from the first configuration to the extended configuration of the actuation force F, And also creating tension in the first and second actuation strands 38a-b. The tension generated by the first actuating strand 38a from the second actuating strand 38b applies an actuation force F to the second actuating strand 38b, Thereby the respective second anchor body 28b is moved from the first configuration to the extended configuration. Next, the first terminal portion 135a can accept the proximity force AF, It is conveyed along the first actuating strand 38a to the second actuating strand 38b and the anchor body 28a, At least one or both of 28b are directed to the anchor body 28a, The other of 28b is biased to a biasing position to bring the gap 24c close. The proximity force AF may be a continuation of the actuation force F 'e.g.' if the actuation force F is applied to the terminal portion 135a.  It should be understood that once the first and second actuating strands 38a and 38b have tension,  The first actuating strand 38b applies a compressive force to the first actuation at the hinge 134, , The strand 38a' is sufficient to prevent the first actuating strand 3 from retreating away from the second stranded knot 34b in a direction toward the first anchor body 28a.  λ ‘, , , people, , , The mouth ί34 definition allows the first double-strength scraping:  The /monthly member 47' that is translated relative to the second actuation strand 38b to bring the gap 24e into contact, and the step-by-step definition locking member 64 for securing the first and second actuation strands And the second anchor body 28a, The relative motion of 28b separation.  Although the money-connecting member 63 is described as being detached from the strands 38b to J- or both, the actuating strands and the 139 201210564 38b are directly attached to each other, It should be understood that The anchor assembly 2, alternatively or additionally, may comprise a connection member configured to be the auxiliary connecting member 77,  Attached to the first and second actuating strands 38a and 38b, so that the first and second anchors 22, 221? Attached to each other. The auxiliary connecting member 77 may alternatively or additionally attach at least one of the first and second actuating strands 38a and 38b to the connecting strand, It may also define an auxiliary connecting member 77' or may attach portions of the connecting strand to itself to attach the first actuating strand 38a to the second actuating strand 38b', for example, at actuation The strands 38a and 3讣 define the apertures and when the connecting strands extend through the apertures. The auxiliary connecting member 77 may be made of metal,  plastic, Suture, Or made of any suitable alternative material.  Although the above has been based on crossing one of the defects to the attachment anchor 22a,  22b illustrates a specific embodiment to describe the anchor assembly 2〇, However, it should be understood that The anchor assembly 20 can contain as many anchors as desired. They can be attached to each other in any way and configuration. E.g, Please refer to page 44, The anchor assembly 20 can include a plurality of pairs of first and second anchors 22 attached to two sides of a gap 24c (which can be the same or different anatomical defects),  2 2 b. The first and second anchors 22a of each pair of anchors may be attached according to any of the embodiments described herein or any suitable alternative embodiment, 22b. Alternatively, Please refer to Figure 44B, Multiple pairs of the second and second anchors 22a may be implanted across the gap 24c, 22b is at the target anatomy 24, And the anchor assembly 2 can include a switch 22 that can be configured to be in a common hub (c〇mm〇n hub) Each of the attachment members 63 attached to each other 22b. The connecting member 63 can be configured as any suitable connecting member of the type described herein or any suitable alternative connecting member. E.g, Can make the wrong 22a,  140 201210564 22b attachment part and anchor 22a, At least one of the connecting strands of 22b is attached to all.  Figure 45A of the multi-test in May, The fixation kit 25A can include at least one record 22 and an inserter 2 configured to inject the anchor 22 into the anatomy 24 as shown in Figures 1A through Figure. It should be understood that Fixing kit 250 can be separate, Attached to each other, Or at least one or more, in accordance with any of the embodiments described herein, configured to be attachable to each other,  To all the errors described in this article 22. The inserter 252 can include a cannula [a) 254 having a central opening 256 and a plunger or pusher 258 axially insertable into the central opening 256. The sleeve 254 has a tapered tip 260 and a slot 268 that projects axially from the tip 260.  Further, the insertion benefit 252 includes a grip 262 that operates the lever 264. The grip 262 #-end is detachably attached to the sleeve f 254, And the face lever 2M is detachably attached to the plunger (10). The outer diameter of the plunger 258 corresponds to the central opening 256 _ diameter of the sleeve 254. The end of the central opening of the sleeve 254 is configured in a conical configuration such that it expands at the end of the inlet to the sleeve 254. therefore, The wrong body 28 of the anchor 22 can be inserted through the tapered inlet 266 and into the central opening 256 of the sleeve 254 in the first configuration. Thereby the anchor body can be compressed.  The field causes the anchor body 28 to be forced out of the casing by pressing the plunger 258. The ship 28 can expand radially. For example, in the second direction 35 (see FIGS. 1A through 1B), the tension applied to the actuation strand 38 can be secured by the front face of the sleeve 254 to tighten the anchor body 28. The actuation strand 38 is inserted into the slot 268 such that it can be introduced along the sleeve 254 when the sleeve f 254 is inserted into the anatomy 24. When the wrong body 28 of the pin 22 has actuated 141 201210564 to the extended configuration and is fixed to the anatomy 24, A needle 270 attached to the free end of the actuation strand 38 can be used to complete a surgical procedure.  Eyes refer to Figure 45B, The outer diameter or alternative cross-sectional dimension of the plunger 258 can be less than the inner diameter or cross-sectional dimension of the central opening 256 of the sleeve 254. therefore, When the plunger 258 is inserted into the central opening 256 of the sleeve 254, The actuation strand 38 of the anchor 22 can be introduced into the central opening 256 of the sleeve 254. By actuating the operating lever 264 on the grip 262, The plunger 258 can be pushed away from the sleeve 254 toward the pin body 28 by the central opening 256 at the tip end 260 of the sleeve 254. Once the anchor 28 is in the central opening 256, The actuating strands 38 can be pulled back at the end of the sleeve 254 to thereby drive the anchor body 28 to the expanded configuration in the cavity 256.  凊 Refer to Figures 46A through 46D, The plunger 258 can define a central bore 272 into which the actuating strands 38 of the anchor 22 can be introduced. In addition, The sleeve 254 has a first longitudinal aperture 274 extending between the tip end 260 and the trailing end of the sleeve 254 thereby inserting the sleeve 254 of the entire length. A second longitudinal aperture 276 extends over the plunger 258 between the forward and trailing ends of the plunger 258 thereby also inserting the plunger 258 of the entire length. As shown in Figure 46B, When the sleeve 254 is in the first rotational position relative to the plunger 258, The first longitudinal aperture 274 of the sleeve 254 is diametrically opposed to the second longitudinal aperture 276 of the plunger 258. In the first rotational position of the sleeve 254, The actuation strands 38 of the anchor 22 are secured by a central aperture 272. Once the actuating strands 28 of the anchor 22 are secured to the cavity of the patient's body by actuating the strands 38 of the anchor 22, The sleeve 254 can be rotated to a second rotational position relative to the plunger 258 (Fig. 46D). In this second rotational position of the sleeve 254, The first longitudinal aperture 274 of the sleeve 254 is aligned with the second longitudinal aperture 276 of the plunger 258 142 201210564, And the inserter 252 can be released by the actuation strand 38 of the anchor 22.  Figures 47A through 47D illustrate the grip 262 of the embodiment of the inserter 252 attached to the sleeve 262 and the sleeve 254 to Figs. 45A through 46D. The upper end portion of the grip 262 includes a groove 278 into which the sleeve 254 can be inserted and a spring member (for example, Leaf spring 279) provides a releasable snap lock that is configured to releasably attach sleeve 254 to grip 262. The rear end of the plunger 258 can be snapped into a resilient fork 28 配置 disposed at the upper end of the operating lever 264.  Please refer to Figure 48, The inserter 52 can include a depth control tube 282 and a clamping element 284 that slide over the sleeve 254. The inserter 52 can be prepared prior to surgery by inserting the error 22 into the cannula 254 and inserting the plunger 258. Once the anchor 22 and the plunger 258 are inserted, Either of the plurality of clamping elements 284 is attached to the trailing end of the inserter 252 by snapping a first tab 286 on the rear of the sleeve 254. In order to prevent the plunger 258 from being inadvertently displaced relative to the sleeve 254, Clamping member 284 includes a second tab 288 that abuts the trailing end of sleeve 254 and a third tab 290 that abuts the enlarged portion of the end of plunger 258. Prior to use of the inserter 252, the gripping element 284 is unloaded by the sleeve 254 and the grip 262 is attached to the sleeve 254' and the inserter 252 can be operated in the manner described herein.  An example of a specific embodiment relating to the illustrated embodiment has been presented, However, the invention is not intended to be limited to the specific embodiments disclosed. Further, the structures and features of the above-described embodiments may be applied to other specific embodiments described herein unless otherwise stated. therefore,  143 201210564 Those skilled in the art will recognize that the present invention is intended to cover all modifications and alternative arrangements falling within the spirit of the invention. For example, it is stated in the scope of the attached patent application.  BRIEF DESCRIPTION OF THE DRAWINGS The above summary and the following detailed description of exemplary embodiments of the present application can be more clearly understood. The exemplary embodiments illustrated in the drawings are for illustration purposes only. but, It should be understood that The application is not limited to the exact configuration and tools illustrated.  BRIEF DESCRIPTION OF THE DRAWINGS Figure 1A is a schematic side elevational view of an I seedling assembly comprising an anatomical defect implanted in one of the first configurations;  Figure 1B is a schematic side view of the wrong component of the »1 diagram, It is a schematic side view showing the sorrow of the extended group and the approaching position. FIG. 1C is a schematic side view of the 1A pin assembly fixed to the auxiliary structure according to an embodiment;  The forbearing side view of FIG. 1D illustrates a erroneous assembly as shown in FIG. 1C fixed to the auxiliary structure according to another embodiment;  Figure 2A is a perspective view of the construction according to an embodiment;  Figure 2B is a perspective view of an anchor constructed in accordance with another embodiment;  2C is a perspective view of an anchor constructed in accordance with another embodiment;  Figure 2D is a perspective view of an anchor constructed in accordance with another embodiment;  Figure 2E is a perspective view of an anchor constructed in accordance with another embodiment;  Figure 2F is a perspective view of an anchor constructed in accordance with another embodiment;  Figure 2G is a perspective view of an anchor constructed in accordance with another embodiment;  144 201210564 Figure 2H is a perspective view of an anchor constructed in accordance with another embodiment;  3A to 3C are diagrams showing a method for making an anchor body of an anchor;  4A through 4F illustrate method steps for making a slip joint of 4 seedlings shown in Fig. 2G, according to an embodiment;  5A-5B illustrate method steps for fabricating an aperture of an anchor shown in FIG. 2H, according to an embodiment;  Figure 5C illustrates method steps for fabricating an aperture of an anchor shown in Figure 2H in accordance with an alternate embodiment;  Figure 5D illustrates method steps for making an aperture of an anchor shown in Figure 2H in accordance with an alternate embodiment;  Figure 6A is a perspective view of an anchor constructed in accordance with another embodiment,  The anchor is in the first configuration in the figure;  Figure 6B is a perspective view showing the error in Figure 6A, The anchor is in the extended configuration in the figure;  The perspective views of Figures 6C through 6E illustrate method steps for making the error illustrated in Figure 6A;  The perspective view of Figure 7A contains the anchor of the actuating strand, The actuating strands are woven through a plurality of openings defined by the expandable portion of the anchor body to integrate with the anchor body. The anchor system is in the first configuration;  Brother 7B is a perspective view of the fault of the figure 7A. The wrong system is in an extended configuration;  Figure 7C is a perspective view showing the actuating strand inserted through the opening when the anchor body is in the first configuration as shown in Figure 7A;  The perspective view of Fig. 8A illustrates the error of including the 145 201210564 moving strand according to an alternative embodiment. The actuating strand is woven through a plurality of openings defined by the expandable portion of the pin body for integration with the anchor body. The pin system is in the first configuration;  Figure 8B is a perspective view showing the error in Figure 8A. The tin system is in an extended configuration;  The perspective view of Fig. 9A illustrates an anchor comprising a seedling and an eyelet extending from the anchor body. And an actuating strand attached to the eyelet and woven through the expandable portion of the anchor body' the expandable portion is in the first configuration;  Figure 9B is a perspective view of the pin illustrated in Figure 9A, The diagram shows the expandable part from the first configuration movement to the extended configuration;  Figure 9C is a perspective view of the pin illustrated in Figure 9A, The expandable part is in an extended configuration;  10A through 10G illustrate method steps for fabricating the aperture of Fig. 9A, according to an embodiment;  11A through 11H illustrate method steps for fabricating the expandable portion of FIG. 9A in accordance with an embodiment;  12A to 12B are diagrams showing the steps of removably attaching the actuating strand to the body shown in Fig. 9A;  The side view of Figure 13A illustrates, according to an alternate embodiment, an anchor comprising an anchor and an actuating member woven through the anchor. The anchor system is in the first configuration;  Figure 13B is a cross-sectional side view showing the anchor of Figure 13A;  Figure 13C is a side view of the anchor illustrated in Figure 13A, The anchor system is in an extended configuration;  Figure 14A is a side view of a two-stage anchor constructed in accordance with an embodiment;  Figure 14B is a side view of a two-stage anchor strand comprising a pair of separate lines in accordance with another embodiment;  Figure 15A is a perspective view showing an anchor in the form of a mesh and an anchor of the actuating strand integrated with the mesh. The anchor system is in the first configuration;  Figure 15B is a perspective view of the anchor illustrated in Figure 15A, The anchor system is in the first configuration;  The perspective view of Fig. 15C includes an anchor body defining a plurality of cutting openings and an anchor of the actuating strands of the entire anchor body, The anchor system is in a first configuration;  Figure 15D is a perspective view of an anchor comprising a braided anchor and an actuating strand integrated with the braided anchor;  Figure 16A is a perspective view showing an anchor body having an expandable portion in the form of a mesh and an anchor extending from the expandable portion; The expandable part is in the first configuration;  Figure 16B is a perspective view of the anchor illustrated in Figure 16A, The system includes an actuation strand coupled to the expandable portion, The expandable part is in the first configuration;  The perspective view of Fig. 16C includes an anchor body having an expandable portion defining a plurality of cut openings and a hole extending from the expandable portion.  The perspective view of Figure 17A illustrates an anchor comprising a plurality of anchor members slidably coupled to a common strand, The anchor is in the first configuration in the figure;  Figure 17B is a perspective view of the anchor illustrated in Figure 17A, The anchor 147 201210564 is in an extended configuration;  a side view of the first anchor assembly . And the heart and the first and the 18B pictures implanted in the anatomical structure are the side views of the components recorded in the first (four) Yudi 18A diagram, 5 Xuan special - and the second Caizi are in the extended configuration; 1 ^ 2f is a side view of the erroneous assembly shown in Fig. 18B's octagonal package--to the second material connection member; the figure is a side view of the contact as shown in Fig. 18, embodiment 'The system includes an auxiliary connecting strand attached between the first and second tin bodies; the perspective view of Fig. 19A is configured to be a connecting member of the figure; the system includes the first and second brocade a side view of the wrong assembly of the second anchor connected to the 19B, the anchor and the second joint member according to another embodiment; the side view of the anchor assembly of the 19C, including the first and second pins and Further, the embodiment constitutes a connecting member that attaches the first to the second pin; FIG. 19D is a side view of the pin assembly constructed according to another embodiment, which includes each of the first configuration and the implanted anatomical structure The first and second pins; Figure 19E is a side view of the anchor assembly illustrated in Figure 19D, The first and second anchors of the extended configuration; FIG. 19F is a partially enlarged side view of the anchor assembly shown in FIG. 19E, including the first and second connecting members; 148 201210564 19G is 19F FIG. 19H is an enlarged cross-sectional side view of the second connecting member of FIG. 19F; FIG. 20A is a side view of the anchor assembly constructed according to another embodiment; FIG. 20B A side view of an anchor assembly constructed in accordance with another embodiment, FIG. 20C is a side view of a pin assembly constructed in accordance with another embodiment, and FIG. 21A is a side view of a seedling assembly constructed in accordance with another embodiment The first and second errors are respectively included in the first configuration and implanted in the anatomical structure; FIG. 21B is a side view of the seedlings in FIG. 21A, the first and second anchors are respectively In an expanded configuration; FIG. 21C is a side view similar to the anchor assembly of FIG. 22B, but including a connecting member constructed in accordance with an alternative embodiment; FIG. 22A is a perspective view of the connecting member constructed in accordance with an embodiment; Figure 22B is a side view of the anchor assembly The first and second pins are each included in a first configuration and implanted in an anatomical structure and attached via a connecting member of FIG. 22A; FIG. 22C is a side view of the pin assembly illustrated in FIG. 22B, The first and second anchors are each in an expanded configuration; the 2nd 2D is a perspective view of the connecting member constructed according to another embodiment 149 201210564 View - 'these include the first structure that is attached to the connecting member and via FIG. 22D is a side view showing the first and the second self-receiving members in the first embodiment, and the part == according to another alternative embodiment, the tin component is included in the second figure. a side view of the anchor assembly, each of which is in an expanded configuration and a first side view of the anchor assembly shown in Fig. 23B, which is embedded in the anatomical structure, the first and the first of each of the Hai 4 are in an extended configuration; ::: The cross-sectional end view shows the anchor map as shown in Fig. 23c, and the second and second pins of the side view of the paving assembly of another embodiment are in the first configuration and implanted in the anatomical structure. The second is a side view of the 1 seedling assembly shown in Figure 2, ^ 2 1 In the extended configuration; = = another embodiment constitutes the wrong component of the side view 22: the respective ones are in the first configuration and implanted in the anatomical structure J and the second 4 seedlings; In the side view of the anchor assembly of Figure 25A, the person and the second error are each in an extended configuration; 150 201210564 Figure 26A is a side view of the wrong component constructed according to another embodiment, each of which is in a first configuration And first and second anchors implanted in the anatomical structure; Figure 26B is a side view of the I seedling assembly illustrated in Figure 26A, the first and second anchors each in an expanded configuration; 2 7 A Figure 2 is a side elevational view of an anchor assembly constructed in accordance with another embodiment, including first and second anchors each in a first configuration and implanted in an anatomical structure; Figure 27B is an illustration of the anchor illustrated in Figure 27A Side view of the assembly, the first and second anchors are each in an expanded configuration; Figure 28A is a side view of the anchor assembly constructed in accordance with another embodiment, each comprising a first configuration and an implanted anatomy First and second anchors of the structure; Figure 28B is a diagram of Figure 28A Side view of the assembly, the first and second anchors are each in an expanded configuration; Figure 28C is a side view of the anchor assembly illustrated in Figure 28B, the first and second anchor systems are in a near configuration; Figure 28D is a side view similar to the anchor assembly of Figure 28C, but showing an eyelet extending from the anatomical structure; Figure 29A is a side view of the anchor assembly constructed in accordance with another embodiment, including The first configuration and the first and second anchors implanted in the anatomy; FIG. 29B is a side view of the anchor assembly illustrated in FIG. 29A, each of the first and second anchors being in an expanded configuration; Figure 29C is a perspective view of a connecting member of the anchor assembly of Figure 29B 151 201210564; Figure 29D is a perspective view of another connecting member of the anchor assembly of Figure 29B, and Figure 30A is an anchor constructed in accordance with another embodiment A side view of the assembly, including first and second anchors each in a first configuration and implanted in an anatomical structure; Figure 30B is a side view of the anchor assembly illustrated in Figure 30A, the first The second anchors are each in an extended configuration; Figure 30C is a diagram shown in Figure 30B Side view of the assembly, the first and second anchor systems are in an approximate configuration; Figure 30D is an enlarged portion of the anchor assembly of Figure 30A; and Figure 31A is a side view of the anchor assembly constructed in accordance with another embodiment , the first and second anchors each being in a first configuration and implanted in an anatomical structure; FIG. 31B is a side view of the anchor assembly illustrated in FIG. 31A, the first and second anchors respectively In an extended configuration; Figure 31C is a side view of the anchor assembly illustrated in Figure 31B, the first and second anchor systems are in a near configuration; Figure 3 2 A is an anchor constructed in accordance with another embodiment A side view of the assembly, including first and second anchors each in a first configuration and implanted in an anatomical structure; Figure 32B is a side view of the anchor assembly illustrated in Figure 32A, the first The second anchors are each in an extended configuration; Figure 32C is a side view of the anchor assembly illustrated in Figure 32B, the first and second anchor systems are in a near configuration; 152 201210564 Figure 33A is in accordance with another implementation The side view of the pin assembly of the example consists of the first configuration and the plant The first and second anchors of the anatomical structure; Figure 33B is a side view of the wrong component illustrated in Figure 33A, the first and second anchors are each in an extended configuration; the figure is shown in Figure 33B The side view of the assembly, the shoulder and the first anchor are in a close configuration; the 3 4 A is a side view of the pin assembly constructed according to another embodiment, which includes the respective configurations in the extended configuration and implanted in First and second anchors of the anatomical structure; - Figure 34B is a side view of the pin assembly illustrated in the 34th AS, the first and second anchor systems are in a near configuration; the third drawing is in accordance with another implementation A side view of the component of the recording component, including the m-th inspection piece that is in an extended configuration and implanted in the target anatomy, is in a state close to the rainbow; ° FIG. 35B is a side view showing the movement of the anchor assembly To the anchor assembly of Figure 35A prior to configuration; Figure 35C is a side view of a faulty assembly similar to the pin assembly as shown in Figure 35B, but including the construction of the joint member according to an alternative embodiment; Side of the pin assembly similar to the pin assembly shown in Figure 35A Figure, but including a splicing member according to an alternative embodiment; Figure 3A6 is a side view of a erroneous assembly constructed according to another embodiment, which includes each being in a first configuration and implanted in an anatomical structure 153 201210564 The first and second anchors; Fig. 36B is a side view showing the wrong component in Fig. 36A, the first and second financials are in an extended configuration; and Fig. 37A is a further alternative embodiment The side view of the constructed tin assembly includes the first and second tins respectively in the first configuration; the 37B is a side view of the wrong component illustrated in Fig. 37A, shai, etc. - and the second brocade Each of them is in the first configuration; the side view of the 3rd C chart illustrates the 3rd 7B error component implanted in the target anatomy; the 37D is a side view of the component illustrated in Fig. 37A, The first and second brocades are each in an expanded configuration; the side view of Fig. 37E illustrates an eyelet and a plurality of actuating strands extending through the aperture; and Fig. 38A is constructed in accordance with another embodiment Side view of the pin assembly, each of the first and second brocades in a first configuration; The side view illustrates the 3rd 8th tin assembly implanted in the target anatomy; the 38C is a side view of the wrong assembly illustrated in Fig. 38B, the first and second | Figure 39A is a side view of a faulty assembly constructed in accordance with another embodiment, including first and second anchors; Figure 39B is a side view of the wrong assembly of the 39A gj, the first anchorage Attached to the second pin; Figure 39C is a side view of the assembly shown in Figure 39B, the first and second anchors each in a first configuration and implanted in a target 154 201210564 anatomy; The figure is a side view of the pin member illustrated in Figure 39C, each of the first and second anchors being in an expanded configuration; FIG. 40A is a side view of the wrong component constructed in accordance with another embodiment, including First and second | seedlings; / Figure 40B illustrates a side view of the wrong component of Figure 40A, which is implanted in the target anatomy and the first and second anchors are each in a first configuration; 40C is a side view of the name of the seedling assembly in the second drawing, which is in close proximity to the configuration; Figure 41A is based on another A side view of a pin assembly constructed in one embodiment includes first and second pins; and FIG. 41B is a side view of the wrong assembly of FIG. 41A, which is implanted in a target anatomy and the like - And the second pins are each in a first configuration; FIG. 41C illustrates a side view of the wrong assembly in FIG. 41B, the first and second anchors are each in an expanded configuration; and FIG. 42A is in accordance with another embodiment a side view of the formed contact comprising the first and second anchors; / Figure 42B is a side view of the wrong assembly illustrated in Figure 42A, implanted in the target anatomy and the first and the The second errors are each in the first configuration; a 42f shows a side view of the wrong component in Figure 42B, the first and second anchors are each in an extended configuration; the second figure is constructed in accordance with another embodiment A side view of the wrong component 155 201210564, which includes first and second anchors implanted in the target anatomy, and the first and second anchors are each in a first configuration; Figure 43B is an illustration of a side view of the assembly of the face of Figure 43A, the first and the first are each in an extended configuration; Figure 4 3 C is a side view of a faulty assembly constructed in accordance with another embodiment, including first and second anchors implanted in the target anatomy, and the first and second anchors each in a first group Figure 43D is a side view showing the wrong assembly of Figure 43C, each of the first and second anchors being in an expanded configuration; Figure 4 4A is a schematic illustration of a tin assembly constructed in accordance with an alternate embodiment The top view 'is an anchor that is attached to each other including a anatomical defect; the top view is a schematic top view of a faulty assembly constructed in accordance with an alternative embodiment, comprising a plurality of anchors attached to each other at a common hub across the anatomical defect; Figure 45A is a side view of the fixation kit, including at least one of the seedling and insertion instrument; the 45B ffi is a cross-sectional side view of the fixing kit of the 45A1J; According to an alternative embodiment, the fixing set is in a first rotational state; the 46B is a cross-sectional side view of the kit of Fig. 46A taken along line 46b_46b 1; and Fig. 46C is a cross-sectional side view of the fixing set of Fig. 46A , Is a second rotational state in which the pair of apertures are aligned; Figure 46D is a cross-sectional side view of the fixation kit of Figure 46C taken along line 156 201210564 46D-46D; Figure 47A is an illustration of the inserter during assembly Sectional view of section 47B is a cross-sectional side view of the inserted inserter of Fig. 47A, Fig. 47C is a cross-sectional side view of the grip of the inserter of Fig. 47B, and Fig. 47D is a view of the grip of Fig. 47C A perspective view; and Fig. 48 is a side view of a fixing kit constructed in accordance with another embodiment. [Main component symbol description] 1 10. . . Wrong component 29. . . Central axis 2 0... tin assembly 30. . . First end or near end 22. . . Scalable anchor 31. . . Coil 22a, b. . . First anchor, second 32. . . Second end or distal end tin 32a, b. . . Actuating the strands 23... opening 33. . . Auxiliary strands 24...anatomical structure 33a. . . First auxiliary strand 24a, b. . . First and second heads 3 4...long direction anatomical position 35. . . Second direction 24c. . . Clearance 36. . . Scalable part 25. . . Auxiliary structure 36a, b. . . The first and second can be 27. . . Anatomical structure Extended part 28. . . Anchor body 37. . . Actuating member 28a, b. . . First and second anchor bodies 37a, b. . . First and second actuation members 157 201210564 38. .  . Actuate the strands 38a. . . The first consistent moving strand 38b. . . Second actuating strand 39a. . . First end or near end 39b. . . Second end or distal end 40. .  . Opening 40a. . . The nearest end opening 40b. . . The most distal opening 40c. . . Intermediate opening 41, 41a. . . The first part 42. .  . Substrate 43. .  . The second part 44. .  . Anchor rope strand 45a. . . First or proximal selection opening 45b. . . Second or distal selection opening 46. .  . First stop knot 47. .  . Sliding member 48. .  . Pillar end 49... opening 50. .  . Free end 52... first end 53. .  . Coil 54...second end 54a, b. . . Second end 5 5. . . Wrong line 56. .  . Coil 56a. . . First proximal coil 56b. . . Second distal coil 56c. . . Third distal coil 57. .  . Near-end coil 5 8. . . Compilation 59. .  . Connecting strands 59a, b. . . First and second connecting strands 60. .  . Second stop knot 61. .  . Barbed 63. .  . Connecting member 63a, b. . . Connecting member 63c, d. . . Third and fourth connecting members 63e. . . Fifth connecting member 63f. . . The sixth connecting member 64. .  . Locking member 65... front end 66. .  . Junction 66a, 66b. . . 66c, 66d, 66f. . . Conclusion 67. .  . Tail end 158 201210564 68. .  . Pillar end 69. .  . Barbed 70. .  . Free end 70a. . . Static part 70b. . . Free part 71. .  . Sliding coil 71A. . . First sliding coil 71B. . . Second sliding coil 71C...third sliding coil 71D. . . Fourth sliding coil 72. .  . Eyelet 73, 73a. . . Clearance 74. .  . Folding part 75. .  . Suture 76. .  . Stem handle 77. .  . Auxiliary connecting member 78. .  . End 79...turned strands 79a, b. . . First and second opposite ends 8 0. . . Eyelet knot 81. .  . Coil 82. .  . Attachment member 82a, b. . . First and second ends 83. .  . Continuous coil 84a. . . First hole 84b. . . Second aperture 85... body portion 86. .  . Weight stack 87a, b. . . Opening 90. .  . Eyelet 91. .  . Coil 92a, b. . . First and second paragraphs 92c. . . Free end 93. .  . First stitching 94. .  . Needle 95...Second suture 9 6. . . Coil 97. .  . Knot 99...coil 99a. . . First coil 99b. . . Second coil 99c. . . Third coil 99d. . . Fourth coil 100. .  . Free end 101a... first paragraph 101b. . . Second paragraph 102a. . . Part 1 102b. . . The second part 159 201210564 103a. . . The first paragraph 103b. . . The second paragraph 104... line 105a. . . The first paragraph 105b. . . Second paragraph 107a. . . First paragraph 107b. . . Second paragraph 108. .  . Connection 109. .  . Anchor fiber 110. .  . Central axis 111. .  . Mesh 112. .  . Holes 111, 113... closed position 114. .  . Anchor member 115. .  . Fixed position 117. .  . Hole 118..., coil 119. .  . Leaving position 120... cluster 120. .  . The first part 120a, b. . . The first part 121. .  . The second part 121a, b. . . The second part 121b. . . The third part 123. .  . Middle part 125. .  . Connection point 125a, b. . . Connection points 131, 131a, b. . . Actuation section 132. .  . Kinking 133. .  . Attachment part 133a, b. . . Second or attached portion 134a, 134b. . . Twisted 134c, 134d. . . Twist 135a, b. . . Terminal part 136... line 137a, b. . . First end 138. .  . U-shaped nail 139a, b. . . Second end 140. .  . Crossbar 141a, b. . . First terminal parts 141a', 141b'. ·. The second terminal portion 142. .  . Foot 144...opening 146. .  . Block 14 8... knot 149. .  . Axis 160 201210564 150, 152... arrow 154. .  . Clamp 156a, b. . . Body part 158. .  . Foot 160. .  . Hole 161...opening 162. .  . Shrink wrap material 164. .  . Hole 166. .  . Stitching clasp 168. .  . Main body 170. .  . Barbed 172. .  . Collar 174, 176... Hole 178. .  . Internal ratchets 180a, b. . . Ratchet 182. .  . Long axis 184. .  . Ratchet housing 186, 188. . . Hole 187. .  . Central axis 190. .  . Internal ratchet 192a, b. . . Ratchet 194. .  . Belt outer tube 196, 198. . . Hole 197. .  . Central axis 200... internal teeth 202a, b. . . Tooth 204. .  . Closed coils 210a, b. . . Hook 212a. . . The first attachment end 212b. . . Second attachment end 214a. . . Second meshing end 214b. . . Second meshing end 216. .  . Ratchet 216a. . . Front end 216b. . . Tail end 218. .  . Tweezers member 220... orifice 222. .  . Void 223... mesh 224. .  . Spring member 224a, b. . . First and second attachment ends 228. .  . Compression member 228a, b. . . The opposite ends 230a, b. . . Attachment position 232a, b. . . First end 234a, b. . . Second end 236a, b. . . Open L 240...Common Hub 250...Fixed Kit 161 201210564 252. .  . Inserter 254. .  . Casing 256. .  . Central opening 258. .  . Plunger or push rod 260...tip 262. .  . Grip 264. .  . Operating lever 266...inlet 268. .  . Slot 270...needle 272. .  . Center hole 274. .  . First longitudinal aperture 276. .  . Second longitudinal orifice 278. .  . Groove 279...blade spring 280. .  . Fork 282. .  . Depth control tube .  . Clamping element 286. .  . First tongue 288. .  . Second tongue 290. .  . Third tongue AF. . . Proximity force D1. . . Initial distance D2. . . Second distance F. . . Actuation F1. . . Tightening force T1. . . Initial maximum thickness T2. . . Second maximum thickness 162

Claims (1)

201210564 VII. Patent application scope: 1.  An anchor assembly configured to be anchored to an anatomical location, the anchor assembly comprising: an anchor comprising an anchor defining an expandable portion, the expandable portion defining a direction of elongation And the anchor body defines a plurality of openings extending through the expandable portion and substantially along the elongated direction; and the anchor further comprises an intermeshing extending through at least two of the openings a member configured to receive a consistent power and to respond to an actuation force to cause the expandable portion to be actuated from the first configuration motion to the extended configuration, when in the first configuration The extended portion defines a first maximum thickness along a second direction angularly offset from the elongated direction, the expandable portion being defined along a second direction greater than the first maximum thickness when in the expanded configuration A second maximum thickness. 2.  The anchor assembly of claim 1, wherein the anchor body comprises a substrate that initially lacks at least some of the openings, and the substrate is at least one of a knitted fabric, a knitted fabric, and a braid. In order to define the openings. 3.  An anchor assembly of claim 2, wherein the substrate comprises an anchor strand. 4.  An anchor assembly of claim 3, wherein the anchor strand comprises a suture. 5.  An anchor assembly of claim 3, wherein the anchor pack 163 201210564 comprises a plurality of coils constructed in the same manner and spaced along the elongate direction. 6.  The anchor assembly of claim 1, wherein the expandable portion is collapsed along the elongate direction when the expandable portion is moved from the first configuration to the expanded configuration. 7.  The anchor assembly of claim 1, wherein the actuating member comprises a uniform moving strand. 8.  The anchor assembly of claim 1, wherein the actuating force is a pulling force. 9.  An anchor assembly according to claim 3, wherein the actuating member comprises a uniform moving strand. 10.  An anchor assembly according to claim 9 wherein the actuating strand is defined by an auxiliary strand separated from the substrate and attached to the substrate. 11.  The anchor assembly of claim 10, wherein the actuation force is a proximal orientation force and the actuation strand includes a first end that receives the actuation force. 12.  The anchor assembly of claim 11, wherein the actuating strand extends from the distal end of the first end and is woven through at least the first and second of the openings along the longitudinal direction Selected. 13.  The anchor assembly of claim 12, wherein the actuating strands loop through the second selected aperture to define a proximal end extending the second end. 14.  The anchor assembly of claim 13, wherein the second end of the second 164 201210564 is woven through at least one of the openings. 15.  An anchor assembly according to claim 13 wherein the second end proximal end projects from the anchor for attachment to another anchor. 16.  The anchor assembly of claim 13, wherein the second end is further proximally woven through the plurality of openings. 17.  The anchor assembly of claim 12, wherein the actuating strand is woven through the plurality of openings at a distal end along the elongate direction. 18.  The anchor assembly of claim 17, wherein the actuating strands loop through one of the openings to define a proximal end extending the second end. 19.  The anchor assembly of claim 17, wherein the second end is further proximally woven through at least one of the openings. 20.  The anchor assembly of claim 19, wherein the second end is woven through the one of the plurality of openings that is woven through the distal end of the actuation strand. twenty one.  An anchor assembly according to claim 20, wherein the second end is woven through the nearest end of the openings. twenty two.  An anchor assembly according to claim 9 wherein the actuating strand has a barb. twenty three.  The anchor assembly of claim 22, wherein the actuating strand includes allowing the actuating strand to move through the openings in a direction of motion to drive the expandable portion from the first configuration movement The first at least one barb to the extended configuration. 165 201210564 24.  The anchor assembly of claim 23, wherein the actuating strand further comprises a second at least one barb having a direction opposite the first at least one barb, wherein the second at least one barb is configured The anchor strand can be mated with the anchor strand as it moves in the actuating direction. 25.  The anchor assembly of claim 18, wherein the second end defines a coil of a size with the first end. 26.  An anchor assembly according to claim 25, wherein the actuating strand defines a sliding member disposed at a proximal end relative to the anchor body, and the second end is slidably coupled to the sliding member to reduce the coil The size. 27.  The anchor assembly of claim 26, wherein the sliding member includes an opening extending through the actuation strand such that the second end extends through the aperture. 28.  The anchor assembly of claim 25, wherein the actuating strand defines a sliding member disposed at a proximal end relative to the expandable portion, and the first end is slidably coupled to the sliding member to reduce The size of the coil. 29.  The anchor assembly of claim 26, wherein the sliding member includes an opening extending through the second end such that the first end extends through the opening. 30.  The anchor assembly of claim 10, wherein the actuating strand defines a strut end and a free end, wherein the free end is knotted about the strut end such that the strut end is initially translatable for the free end. 166 201210564 31.  32.  33.  34.  35.  36.  37.  38.  39.  40.   An anchor assembly of claim 30, wherein the strut end defines the actuating strand. An anchor assembly according to claim 30, wherein the free end is tightenable to lock the relative displacement of the strut end and the free end. An anchor assembly of claim 30, wherein the free end provides a second anchor of the movable strand. The erroneous assembly of claim 30, wherein the free end is further formed in an eyelet. The anchor assembly of claim 30, wherein the free feed is fed through an aperture of a second wrong body. An anchor assembly of claim 35, wherein the aperture is configured to accept an uncoupled strand coupled to a second anchor. An anchor assembly according to claim 10, wherein the anchor further comprises a loop of strands. An anchor assembly according to claim 37, wherein each of the opposite ends of the coil extends through at least the aperture of the anchor body to define respective first and second apertures. The anchor assembly of claim 38, wherein the actuating strand extends through the first and second apertures. The erroneous assembly of claim 39, wherein the actuating strand defines a first and a second end extending through the second eyelet, and the actuating strand The first and second ends extend through the first coil. 167 201210564 41.  An anchor assembly of claim 40, wherein the actuating force applied to at least one of the first and second ends causes the second aperture to move through the first aperture. 42.  An anchor assembly according to claim 41, wherein the second eyelet defines a connecting member configured to be attachable to another connecting member for attaching the anchor body to the second anchor body. 43.  An anchor assembly of claim 5, wherein the actuating strand is integrated with the substrate. 44.  An anchor assembly according to claim 43, wherein the anchor body defines a proximal end and a distal end opposite thereto, the distal end of the actuating strand is fed through a selected one of the openings and the proximal end is woven The selected ones of the openings are at least one other disposed at the proximal end relative to the selected one of the openings. 45.  An anchor assembly according to claim 44, wherein the selected opening is the most distal opening. 46.  The anchor assembly of claim 44, wherein the actuating strand is woven through the plurality of openings from the proximal end of the selected opening. 47.  An anchor assembly of claim 43, wherein the actuating strand extends from the proximal end of the anchor. 48.  An anchor assembly of claim 43, wherein the anchor strand defines a proximal end projecting from the first end of the anchor body, and the first end defines the actuating strand. 49.  The anchor assembly of claim 48, wherein the anchor strand further comprises a second end extending distally of the anchor body. 50.  For example, the anchor assembly of claim 49, wherein the second 168 201210564 51.  52.  53.  54.  55.  56.  57.  58.  59.   The end ends at a position adjacent to the anchor body. The erroneous assembly of claim 47, wherein the second end is configured to attach the anchor to the second tin body. An anchor assembly according to claim 9 wherein the anchoring, the hole and the plurality of coils defining the respective openings, the temple coils are separated from the distal end of the aperture along the elongated direction. An anchor assembly according to claim 52, wherein the eyelet is defined by a knot at one end of the anchor body. An anchor assembly of claim 52, wherein the anchor body is sewn through itself to define the aperture. An anchor assembly of claim 52, wherein the anchor is welded to itself to define the aperture. The erroneous assembly of claim 52, wherein the actuating strand defines a first and a second end, and a pleat disposed between the first and first ends, wherein the pleat extends through the pleat Eyelet. A tin component according to claim 56, wherein the first and second ends extend through a plurality of selected ones of the openings. An anchor assembly of claim 57, wherein the first and second ends extend through the same opening. For example, in the anchor assembly of claim 58, wherein at least each of the plurality of openings is separated to define a first portion and is configured to be adjacent to the first portion and by the rope 169 201210564 shares And a second portion separated from the first portion, and the first and second ends of the first and second ends extend through each of the first and second portions of the selected openings. 60.  The anchor assembly of claim 58 wherein the actuation force comprises a pulling force applied to at least one of the first and second ends of the actuation strand, the tension causing the aperture to follow A path defined by the actuating strand is pulled through the wrong body' and the anchor body is extended. 61.  An anchor assembly of claim 60, wherein the aperture is configured to be attachable to another strand that connects the anchor to the second anchor. 62. The anchor assembly of claim 9, wherein in the first configuration, the anchor strand is along an axis extending along the longitudinal direction of the permeate. rectangle. 63. An anchor assembly of claim 62, wherein the strand defines a first cross-sectional dimension and the actuating strand defines a second cross-sectional dimension that is less than the first cross-sectional dimension. • The anchor assembly of claim 63, wherein the expandable portion is folded into an accordion structure upon actuation to the expanded configuration. The application of the three-piece contact, wherein the wrong body strand is folded 4 to define two pairs of strands of the strand segment, which are braided to define the openings. The anchor assembly of item 3, wherein the anchor body is braided into a pair of split 170 201210564 anchor strand segments that define the openings. 67.  The anchor assembly of claim 1, wherein the openings are pre-existing in the finished substrate. 68.  An anchor assembly of claim 67, wherein the substrate comprises a plurality of fibers defining at least one of a braid, a fabric, a knit, and a mesh. 69.  An anchor assembly as claimed in claim 68, wherein the composition comprises a braided strand. 70.  An anchor assembly of claim 69, wherein the composition comprises a plurality of strands braided together. 71.  The anchor assembly of claim 1, wherein the openings cut through the substrate. 72.  An anchor assembly according to claim 71, wherein the openings are laser cut through the substrate. 73.  The anchor assembly of claim 1, wherein the expandable portion defines opposing proximal and distal ends, and the elongate direction extends linearly between the proximal end and the distal end. 74.  An anchor assembly according to claim 73, wherein the expandable portion is elongated along a central axis. 75.  An anchor assembly of claim 74, wherein at least a portion of the central axis is offset relative to the elongate direction. 76.  An anchor configured to be insertable in an anatomical position, the anchor comprising: a plurality of knots slidably coupled to a common actuating strand, the common actuating strand defining a coil of variable size, 171 2 〇12l〇564 wherein each of the plurality of knots is configured to be insertable at a target anatomical location, and the variable size coil is configured to reduce size for the plurality of knots Each of them together defines a cluster whose size is individually larger than each of the plurality of knots. 77.  78.   An anchor of claim 76, wherein the parent of the knots is slidably mounted on the common actuating strand. An anchor assembly of claim 7, wherein each of the knots defines an aperture that receives the common actuation strand and is slidable along the common actuation strand. The anchor assembly of claim 76, wherein the common actuating strand defines a pair of free ends slidably attached to each other at the actuating portion. 80.   81.   An anchor assembly of claim 78, wherein the free ends are scored such that one of the free ends slides along the other to reduce the size of the coil. For example, in the anchor assembly of the third aspect of the patent application, the first pin of the strand is 'the first-shaped actuating strand is the first-actuated strand', the first anchor body is the first body, and (four), The second member includes a second anchor that extends substantially along a second elongate direction, and the second pin defines a second plurality of openings extending through the second (four) And the second actuation 172 201210564 through which the second length (four) direction _, and 2) are woven through at least two of the apertures, wherein substantially along the second elongate direction a pulling force applied to the second actuating strand in a direction causes the second anchor body to be folded in the second elongate direction and in the direction of the angular offset in relation to the second elongate direction, so that The second anchor is expanded from a first configuration to an extended configuration.  An anchor assembly of claim 81, wherein the first actuation strand is attached to the second actuation strand. 83.  An anchor assembly of claim 82, wherein the first actuating strand is integrated with the second actuating strand. 84.  The anchor assembly of claim 82, wherein the first actuating strand is separated from the second actuating strand and attached to the second actuating strand. 85.  An anchor assembly according to claim 81, further comprising a connecting member for attaching the first anchor to the second anchor. 86.  The anchor assembly of claim 85, wherein the connecting member defines a sliding member that allows one of the first and first actuating strands to be relative to the first and second actuating strands The other of the strands translates through the connecting member. 87. The anchor assembly of claim 85, wherein the connecting member defines a locking member that prevents the first and second actuation strands from being relative to the first and second actuation strands The other of the ones translates through the connecting member. 88. An anchor assembly of claim 85, wherein the connecting member is defined by the first and second actuating strands. 173 201210564 89.  An anchor assembly of claim 88, wherein the connecting member comprises a knot defined by the first and second actuating strands. 90.  An anchor assembly of claim 89, wherein the first actuating strand is knotted with the second actuating strand to define the knot. 91.  An anchor assembly of claim 90, wherein the knot has 1) an unlocking configuration, wherein one of the first and second actuating strands is associated with the first and second actuating strands The other can translate through the knot, and 2) the locking configuration, wherein the first and second actuation strands are locked together with respect to the relative translational linkages through the knot. 92.  An anchor assembly according to claim 88, wherein the connecting member comprises a weldment between the first and second actuating strands. 93.  An anchor assembly of claim 92, wherein the first actuating strand is welded to the second actuating strand. 94.  An anchor assembly according to claim 88, wherein the connecting member comprises a twist tie. 95.  An anchor assembly of claim 94, wherein the kinking is defined by the first and second actuating strands. 96.  The anchor assembly of claim 95, wherein at least one of the first and second actuation strands comprises a soft, deformable material to at least partially define the kink. 97.  An anchor assembly of claim 81, wherein the first 174 201210564 actuating strand is integrated with the first anchor and the second actuating strand is integrated with the second anchor. 98.  An anchor assembly of claim 97, wherein the second actuating strand is hinged through the first actuating strand to define a first splice. 99.  The anchor assembly of claim 98, wherein the first actuating strand is hinged through the second actuating strand to define a second strand. 100.  The anchor assembly of claim 99, wherein the first hinge is configured to be closer to the first tin than the second twist. 101.  An anchor assembly of claim 81, wherein the first actuating strand is integrated with the second actuating strand. 102.  The anchor assembly of claim 88, wherein the connecting member is an auxiliary connecting member configured to attach the first actuating strand to the second actuating strand. 103.  The anchor assembly of claim 102, wherein the auxiliary connecting member comprises a strand stitched through the first and second actuating strands. 104.  The anchor assembly of claim 102, wherein the auxiliary connecting member comprises a staple that attaches the first actuation strand to the second actuation strand. 105.  An anchor assembly of claim 101 or 102, wherein at least one of the first and second actuation strands is sewn through the auxiliary attachment member. 175 201210564 106. The anchor assembly of claim 1, wherein at least one of the first and second actuation strands are knotted about the auxiliary connector. 107.  An anchor assembly according to claim 1 wherein the first and second actuating strands are woven into the auxiliary connecting member. 108.  An anchor assembly as claimed in claim 1 wherein the auxiliary connecting member comprises a braided tube. 109.  An anchor assembly according to claim 1 wherein the braided tube comprises at least one of a suture defining a core and a tubular mesh. 110.  The anchor assembly of claim 102, wherein the auxiliary connecting member comprises a shrink wrap material configured to be actuatable for tightening around the first and second actuating strands. 111.  The anchor assembly of claim 1, wherein the auxiliary connecting member comprises a set of rings having at least one ratchet, and wherein the first and second actuating strands each have at least the loop with the collar A complementary ratchet that is ratcheted. 112.  The anchor assembly of claim U1, wherein at least one ratchet of the collar is paired with the ratchets of the first and second actuating strands to allow the first and second actuating strands Each sliding through the collar in a direction away from the first and second anchors while preventing each of the first and second actuation cords from stalking toward the first and second anchors Slide in the collar. 113 • The wrong component of claim 111, wherein the first and second actuating strands are inserted into the collar in opposite directions. 114.  The anchor assembly of claim 1, wherein the auxiliary connecting member comprises a ratchet housing having at least one ratchet, and the fifth and second actuating strands along the first and second actuating strands The at least one ratchet is mated with the complementary ratchets of the first and second actuation strands as the anatomical position slides. 115.  The anchor assembly of claim 114, wherein the first and second actuating strands are inserted into the collar in substantially the same direction. 116.  An anchor assembly of claim 1, wherein the auxiliary connecting member comprises a bundle of outer tubes defined to be acceptable for the first and the first The first and second tunnels of the actuating strands. 117.  An anchor assembly of claim 116, wherein the bundle T outer tube defines a plurality of teeth configured to be mated with the first and second actuation strands such that the outer tube of the bundle can be The first and second anchors move but are prevented from moving away from the first and second Cui Miao. 118.  An anchor assembly of claim 117, wherein each of the first and second actuating strands defines a rack, the teeth of the strip being configured to be associated with the outer tube of the strap The pairing of teeth causes the outer tube of the band to be movable toward the first and second anchors but is prevented from moving away from the first and second anchors. 119.  The anchor assembly of claim 81, wherein at least the 177 201210564 first anchor further comprises a first loop of strands extending through at least one of the openings of the first anchor body so as to The first and second apertures are each defined, which define respective first and second apertures. 120.  The anchor assembly of claim 119, wherein the first movable strand includes an auxiliary strand extending through the openings of the first and second apertures. 121.  The anchor assembly of claim 120, wherein the second anchor further comprises a second loop of strands extending through at least one of the other openings of the second anchor body for respective definition First and second apertures defining respective first and second apertures. 122.  The anchor assembly of claim 121, wherein the second actuating strand is an auxiliary strand, the auxiliary strand extending through the first and second apertures of the second looped strand Wait for the opening. 123.  An anchor assembly of claim 122, wherein the first actuating strand is integrated with the second actuating strand. 124.  An anchor assembly of claim 122, further comprising a connecting member for attaching the first actuating strand to the second actuating strand. 125.  The anchor assembly of claim 124, wherein the connecting member comprises a knot that is actuable between an unlocking configuration and a locked configuration, and in the unlocking configuration, the first and second At least one of the actuating strands is translatable through the knot in relation to the other of the first 178 201210564 and the second actuating strand, and when in the locked configuration, the first and the first The two actuating strands are fixed in translation relative to each other through the knot. 126.  An anchor assembly according to claim 81, wherein the first actuating strand is separated from the first anchor and attached to the first anchor, and a first defined by the first anchor And a second part. 127.  The anchor assembly of claim 126, further comprising a connecting member coupling the first portion of the first actuating strand to the second portion of the first actuating strand. 128.  The anchor assembly of claim 127, wherein the connecting member is a knot operable between the unlocking configuration and the locking configuration, and in the unlocking configuration, the first actuating strand A portion can be translated through the knot to cause the first anchor to be actuated from the first configuration to the extended configuration, and to prevent the first actuation of the first actuation strand when in the locked configuration Partial translation through the knot. 129.  An anchor assembly of claim 127, wherein the second actuating strand is separated from the second anchor and attached to the second anchor, and defining a first extension from the second anchor And a second part. 130.  The anchor assembly of claim 129, wherein the connecting member is a first connecting member, the anchor assembly further comprising coupling the first portion of the second actuating strand to the second actuating strand a second connecting member of the second portion. 179 201210564 131.  The anchor assembly of claim 130, wherein the connecting member is a second knot operable between the unlocking configuration and the locking configuration, and in the unlocking configuration, the second actuating strand The first portion is translatable through the second junction to cause the second anchor to be actuated from the first configuration to the extended configuration, and to prevent the second actuation strand when in the locked configuration The first portion translates through the second junction. 132.  The anchor assembly of claim 129, wherein the first actuating strand defines a first and a second portion that is clocked by the first tin body, and the second actuating strand is defined by the a first and a second portion of the second anchor body extending. 133.  The anchor assembly of claim 132, wherein the second portion of the first movable strand is integrated with the second portion of the first actuating strand. 134.  The anchor assembly of claim 133, wherein the first and second actuating strands are defined by a common strand, the anchor assembly further comprising attaching the first portion of the first actuating strand a first connecting member connected to one of the common strands and a second connector for attaching the second portion of the second actuating strand to another position of the common strand. 135.  An anchor assembly of claim 81, wherein the first actuating strand is hinged through the second actuating strand. 136.  An anchor assembly of claim 135, wherein the second actuating strand is hinged through the first actuating strand. 137.  An anchor assembly of claim 135, wherein the 180th 201210564 unconstrained strand is spliced through the second actuating strand in a direction from the second anchor toward the first anchor. 138.  The anchor assembly of claim 137, wherein the second actuating strand is hinged through the first actuating strand in a direction from the first anchor toward the second anchor. 139.  The anchor assembly of claim 136, wherein the second actuating strand is hinged through the first actuating strand in a first position, the first actuating strand being hinged in a second position Passing through the second actuating strand, and the first position is closer to the first anchor than the second position. 140.  An anchor assembly of claim 81, wherein the second anchor comprises an eyelet and the first actuating strand is attached to the eyelet. 141.  An anchor assembly of claim 140, wherein the first alignment strand extends through the aperture to define a first end and a second end. 142.  An anchor assembly of claim 141, further comprising a connecting member for attaching the first end to the second end. 143.  An anchor assembly of claim 142, wherein the connecting member is integral with the first and second ends. 144.  An anchor assembly of claim 143, wherein the connecting member is a knot. 145.  An anchor assembly as claimed in claim 144, wherein the knot is configured to be actuated between an unlocked configuration, a locked configuration 181 201210564, and in the unlocked configuration, associated with the second end, The first end is translatable through the knot, and when in the locked configuration, the first end is fixed to the second end with respect to translation through the knot. 146.  An anchor assembly of claim 140, wherein the second actuation strand is associated with the second anchor and assists in defining the aperture. 147.  The anchor assembly of claim 146, wherein the second actuation strand includes a first portion and a second portion extending from the second anchor body, wherein the second portion defines the aperture, and The first portion is attached to the second portion. 148.  An anchor assembly of claim 147, wherein the first portion and the second portion are configured to be actuated to unlock a configuration, lock a configuration, and are in the unlock In configuration, the first portion is translatable through the knot relative to the second portion, and when in the locked configuration, the first portion is fixed relative to the translation through the knot to the second Part. 149.  An anchor assembly of claim 81, further comprising a connecting member attached between the first and second anchors. 150.  An anchor assembly of claim 149, wherein the connecting member is attached between the first and second actuation strands. 151.  An anchor assembly of claim 149, wherein the connecting member comprises a connecting strand. 152.  For example, the anchor assembly of claim 151 further includes 182 201210564 to attach a first portion of the connecting strand to a second portion of the connecting strand to enable the first and second A second connecting member in which the moving strands are fixed to each other. 153.  An anchor assembly of claim 152, wherein the second connecting member is integral with the first and second portions of the connecting strand. 154.  An anchor assembly of claim 153, wherein the second connecting member comprises a knot defined by the first and second connecting strands. 155.  An anchor assembly of claim 154, wherein the knot is configured to be actuated between an unlocked configuration and a locked configuration, the first portion being associated with the unlocked configuration The second portion is translatable through the knot, and when in the locked configuration, the first portion is fixed to the second portion with respect to translation through the knot. 156.  The anchor assembly of claim 151, wherein the first tin package has a first eyelet, the second tin includes a second eyelet, and the connecting strand is attached to the first and second eyelets. 157.  An anchor assembly of claim 156, wherein the connecting strand extends through the first and second apertures, and the connecting strand defines a first one that each extends from the first and second apertures And a second part. 158.  The anchor assembly of claim 157, further comprising a first 183 201210564 two connecting member to which the first and second portions of the connecting strand are attached. 159.  The anchor assembly of claim 158, wherein the second connector is integrated with the first and second portions of the connecting strand. 160.  An anchor assembly of claim 159, wherein the second connector is a knot defined by the first and second portions of the connecting strand. 161.  An anchor assembly of claim 160, wherein the knot is configured to be actuated between an unlocked configuration and a locked configuration, the first portion being associated with the unlocked configuration The second portion is translatable through the knot, and when in the locked configuration, the first portion is fixed to the second portion with respect to translation through the knot. 162.  An anchor assembly of claim 81, further comprising a first and a second connecting strand attached between the first and second actuating strands. 163.  An anchor assembly of claim 162, wherein the first connecting strand is hinged through the second connecting strand. 164.  The anchor assembly of claim 163, wherein the first connecting strand is hinged through the second connecting strand and the spaced apart first and second positions. 165.  An anchor assembly of claim 162, wherein the second connecting strand is hinged through the first connecting strand. 166.  The anchor assembly of claim 165, wherein the second connecting strand is hinged through the first connecting strand and the first and second positions spaced apart from each other 184 201210564. 167. The erroneous component of claim 166, wherein the first connecting strand is hinged through the second connecting strand. 168.  The anchor assembly of claim 167, wherein the first connecting strand extends from the first actuating strand to define a corresponding first and second portions, and the second connecting strand is The second actuating strand extends to define the corresponding first and second portions. 169.  The anchor assembly of claim 168, wherein the first portion of the first connecting strand is spliced through the first portion of the second connecting strand. 170.  The anchor assembly of claim 169, wherein the first portion of the first connecting strand is spliced through the second connecting strand in a direction from the second anchor toward the first anchor The first part. 171.  The anchor assembly of claim 169, wherein the first portion of the second connecting strand is hinged through the first portion of the first connecting strand. 172.  The anchor assembly of claim 171, wherein the first portion of the first connecting strand is spliced through the first portion of the second connecting strand at a first position, the second connection The first portion of the strand is twisted through the first portion of the first connecting strand at a second position, and the first position is configured to be closer to the second anchor than the second position 173.  For example, in the application of the scope of item m, the second portion of the 185 201210564 connecting strand is spliced through the second portion of the second connecting strand. 174.  For example, in the anchor assembly of claim 173, the second portion of the second connecting strand is spliced through the first portion of the second strand. 175.  The anchor assembly of claim 169, wherein the second portion of the first connecting strand is spliced through the second portion of the second strand. One 176.  For example, in the anchor assembly of the 175th patent application, the first and second parts of the 1st and the second part of the 1st and the 2nd strands of the stranded strands are respectively: the first and second parts of the first connected strand For each of the first and second terminal parts. 177.  For example, the anchor assembly of the 176th scope of the patent application is more 勹 = the terminal part is attached to the second terminal part 178.  If the wrong component of the patent scope 帛i77 is applied, the connection component is integrated with the first and second terminal parts. S 179.  For example, if the patent application scope is 178 items, the component contains the first and second terminal parts = j 1 'V π~聊组仟, the complex system is configured to be activated to unlock the configuration. Set: ":, when in the unlocked configuration" the first terminal part = m when the second terminal part can be translated through the node in the locked configuration 'the first terminal part related 4 186 201210564 Move through the knot and fix it to the second terminal part. (8). The at least one of the first and second errors of the anchor set of claim 1 includes an eyelet attached to the eyelet. 182.  The anchor assembly of claim 15 wherein the connecting member is an auxiliary connector attached between the first and second actuating strands. 183.  An anchor assembly of claim 182, wherein at least one of the first and second anchors comprises an eyelet, and the auxiliary connecting member is attached to the eyelet. 184.  A tin component according to claim 183, wherein the auxiliary connecting member comprises at least one hook attached to the eyelet. 185.  An anchor assembly of claim 184, wherein the other of the first and second anchors comprises a second eyelet, and the auxiliary connector includes an attachment to the second eyelet and is configured to be The first hooks are paired to attach a second catcher of the first and first pins. 186.  The anchor assembly of claim 185, wherein the first and second hooks are made of a shape memory material and define a first shape when paired with each other and a second shape after pairing with each other, wherein The first shape is different from the second shape. 187.  An anchor assembly of claim 151, wherein the connecting strand includes a first end and a second end configured to be mated with the first end. 187 201210564 188.  The anchor assembly of claim 187, wherein the connecting strand defines a coil having a size when the first end is mated with the second end, and the first end is paired with the second end such that the first The end associated with the second end can only move in a direction that reduces the size of the coil. 189.  An anchor assembly of claim 188, wherein the first end is barbed, and the second end defines an aperture configured to accept the barbed first end. 190.  An anchor assembly of claim 187, wherein the first and second anchors comprise a plurality of apertures and the connecting strands extend through the apertures. 191.  An anchor assembly according to claim 85, wherein the connecting member comprises a magazine having a spring constant for biasing the first seedling toward the second pin. 192.  An anchor assembly of claim 191, wherein the spring member is attached to at least one of the first and second actuation strands. 193.  An anchor assembly of claim 191, wherein the at least one of the first and second anchors defines an eyelet and the spring member is attached to the eyelet. 194. The erroneous assembly of claim 81, wherein the first and second actuating strands define a sliding member that allows one of the actuating strands and the second actuating cord The strands are relatively translated to apply a force to at least one of the anchors to bias the anchor to the other anchor. 188 201210564 195.  The anchor assembly of claim 194, further comprising a latching member for preventing the actuating strands from translating through the locking member. 196.  = the wrong component of claim 195, which further comprises a connection structure of the sliding member and the locking member.  For example, the wrong component of claim 81 of the patent scope, further comprising - the locking member is adapted to prevent the actuating strands from being translated relative to each other by the locking member. 198.  The rib member of claim 81, which further includes a connecting strand attached between the first and second faults. The wrong component of claim 98, wherein the connection, the definition of the strand - the portion and the portion separated from the first portion: the second portion, the anchor assembly comprises a sliding member, the sliding a piece that allows one of the first and second parts to be translated relative to the other of the one and the second part to apply a force to at least the money to cause the pin to the other bias. The tin component of the 199th item further includes: a locking member for preventing the first and second portions from being translated relative to each other by the 5H locking member. 2〇1. ^Please refer to the wrong component of the scope of the patent, which further includes the 忒 π moving member and the connecting member of the locking member, such as the tin component of claim 198, wherein the 189 201210564 Defining a first portion and a second portion spaced apart from the first portion, the anchor assembly further includes a locking member for preventing the first and second portions from translating relative to each other through the locking member. 203.  An anchor assembly of claim 198, wherein the connecting strand is attached to at least one of the first and second actuating strands. 204.  An anchor assembly according to claim 203, further comprising a sliding member for allowing one of the connecting strands and the at least one of the first and second actuating strands to be translated relative to each other for application At least one of the tins is biased to bias the anchor to the other anchor. 205.  The anchor assembly of claim 204, further comprising a locking member for preventing the at least one of the connecting strand and the first and second actuating strands from translating relative to each other by the locking member. 206.  An anchor assembly of claim 205, further comprising a connecting member defining both the sliding member and the locking member. 207.  The anchor assembly of claim 203, further comprising a locking member for preventing the at least one of the connecting strand and the first and second actuating strands from being translated relative to each other by the locking member. 208.  An anchor assembly of claim 81, wherein the first actuating strand is assisted relative to the first anchor and the second 190 201210564 actuating strand is integrated with the second anchor. 209.  The anchor assembly of claim 82, wherein the first actuating strand defines a first portion and a second portion extending from the pin body. 210.  For example, the anchor assembly of claim 2, wherein the second portion is integrated with the second actuating strand. 211.  The anchor assembly of claim 21, further comprising attaching the first portion of the first actuating strand to the second portion of the actuating strand and the second actuating cord A connector of at least one of the shares. 212.  For example, the wrong component of the item hi of the patent range is claimed, wherein the connector allows the first portion of the first actuating strand to be related to . The second portion of the self-actuating strands translates with at least one of the second actuating strands. 213.  The pin assembly of claim 212, wherein the connector is further configured to prevent the first portion of the first actuating strand from being associated with the second portion of the first actuating strand The portion is translatable with at least one of the second actuation strands. 214.  Such as. Applying the wrong component of claim 211, the connection state comprising the first portion of the first actuating strand and the first portion of the actuating strand and the second actuating strand A knot defined by at least one of them. 215.  The wrong component of claim 85, wherein the first and second anchor bodies comprise respective first and second apertures, and the first and second actuation strands are each woven through 191 201210564 Passing the first and second anchor bodies and attaching to the first and second apertures. 216.  For example, the anchor assembly of claim 215, wherein the first movable strand is integrated with the second actuating strand. 217.  An anchor assembly of claim 215, further comprising a connecting member for attaching the first actuating strand to the second actuating strand. 218.  The anchor assembly of claim 215, wherein the first actuation strand includes a first actuation portion and a first attachment portion each extending from the first anchor body, and the second The actuation strand includes a second actuation portion and a second attachment portion each extending from the second anchor body. 219.  The anchor assembly of claim 218, wherein the first attachment portion is integrated with the second attachment portion. 220.  The anchor assembly of claim 218, wherein the connecting member attaches the first actuating portion and the second actuating portion. 221.  The anchor assembly of claim 220, wherein the connecting member defines 0 222 from the first actuating portion and the second actuating portion.  The anchor assembly of claim 221, wherein the connecting member comprises a knot defined by the first actuating portion and the second actuating portion. 223.  For example, the anchor assembly of claim 222, wherein the knot can be actuated between an unlocked configuration and a locked configuration, in the first and second actuation portions when the 192 201210564 unlock configuration is performed At least one of the first and second actuation portions is translatable through the junction, and the first and second actuation strands pass through in the locked configuration The knots are fixed in translation to each other. 224.  The anchor assembly of claim 220, wherein the first and second actuation portions are each configured to each receive an actuation force and each of the first and second anchors is caused by the first configuration Actuated to the extended configuration. 225.  The anchor assembly of claim 85, wherein the first and second anchor bodies comprise respective first and second apertures, and the first and second actuation strands are each woven through the First and second anchor bodies and attached to the first and second apertures. 226.  An anchor assembly of claim 225, wherein the first movable strand defines a first and a second portion extending from the first anchor. 227.  The anchor assembly of claim 226, wherein the connecting member attaches the first portion of the first actuating strand to the second portion of the first actuating strand. 228.  The anchor assembly of claim 227, wherein the connecting member is a knot operable between the unlocking configuration and the locking configuration, and in the unlocking configuration, the first actuating strand A portion can be translated through the knot to cause the first anchor to be actuated from the first configuration to the extended configuration, and to prevent the first actuating strand from being in the locked configuration at 193 201210564 The first portion translates through the knot. 229.  An anchor assembly of claim 227, wherein the second actuating strand defines a first and a second portion extending from the second anchor. 230.  The anchor assembly of claim 229, wherein the connecting member is a first connecting member, the anchor assembly further comprising coupling the first portion of the second actuating strand to the second actuating strand a second connecting member of the second portion. 231.  The anchor assembly of claim 230, wherein the second connecting member is a second knot operable between the unlocking configuration and the locking configuration, and in the unlocking configuration, the second actuating strand The first portion is translatable through the second junction to cause the second anchor to be actuated from the first configuration to the extended configuration, and to prevent the second actuation cord when in the locked configuration The first portion of the strand translates through the second knot. 232.  The anchor assembly of claim 229, wherein the first actuating strand defines a first and a second portion extending from the first anchor body, and the second actuating strand is defined by the a first and a second portion of the second anchor body extending. 233.  For example, the anchor assembly of claim 232, wherein the second portion of the first movable strand is integrated with the second portion of the first actuating strand. 234.  The anchor assembly of claim 233, wherein the first and second actuating strands are defined by a common strand, the anchor 194 201210564 235.   236.   237.   238.   239.   The assembly further includes a first connecting member for attaching the first portion of the first actuating strand to a position of the common strand, and attaching the second portion of the second actuating strand A second connector connected to another location of the common strand. Λ The anchor assembly of claim 85, wherein the first and second anchor bodies comprise respective first and second apertures, and the first and second actuation strands, such as shai, are individually woven. The first and second tin bodies are attached to the first and second apertures. For example, the seedling assembly of claim 235, wherein the first actuating strand is integrated with the second actuating strand to define a common auxiliary strand. The anchor assembly of claim 235, wherein the first actuating strand is spliced through the first actuating strand to - first twist. The anchor assembly of claim 237, wherein the first actuating strand is hinged through the second actuating strand to define a second strand. An anchor assembly of claim 238, wherein the first knot is configured to be closer to the first seed than the second knot. The pin assembly of claim 238, wherein the first actuating strand defines a first and a second phase separated by the first anchor body, and the second actuating strand is defined by the The first-and-second phase separated by the first-anchor body, 195 240.   201210564 and the second portion of the first actuation strand are attached to the second portion of the second actuation strand. 241.  The tin component of claim 240, wherein the second portion of the first actuating strand is integrated with the second portion of the second actuating strand. 242.  The anchor assembly of claim 240, wherein the first portion of the first actuating strand is spliced through the second portion of the second actuating strand, and the second actuating cord The first portion of the strand passes through the second portion of the first actuating strand. 243. The anchor assembly of claim 235, wherein the first actuating strand defines a first and a second phase separated portion extending from the first anchor body, and the second actuating strand definition a first and/or second phase spaced apart portion of the second (four), the anchor assembly further comprising a compression member attached to the second portions of the first and second actuation strands . 244. The anchor assembly of claim 243, wherein the second portions of the second and second actuating strands are integrated with the reduced member. 245. If the wrong part of the patent application area 243 is applied, the first part of the actuating strands is extended by 246. 2 = </ RTI> </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; 201210564 causes the compression member to compress the first portions of the first and second actuation strands. 247.  The anchor assembly of claim 85, wherein the first and second anchor bodies comprise respective first and second apertures, and the first and second actuation strands are each woven through the And first and second anchor bodies are attached to the first and second apertures. 248.  The anchor assembly of claim 247, wherein the first and second actuation strands each extend through both the first anchor body and the second anchor body. 249.  The anchor assembly of claim 248, wherein the first and second actuation strands each extend through both the first aperture and the second aperture. 250.  An anchor assembly of claim 247, further comprising a compression member attached between the first and second actuation strands. 251.  An anchor assembly of claim 250, wherein the compression member is integrated with the first and second actuation strands. 252.  An anchor assembly of claim 250, wherein the first actuation strand is attached to the compression member at one end, extends through the first and second apertures, and defines a first end portion at the other end And wherein the first terminal portion extends through the compression member. 253.  The anchor assembly of claim 252, wherein the second actuating strand is attached to the compression member at one end, extends through the first and second apertures 197 201210564, and defines a second at the other end a terminal portion, wherein the second terminal portion extends through the compression member. 254.  An anchor assembly of claim 253, wherein a tensile force applied to the terminal portions of the first and second actuating strands causes tension in the first and second actuating strands The compression member applies a compressive force to the first and second actuation strands. 255.  The anchor assembly of claim 81, wherein the first anchor body comprises a first eyelet, and the second anchor comprises a connecting strand integrated with the second anchor body, wherein the connecting rope of the second anchor The stock defines the unanimous moving strand of the first anchor. 256.  The anchor assembly of claim 255, wherein the actuation strand of the first anchor includes an attachment portion and an actuation portion, wherein the attachment portion extends to the second anchor body, and the The actuation portion is slidably attached to the attachment portion. 257.  An anchor assembly of claim 256, wherein the actuating portion is hinged through the attachment portion. 258.  The anchor assembly of claim 257, wherein the second anchor defines a second eyelet, and the first anchor includes a connecting strand integrated with the first anchor body, wherein the first anchor is connected The strand defines the unconstrained strand of the second anchor. 259.  The anchor assembly of claim 258, wherein the actuating strand of the second anchor comprises a second attachment portion and a second actuation portion, wherein the second attachment portion extends to the No. 198 201210564 an anchor body, and the second actuation portion is slidably attached to the second attachment portion. 260.  An anchor assembly of claim 259, wherein the second actuating portion is hinged through the second attachment portion. 261.  An anchor assembly of claim 255, wherein the actuating member extends through the aperture. 262.  An anchor assembly of claim 257, wherein the actuation strand of the second anchor extends through the second aperture. 263.  The anchor assembly of claim 85, wherein the first anchor body comprises an eyelet, and the first actuating strand is woven through the first anchor body and attached to the eyelet. 264.  An anchor assembly of claim 263, wherein the first actuating strand is assisted by the first anchor and the second actuating strand is integrated with the second anchor. 265.  An anchor assembly of claim 264, wherein the first movable strand defines a first portion and a second portion extending from the anchor body. 266.  For example, the anchor assembly of claim 265, wherein the second portion is integrated with the second actuation strand. 267.  The anchor assembly of claim 266, wherein the connecting member attaches the first portion of the first actuating strand to the second portion of the actuating strand and the second actuating cord At least one of the shares. 268.  The anchor assembly of claim 267, wherein the connecting member allows the first portion of the first actuating strand to be related to 199 201210564 in the second portion of the actuating strand and the second actuating The at least one of the strands translates. 269.  The anchor assembly of claim 268, wherein the connecting member is further configured to prevent the first portion of the first actuating strand from being associated with the second portion of the actuating strand and the second portion Translation of the at least one of the second actuation strands. 270.  The anchor assembly of claim 267, wherein the connecting member comprises the second portion of the first actuating strand, the first portion of the actuating strand and the second actuating strand A knot defined by at least one of them. 271.  An anchor assembly of claim 265, wherein the first actuating strand is hinged through the second actuating strand such that the connecting member defines a twist. 272.  An anchor assembly of claim 81, wherein at least one of the first and second anchor bodies comprises an eyelet and a plurality of actuating strands are woven through the eyelet. 273.  The anchor assembly of claim 102, wherein the auxiliary connecting member comprises a connecting strand that attaches the first anchor to the second anchor. 274.  The anchor assembly of claim 273, wherein the connecting strand extends in a direction away from the second anchor body through a first opening of the first anchor body along a direction toward the second anchor body The direction is folded through a second opening of the first anchor body, extends through a first opening of the second anchor body, and is folded through the second anchor body in a direction toward the first anchor body One of the 200 201210564 275.   276.   277.   The second opening. The anchor assembly of claim 274, wherein the connecting strands define first and second portions each extending from the first and second anchor bodies. An anchor assembly of claim 275, further comprising a connecting member for attaching the first portion of the connecting strand to the second portion of the connecting strand. A method of making an anchor body from an anchor strand, the anchor body being capable of being implanted into a target anatomical position and subsequently being expanded. The method comprises the steps of: knotting the anchor strand to define a a strut end and a free % first stop knot, the free end being defined by a first end of the wrong body stud and the strut end being defined by a second end of the anchor strand; One end is looped to form a first proximal coil; the first proximal coil is passed through the stop so that the second end extends from the first proximal coil through the stop; The distal end of the stop knot is braided to define a plurality of coils substantially separated along an elongated direction, wherein each of the coils defines an opening; The strands are woven through at least one of the openings such that the actuating strands are configured to accept a consistent power and the resulting body is offset along the direction associated with the elongated direction 201210564 278 279 .   280.   The second direction is extended. The method of claim 277, wherein the step of traversing further comprises pulling the first end through the first proximal coil and tightening the first portion to define a proximal end knot. The method of claim 277, further comprising the steps of: making a plurality of additional distal coils, and for each of the additional distal coils, each of the additional distal coils - Pass through - the coil at the nearest end. A method of constructing an anchor from at least one anchor strand, the anchor comprising an expandable portion configured to be implantable - a target anatomical location and subsequently expanded, the method comprising the steps of: (A) making the first First, the coil is such that the |mesh strand defines one end extending from the previous coil; (B) the expandable portion is made of the anchor strand, which comprises the following steps: (1) making the end Passing through the first previous coil to define a first new coil, the first new coil defining an opening, wherein the first new coil is disposed on one side of the first previous coil, and the end is a reverse side of the first previous coil extending from the first new coil; (H) looping the end through a second previous coil defined by the first new coil to define a second new coil, the first The second coil defines an opening; (iii) tightens the second new coil about the second previous coil 202 201210564; and (iv) fabricates a plurality of additional new coils each extending through the previous coil to define a respective one a plurality of coils of the opening; and C) knitting the coincident moving strands through at least one of the openings such that the actuating strands are configured to accept a consistent dynamic force causing the anchor body to be offset along a direction associated with the elongated shape The second direction is extended. 281.  The method of claim 280, wherein the first prior coil defines an eyelet. 282.  The method of claim 281, further comprising the step of forming the aperture integral with the anchor strand. 283.  The method of claim 282, wherein the actuating strand is stitched through itself to define the aperture. 284.  The method of claim 283, wherein the actuating strand is further knotted to secure the eyelet. 285.  The method of claim 283, wherein the actuating strand is stitched through itself a second time. 286.  The method of claim 283, wherein the actuating strand is knotted to define the eyelet. 287.  An inserter configured to deploy at least one anchor in an anatomy, the anchor comprising a substrate extending substantially in an elongate direction. The substrate defines a plurality of openings spaced along the elongated direction And woven through the at least two of the apertures, the interposer comprising: 203 201210564 a set of officially defined dimensions that are made to accept a central opening of the anchor; and a pusher that is insertable into the sleeve and configured to be pressed into the central opening to eject an anchor from the sleeve into the &quot;Hai anatomy such that when a pulling force is applied to the actuating member The direction of the permeate along the elongate direction causes the anchor to expand in a second direction that is angularly offset with respect to the elongate direction. 288.  = The inserter of claim 287, wherein the pusher is configured to be supported against the anchor. 289.  The inserter of claim 287, wherein the sleeve defines a slot for receiving the actuating member such that the actuating member extends from the knot by the knot. 290.  The inserter of claim 287, wherein an outer diameter of the push rod is smaller than an outer diameter of the central opening of the sleeve such that the actuating member extends through the center of the sleeve beside the push rod hole. 291. The inserter of claim 287, wherein the pusher includes a central aperture such that the anchor can be inserted through the central aperture = the central opening into the sleeve. To the grip to 2. The inserter of claim 287, wherein the insert further comprises a grip, and the sleeve is removably attached to the iS, 4rtr 293 293. The inserter of claim 287, wherein the sleeve defines a tapered inlet. 204 201210564 294.  The inserter of claim 287, wherein pressing the pusher causes the anchor to translate out of the opening. 295.  The inserter of claim 294, wherein the sleeve defines a distal end defining a tip and pressing the push rod causes the anchor to be distally removed from the opening. 296.  The inserter of claim 295, wherein the needle tip is tapered. 297.  The inserter of claim 294, wherein the opening ends at a distal end, and the sleeve defines a side ejection portal that communicates with the distal end of the opening. 298.  The inserter of claim 297, further comprising a tip extending from the distal end of the sleeve. 299.  The inserter of claim 298, wherein the tip is tapered. 300.  The inserter of claim 299, wherein the tip end is formed by a cone. 301.  The inserter of claim 294, wherein the sleeve defines a tapered distal end. 302.  The inserter of claim 286, wherein the sleeve defines a first longitudinal aperture and the hollow push rod defines a second longitudinal aperture such that by rotating the push rod for the sleeve, the The first and second apertures are alignable and the inserter is released by the elongate stapling element. 205