JPH0247738Y2 - - Google Patents

Description

[Detailed description of the invention] [Technical field] The present invention relates to a partition device that partitions a room by suspending the partition body along upper and lower rails, and specifically aims to eliminate the gap between it and the floor in the closed state. The present invention also relates to a technology that allows the partition body to move easily.

[Background Art] Conventionally, in a partition device in which an opening is opened and closed by suspending a partition body along upper and lower rails, a gap is created between the partition body and the floor in the closed state, and this creates a gap between the partition body and the floor, resulting in light shielding, sound insulation, wind shielding, etc. There was a problem with this point. To solve this problem, Jitsukaiaki
When the floor-contacting member is provided in a state where it is always urged downward, as in Japanese Patent No. 52-126643, there is a problem that the floor-contacting member acts as resistance during traveling, making it difficult for the partition to travel.

[Purpose of the invention] The present invention was made in view of the above problems, and its purpose is to reduce the gap between the partition and the floor when the partition is in the closed state and is run in a suspended state. without causing
Another object of the present invention is to provide a partition device that allows the partition body to move easily even when a floor contacting member is present.

[Disclosure of the Invention] In the present invention, the partition body 4 is installed along the upper rail 1 and the lower rail 2 so that the partition body 4 can be suspended and run freely, and a floor contact member 65 is installed at the lower part of the partition body 4 over substantially the entire width of the partition body 4. is provided so that it can be raised and lowered freely, and the floor contact member 65
An operating tool 79 for raising and lowering the floor is provided on the partition 4, and a fitting part 86 is formed at the lower end of the flooring member 65 to fit into the groove 85 of the lower rail 2 when the flooring member 65 is lowered. This relates to a partitioning device, and by configuring it in this way, the above object can be achieved. In other words, the floor contact member 6
5 is lowered, by fitting the fitting part 86 at the lower end into the groove 85 of the lower rail 2,
It is possible to eliminate the gap between the partition body 4 and the floor, and by providing the partition body with an operation tool for raising and lowering the floor contact member, the floor contact member can be moved by operating the operation tool provided on the partition body. By raising and lowering the partition and lowering the floor-contacting member, sufficient insulation performance can be obtained, and the partition body can be moved easily by raising the floor-contacting member by operating the operating tool. be.

Embodiments of the present invention will be described in detail below based on the drawings.

A plurality of partition bodies 4 such as partition panels are movably built between an upper rail 1 fixed to a lintel and a lower rail 2 fixed to a sill. These partition bodies 4 are pulled out in a straight line along the upper and lower rails 1 and 2 as shown in FIG.
By abutting adjacent ones against each other, the opening in the room can be closed and partitioned. In such a closed state, the floor contact member 65 provided on the partition body 4, which will be described later, is used as a locking means to lock the movement and determine the position of each partition body 4, so that the partition body 4 will not open. It's like this. To open the partition body 4 and release the partition, operate the lock handle 6 of the partition body 4 at the right end in FIG. The partition body 4 at the right end is rotated around its right end portion so as to be approximately orthogonal to the upper and lower rails 1 and 2 to open it, and then the remaining partition bodies 4 are released from the locked state, as shown in Fig. 3. Then, the remaining partition members 4 are rotated around their right end portions to bring them into a non-partition state. The partition body 4 rotated into a non-partition state in this way is connected to the upper and lower rails 1 and 2.
The rooms are gathered at the left end of the room, allowing the interior of the room to be opened wide and the partition to be removed.

The configuration for performing the above operations will be described in detail below.

As shown in FIG. 5, the upper rail 1 is divided into a rack and pinion chamber 7 extending over its entire length and a runner chamber 8 below this, while the lower rail 2 has only the rack and pinion chamber 7 as shown in FIG. It is formed to the full length. A rack holding piece 9 is provided along the entire length of one vertical wall of each rack and pinion chamber 7. As shown in FIGS. 7 to 9, the rack gear 3 is considerably shorter in length than the upper and lower rails 1 and 2. A connecting protrusion 11 is formed at one end in the length direction of the rack gear 3, and a connecting recess 12 is formed at the other end. Furthermore, an engagement groove 10 is formed in the rack gear 3 over its entire length. Thus, by engaging the engagement groove 10 with the rack holding piece 9 and connecting the connecting protrusion 11 with the connecting recess 12, the rack gear is inserted along the vertical wall on one side of the rack and pinion chamber 7 of the upper and lower rails 1 and 2. 3 is provided over the entire length of the upper and lower rails 1 and 2. Protrusions 62 are provided on the side walls of the engagement groove 10 to reduce sliding resistance when engaging the rack holding piece 9. Such a rack gear 3 is a molded product of synthetic resin.

Rack gears 3 provided in the rack and pinion chambers 7 of the upper and lower rails 1 and 2 mesh with pinion gears 5 provided horizontally rotatably on the partition body 4 side, and also rotatably vertically around a horizontal axis on the partition body 4 side. A runner 13 provided in the runner chamber 8 of the upper rail 1 is rotatably mounted on the runner receiving surface 14 of the runner chamber 8, and when the partition body 4 runs, the pinion gear 5 meshes with the rack gear 3. The runner 13 is configured to roll on the runner receiving surface 14 while maintaining the engaged state. In this way, by allowing the partition body 4 to travel while the pinion gear 5 meshes with the rack gear 3, the traveling distance of the upper and lower portions of the partition body 4 is made equal, and the partition body 4 can travel without wobbling. It's like this. In such a case, the load of the partition body 4 is not applied to the meshing portion between the rack gear 3 and the pinion gear 5, so that the meshing state is not strained. The configuration will be explained below.

10 to 12 show a runner holding block 15, in which an L-shaped block main body 17 is provided with a mounting hole 16, and a vertical plate 1 of the block main body 17 is provided with a mounting hole 16.
A cylindrical portion 20 in which a screw hole 19 is formed is provided at the upper end portion of the cylindrical portion 8 . However, the runner holding block 15
is attached to the upper corner of one end of the partition body 4 with screws as shown in FIGS. 13 and 14. 16 and 17a and 17b show the runner part 21, in which the pinion gear 5 is inserted into the pinion shaft 22 so as to be integrally rotatable, the bearing 23 is brought into contact with the lower part of the pinion gear 5, and the E ring 24 The pinion gear 5 is prevented from coming off. On the other hand, the 17th
As shown in FIG. b, a substantially U-shaped strength member 26 is fitted into the casing 25, a cylindrical outer shaft 28 is inserted through the central hole 27 between the casing 25 and the strength member 26, and the holding block 29 is shaped like a substantially U shape. The outer shaft 28 is fitted into the strength member 26 of the outer shaft 28, and the collar 30 of the outer shaft 28 is held down by a presser block 29 to prevent the outer shaft 28 from coming off and to prevent the outer shaft 28 from rotating.
A horizontal shaft 32 is inserted into the horizontal hole 31 of the casing 25, the strength member 26, and the holding block 29, and the roller-shaped runner 13 is rotatably inserted into the horizontal shaft 32, and the E-ring 24 is used to prevent it from coming off. be. A male thread 33 is formed on the lower outer surface of the outer shaft 28. The runner section 21 is connected to the runner holding block 15 by screwing the external thread 33 of the outer shaft 28 into the threaded hole 19 of the cylindrical section 20 of the runner holding block 15. The pinion shaft 22 is rotatably inserted through the vertical hole 34 of the holding block 29 and the cylindrical outer shaft 28. In such a case, the outer race of the bearing 23 on the pinion shaft 22 side is fitted into the recess 35 of the holding block 29, so that the pinion shaft 22 can rotate smoothly, and the pinion meshing with the rack gear 3 The gear 5 is designed to mesh and rotate smoothly.

According to such a configuration, the runner part 21 is screwed to the runner holding block 15 connected to the partition body 4 side, and the runner 13 which is rotatable to the runner part 21 is mounted on the runner receiving surface 14 of the upper rail 1. The load of the partition body 4 can be received by the upper rail 1, and the load of the partition body 4 is not applied to the pinion gear 5 side, so that the meshing state of the pinion gear 5 and the rack gear 3 is not forced. It doesn't cost anything.

18 to 21 show the pivot receiver 36, in which a mounting hole 39 is provided in the lower horizontal piece 38 of the L-shaped receiver body 37. A cylindrical portion 42 in which an insertion hole 41 is formed is formed at the lower end of the vertical piece 40 of the receiving body 37 . Therefore, the pivot receiver 36 is placed in the 24th position.
As shown in the figure, it is attached to the lower corner of one end of the partition body 4 with screws. and pinion shaft 22
A pinion gear 5 is attached to the lower end so as to be integrally rotatable, and a lower rail 2 is mounted above the pinion gear 5.
A slider 43 is rotatably provided. This slider 43 is provided with a miniature bearing 44 to reduce sliding resistance with the lower rail 2. Further, the slider 43 also serves as a dust removal tool 63 for removing dust attached to the rack gear 3, and the dust removal tool 63 has a structure in which the rack gear 3 is removed at the front and back of the pinion gear 3, as shown in FIGS. 24b and 24c. A garbage discharge inclined surface 64 is formed to protrude forward in the running direction of the partition body 4 near the side thereof. The pinion shaft 22 is rotatably inserted into the insertion hole 41 of the cylindrical portion 42 of the pivot receiver 36, and the pinion gear 5 is also meshed with the rack gear 3 at the lower part. Flange portion 45 and cylindrical portion 42 of pinion shaft 22
A spring 46 is interposed between the pinion shaft 22 and the lower rail 2 to prevent the pinion shaft 22 from lowering due to its own weight and increasing the sliding resistance between the pinion shaft 22 and the lower rail 2. In such a case, the dust remover 63 is removed from the rack gear 3.
By removing dust adhering to the rack gear 3 and discharging it away from the rack gear 3 using the dust discharge slope 64, the rack gear 3 is always kept clean and the proper meshing state between the rack gear 3 and the pinion gear 5 is maintained. The partition body 4 is maintained so that the partition body 4 can run stably for a long period of time.

The pinion shaft 22 is divided into three parts. In other words, it is divided into three parts: an upper pinion shaft 22a rotatably supported by the runner part 21, a lower pinion shaft 22c rotatably supported by the pivot receiver 36, and an intermediate pinion shaft 22b connecting these. be. The upper pinion shaft 22a and the intermediate pinion shaft 22b are connected as shown in FIGS. 25 to 27. That is, the lower end of the upper pinion shaft 22a and the upper side of the lower pinion shaft 22c are each chamfered into a half-moon shape. These chamfered portions 47 are connected to the upper joint 48.
They are each slidably inserted into a half-moon-shaped hole 49 formed therethrough. As shown in FIGS. 28 to 29, this upper joint 48 is attached to a C-shaped holding portion 50.
It is held rotatably but immovably up and down by an upper retainer 51 formed with a. This upper presser 51 is attached to the side end surface of the partition body 4 with screws. The intermediate portion of the intermediate pinion shaft 22b is also chamfered in a half-moon shape, and this chamfered portion 47 is connected to the circular hole of the holder 52 as shown in FIG.
1, and the holding body 52 is held by the upper presser 51 so as to be rotatable and not moveable up and down. The lower end of the intermediate pinion shaft 22b and the upper end of the lower pinion shaft 22c are each chamfered into a semicircular shape to form an intermediate partition 53 and a semicircular hole 49, as shown in FIGS. 35 to 37. Each chamfered portion 47 is inserted non-rotatably into the semicircular hole 49 of the lower joint 54, and the lower joint 54 is formed into a lower presser with C-shaped holding portions 50 formed above and below, as shown in FIGS. 38 to 40. 55, it is held rotatably but not vertically movable as shown in FIGS. 41 to 43. In this way, the upper, middle, and lower pinion shafts 22a, 22b, and 22c are connected so that they can slide vertically and rotate together. In this way, the three pinion shafts 22a, 22
By configuring b and 22c to be integrally rotatable, the upper and lower pinion gears 5 can be rotated at a constant speed, and the partition body 4 can run more smoothly.

In order to provide the runner portion 21 having the above-described pinion gear 5 and the pivot receiver 36 on the partition body 4, as shown in FIG. The runner part 21 and the pivot receiver 3 are placed in this mounting recess 56.
6 and pinion shaft 22 are inserted and mounted. And runner holding block 15, pivot receiver 3
6. Insert and lock the joint cover 58 from the vertical direction into the grooves 57 formed in the upper presser 51 and the lower presser 55, respectively, and use the joint cover 58 to fit the mounting recess 56 and the various types inserted into the inside thereof. The parts are covered. The joint cover 58 is provided with an elastic cushion material 59. A connection recess 60 is formed at the other end of the partition 4, and by inserting the elastic cushion material 59 of the adjacent partition 4 into the connection recess 60, the partitions 4 can be connected without any gaps. The partitions are designed to prevent light from leaking or wind from entering. In such a closed state of the partition body 4, the floor contacting member 65 provided over substantially the entire length of the partition body 4 is fitted into the lower rail 2,
A gap between the partition body 4 and the floor 72 is eliminated. The configuration will be explained below.

A floor contacting member 65 is provided at the lower part of the partition body 4 over substantially the entire width of the partition body 4 so as to be movable up and down.
The floor contact member 65 is formed of a metal frame having a substantially U-shaped cross section. Inside the floor contact member 65, a front link 66 is rotatably attached to the front end portion in the running direction by a pin 73. A rear link 67 is rotatably attached to the rear end of the floor contacting member 65 by a pin 73. The free ends of these front and rear links 66, 67 are connected via elongated holes 68 formed in each link 66, 67 with a connecting pin 69 so as to be relatively rotatable. A fixing pin 70 connects the middle part of each link 66, 67.
It is rotatably attached to the partition body 4 at. An elevating and lowering operating body 71 is connected to a floor contacting member 65 portion of the front and rear ends of the partition body 4 on the opposite side to the side where the pinion gear 4 is provided.

The upper rail 1 and the lower rail 2 are each formed into a channel shape with a lip in cross section, and the outer shaft 28 inserted into the casing 25 is inserted through the gap 74 between the lips, and the horizontal shaft 32 is inserted into the casing 25.
The runner 13 rotatably supported via the lip is mounted on the runner receiving surface 14 on the upper surface of the lip as described above, and the runner 13 is guided by the guide ridge 75. Further, the slider 43 is inserted into the groove 85 of the lower rail 2 so as to be freely movable, so that the slider 43 can be guided and run on the lower rail 2. Further, a rubber fitting part 86 formed at the lower end of the floor contacting member 65 can be fitted into the groove 85 of the lower rail 2. Notches 78 are provided in the lip of the upper rail 1 at intervals approximately equal to the length of the partition panel 4 in its length direction. On the other hand, the runner 1 of the partition panel 4
3 and the side opposite to the side where the slider 43 is provided,
As shown in FIGS. 46 to 48, a lock body 77 is provided at its upper end so as to protrude from the guide tube 76 and to be retractable. The lock body 77 is shaped so that it can be fitted into the notch 78. A lock body 77 and a floor contact member 65 are provided on the side end surface of the partition panel 4.
An operating tool 79 for protruding and retiring is provided so as to be slidable up and down with respect to a slide guide 80. By sliding the operating tool 79 up and down, the pair of rotating discs 8 are moved through the rack and pinion mechanism 81.
2 is rotatably provided on the partition panel 4.
The locking body 77 and the floor contacting member 65 are connected to these rotary discs 82 via bent links 83 as the lifting/lowering operation body 71 so as to be able to protrude and retract as they rotate. That is, when you put your finger on the recessed part 84 of the operating tool 79 and pull the operating tool 79 upward, the pair of rotary disks 82 are meshed and rotated via the rack and pinion mechanism 81, and are locked via the bent link 83. The body 77 and the floor contact member 65 are made to protrude from the upper and lower ends of the partition panel 4. Further, the lock body 77 and the floor contacting member 65 can be retired by pulling down the operating tool 79.

[Effects of the invention] In summary, the present invention eliminates the gap between the partition body and the floor by fitting the fitting part of the lower end into the groove of the lower rail when the floor-contacting member is lowered. In addition, since the fitting part of the lower end of the flooring member that spans almost the entire width of the partition body is inserted into the groove of the lower rail, it is possible to prevent the partitioning body from swaying on the left and right sides, and the flooring member can be moved up and down. Since an operating tool is provided on the partition body, the floor contact member can be raised and lowered by operating the operation tool provided on the partition body, and by lowering the floor contact member,
There is an advantage that while sufficient insulation performance can be obtained, the floor-contacting member can be raised by operating the operating tool and the partition body can be moved lightly.

[Brief explanation of the drawing]

Fig. 1 is a front view of a partitioned state of an embodiment of the present invention, Fig. 2 is a partially cutaway plan view of the same, and Fig. 3 is a partially cutaway plan view of the same.
The figure is a plan view illustrating the action of opening and rotating the partition body from the partition state to the partition release state, FIG. , a cross-sectional view showing the relative positions of the pinion gear and the runner, FIG. 6 is a cross-sectional view of the lower rail portion of the above, FIG. 7 is a partially broken plan view of the rack gear of the above, and FIG. 8 is a front view of the same. Figure 9 is a sectional view of the same as above, Figure 10 is a front view of the runner holding block of the same as above, and Figure 11 is a front view of the same as above.
FIG. 12 is a side view of the same as the above, FIG. 13 is a partially broken front view showing the connection relationship between the runner holding block and the runner part of the above, and the first
4 is a plan view of the same as the above, FIG. 15 is a partially broken side view of the same as the above, FIG. 16 is a partially broken front view of the runner part of the same as the above, FIGS. 17 a and b are front sectional views of the same as the above, An exploded perspective view, FIG. 18 is a front view of the pivot receiver, FIG. 19 is a plan view of the same, FIG. 20 is a bottom view of the same, FIG. 21 is a side view of the same, and FIG.
The figure is a partially cutaway front view showing the connection structure around the pivot receiver as above, Fig. 23 is a partially cutaway side view of the same as above, Fig. 24a is a bottom view of the same as above, and Figs. 24b and c are the sliding parts. A perspective view showing the dust removal tool and pinion gear that also serves as a mover, a plan view showing the dust removal function, and Fig. 25 a front cross section showing the connection structure between the upper pinion shaft and the intermediate pinion shaft at the upper joint part of the same. Figure 26 is a side view of the same as the above, Figure 27 is a plan sectional view of the same as the above, Figure 28 is a side view of the upper presser of the same as the above, Figure 29 is a plan view of the same as the above, and Figure 30 is a front view of the same as the above. , FIG. 31 is a side view showing the holding state of the intermediate pinion shaft as above, FIG. 32 is a plan sectional view as above,
Fig. 33 is a front sectional view of the same as above, Fig. 34 a and b are a front view and a plan view of the same as above, Fig. 35 is a front view of the lower joint of same as above, Fig. 36 is a plan view of same as above, 3
Fig. 7 is a sectional view of the same as above, Fig. 38 is a side view of the lower presser of the above, Fig. 39 is a front view of the same as the above, Fig. 40 is a sectional view taken along the - line of Fig. 38, and Fig. 41 is the intermediate pinion of the same as the above. A side view showing the connection state between the shaft and the lower pinion shaft, Fig. 42 is a plan sectional view of the same as the above, Fig. 43 is a front sectional view of the same as the above, and Fig. 44 shows the mounting recess of the partition body and the mounting thereon. Fig. 45 is a perspective view of the upper rail shown above, and Figs. 46, 47, and 48 show the operation of the lock body and floor contact member shown above, respectively. 49 is a plan view of the partition body as above, FIG. 50 is a bottom view as above, and FIG. 51 is a part of the lowered state of the floor contact member as above. An omitted front view, FIG. 52 is a perspective view of the same as above, and FIG. 53 is a partially omitted front view of the same as above in an elevated state.
FIG. 54 is a perspective view of the same as above, FIG. 55 is a schematic front view of the same as above in the raised state, FIG. 1 is an upper rail, 2 is a lower rail, 4 is a partition body, 65 is a floor contact member, 79 is an operating tool, and 85
86 is a concave groove, and 86 is a fitting portion.

Claims (1)

[Scope of utility model registration request] A partition body is built in such a way that it can be suspended and run along an upper rail and a lower rail, and a floor contact member is provided at the bottom of the partition body over substantially the entire width of the partition body so that the floor contact member can be raised and lowered, and an operating tool for raising and lowering the floor contact member. is provided on the partition body, and a fitting part is formed at the lower end of the floor contacting member to fit into the groove of the lower rail when the flooring member is lowered.