JP3200919U - Self-luminous safety waistcoat - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a self-luminous safety waistcoat that is hard to be disconnected and highly durable, which is worn by police officers who conduct traffic control and inspections, as well as road construction guards and the like. SOLUTION: A set of two covered wires 18 for feeding power to a large number of light-emitting diodes 12 from a power supply box 14 attached to a first reflective marker strip B1 is provided on either the left or right placket 6 in the second reflective marker strip B2. To the lower end of the same one prop from the lower end of the same, and further U-turns from the lower end to the lower end of the other prop. It is installed as a long, continuous single piece that reaches the vicinity, and the bare wire portion from which the protective coating of the coated electric wire is peeled off and the lead wires of the respective light emitting diodes are soldered in an energized state. [Selection] Figure 1

Description

  The present invention relates to a self-luminous safety waistcoat worn by police officers who conduct traffic control, traffic accident handling, and inspections at night, as well as guards who are present at night road construction.

  In general, a plurality of light emitting diodes (LEDs) are scattered in a reflective sign band that is sewn in a substantially V-shape from the left shoulder and right shoulder of the waistcoat to the lower end of the front stand and the lower end of the back stand. Self-luminous safety waistcoats that are planted in a state and inform the vehicle driver at night by the flashing of the light-emitting diodes are known as disclosed in, for example, Patent Documents 1 to 4.

Utility Model Registration No. 3148064 JP 2006-176893 A JP 2004-308050 A Utility Model Registration No. 3042116

  However, in a known safety vest that is already on the market, adjacent light emitting diodes (LEDs) are connected to each other via a pair of cut two covered wires, and the protective coating of the covered wires is peeled off. There are many places where the bare wire and the lead wires of the light emitting diodes are soldered, and these places become seams, so the soldered places (seams) are left as they are and bonded. Since it is not covered and fixed by an agent or the like, it is easily bent and deformed from its base portion, and a disconnection accident is likely to occur.

  In particular, when a safety vest wearer carries a baggage with both hands while working at night or sinks into the bottom of the vehicle in a prone posture, the reflective sign strips lined up on the front of the vest body repeatedly slide. Since it is rubbed or deformed near the heel, the above-mentioned covered electric wire attached to it also follows and breaks early.

  Further, the light-emitting diode (LED) planted in the reflective sign band has a high luminance when viewed from the optical axis direction (front-rear direction), but is low when viewed from the lateral direction. Therefore, the waistcoat wearer's safety cannot be sufficiently ensured.

  The present invention aims to solve these various problems, and in order to achieve the object, the first reflective sign strip of a single-letter shape that can be opened and closed and surrounds the trunk portion is defined in claim 1;

  A substantially V-shaped second reflection sign band that continues from the pair of left and right front standing parts connected to the first reflection sign band through both shoulders to the pair of left and right rear standing parts similarly connected to the first reflection sign band. When,

  In a self-luminous safety waistcoat comprising a number of light emitting diodes scattered at appropriate intervals along the second reflective marker band,

  A set of two covered wires for supplying power to the light emitting diodes from the power supply attached to the first reflective marker band or the second reflective marker band passes through the shoulder from the left or right foremost part of the second reflective marker band. Once reaching the lower end of the same one of the rear standing parts, and further making a U-turn upward from the lower end, it reaches the vicinity of the lower end of the same other standing part through the left and right rear raising parts and shoulders. As a long seamless continuous single

  The bare wire portion from which the protective coating of the covered electric wire is peeled off and the lead wires of the respective light emitting diodes are soldered in an energized state.

  According to a second aspect of the present invention, the soldered portion between the bare wire portion of the covered electric wire and the lead wire of each light emitting diode is fixed in a covered state with a silicon-based adhesive.

  According to a third aspect of the present invention, a separate short second covered electric wire serving as a double circuit is additionally connected only to a position where the covered electric wire passes through the pair of left and right plackets in the second reflective marker band.

  5. A transparent light diffusing cover in which the heads of the respective light-emitting diodes bulging from the surface of the second reflective marker strip are inserted and fixed from the front side of the second reflective marker strip to the insulating seat plate in the backing state. It is characterized by being kept in an enclosed state by a conical head.

  Further, in claim 5, the silicon adhesive of each soldering part is further covered from the back side between the surface of the waistcoat body and the back surface of the second reflective marker band sewn to the surface in a bordered state. The adhesive sponge tape material with a long fixed band width is inserted and installed.

  According to the configuration of the first aspect, the second reflective marker strip or the first reflective marker strip is distributed to a large number of light emitting diodes (LEDs) scattered in the second reflective marker strip that is substantially V-shaped when viewed from the front and back. A set of two covered wires that are fed from the power supply attached to the cable is not cut at all along the way, but as a seamless continuous single piece covering the entire length of the second reflective marker band, Since the bare wire part from which the protective coating of the wire has been peeled off and the lead wires of each light-emitting diode are soldered to the energized state at the contact point where the three-dimensionally intersected, the energized state is remarkably stable, and from the root of the soldered part There is no risk of breakage of the covered wire.

  In that case, if the configuration of claim 2 is adopted, each piece of the soldering portion is fixed to the covered state with the silicon-based adhesive from the back side. A disconnection accident can be prevented more reliably.

  In particular, if the configuration of claim 3 is adopted, only the position of the placket where the rubbing or wrinkle deformation or the like is likely to occur in the second reflective marker band is limited to that of the continuous single long continuous wire passing through the position. In addition, since a separate short second covered electric wire that forms a double circuit with this is additionally connected, even if the long (first) covered electric wire is disconnected, the separate second covered electric wire The electric current can be supplied to the light emitting diode without any trouble by the electric wire, and the durability is further improved.

  If the configuration of claim 4 is adopted, the heads of the respective light emitting diodes attached so as to bulge from the surface of the second reflective marker band are surrounded by the conical head of the transparent light diffusion cover. Since the light emitted from each light-emitting diode is diffused at a wide angle by the light diffusing cover, it has high brightness and visibility when viewed from the lateral direction (left and right direction) as well as from the front and rear direction of the waistcoat wearer. It is possible to secure the safety of the waistcoat wearer.

  Furthermore, if the structure of Claim 5 is employ | adopted, between the back surface of a 2nd reflective marker strip and the surface of the vest main body to which the 2nd reflective marker strip was sewn, the adhesive sponge tape of a fixed zone | band width Since the material is inserted and installed for almost the same length as the above-mentioned covered wire, the silicone adhesive of each soldering part in many scattered distribution states is covered from the back side. If the tape material extends along with the second reflective marker strip, it will give bending resistance to the vest body, and as a result, it is possible to prevent the covered wire breakage accident more and more completely.

1 is a front view of a self-luminous safety waistcoat according to the present invention. It is a rear view of FIG. FIG. 3 is a sectional view taken along line 3-3 in FIG. 1. It is sectional drawing corresponding to FIG. 3 of the state which decomposed | disassembled the front body and back body of a waistcoat main body. FIG. 5 is a sectional view taken along line 5-5 of FIG. FIG. 6 is an enlarged cross-sectional view taken along line 6-6 in FIG. FIG. 7 is an enlarged sectional view taken along line 7-7 in FIG. It is a partial enlarged front view of the 2nd reflective marker belt. FIG. 9 is a sectional view taken along line 9-9 in FIG. 8. It is an electric circuit diagram. It is a top view of the power supply box which removes and shows an open / close lid. It is a front view of the state which attached each light emitting diode to the 2nd reflective marker belt. FIG. 13 is a sectional view taken along line 13-13 of FIG. It is a front view which extracts and shows an insulating seat board. FIG. 15 is a cross-sectional view taken along line 15-15 in FIG. 14. It is a front view which extracts and shows a light diffusion cover. FIG. 17 is a rear view of FIG. 16. FIG. 18 is a sectional view taken along line 18-18 in FIG. 17. It is a front view corresponding to FIG. 1 which shows the deformation | transformation embodiment of this invention. It is a front view corresponding to FIG. 12 which shows the attachment state of each light emitting diode with respect to the 2nd reflective marker strip of the deformation | transformation embodiment. It is a 21-21 line sectional view of Drawing 20. It is an electric circuit diagram of the modified embodiment.

  Hereinafter, the embodiment of the present invention will be described in detail with reference to the drawings. In FIGS. 1 to 7, which shows an overall outline of the safety vest, (V) is made from a mesh-like or other light fabric having air permeability. The front body (1f) has a symmetrical L-shaped front left body (1f-L) as compared to the waistcoat body and the body (1r) having a size and shape that covers the entire back of the wearer. And the right front body (1f-R) are only a pair, and the center position of the chest is open. The reference numeral is omitted from the bias tape sewn to the vest body (V) in an edged state.

  That is, the symmetrical substantially L-shaped vertical sides of the left front body (1f-L) and the right front body (1f-R) are shoulder belt-like front surfaces (2) (2) having a constant band width (W1) (for example, about 9 cm). ) Standing up in a substantially V shape in front view, and continuing to the back body (1r) through the shoulder surface of the upper end. Similarly, the symmetrical substantially L-shaped lateral side is in a continuous state with the back body (1r) as the front torso surfaces (3) and (3) having a constant band width (W2) (for example, about 9.5 cm).

  (4) (4) is a pair of male and female locking the front torso surfaces (3) and (3) of the left front body (1f-L) and the right front body (1f-R) at the summing portion at the center position. If it is a hook-and-loop fastener, and the left front body (1f-L) and the right front body (1f-R) can be opened and closed, slide fasteners, eyelet hooks, and other fasteners that replace the hook-and-loop fasteners (4) and (4) May be adopted.

  In that case, the front torso surfaces (3) and (3) of the left front body (1f-L) and the right front body (1f-R) respectively correspond to the corresponding back torso surface (not shown) of the back body (1r) and the waistline adjustment. The surface fastener (5L) (5L) (5R) (5R) is used, and the dimension according to a wearer's trunk | drum is adjusted by detachably locking the male and female pair one by one. Can be done. A hook-and-loop fastener is the most suitable as the locking tool because it can be adjusted steplessly.

  (B1) is a so-called one-letter shape (horizontal) along the corresponding rear torso surface of the left body (1f-L) and the front torso surface (3) (3) of the right front body (1f-R) to the back body (1r). As the arrangement of the laying state, it is a first reflective sign band having a constant width (W3) (for example, about 6 cm) sewn in the edging state and surrounds the wearer's torso. The hook and loop fasteners (4) and (4) can also be opened and closed. The fixed width (W3) of the first reflective marker band (B1) is slightly narrower than the fixed band width (W2) of the front trunk surfaces (3) and (3).

  Further, (B2) and (B2) have a constant width (W4) (for example, about 6 cm) slightly narrower than the front surface (2) and (2) of the left front body (1f-L) and the right front body (1f-R). A pair of left and right second reflective marker bands, which are connected to the first reflective marker band (B1) from the front (6) (6) through the shoulders (7) (7) to the back body (1r , And then to the rear stand (8) and (8) connected to the first reflective marker band (B1) on the rear trunk surface of the body (1r), as shown in FIGS. In addition to being sewed in a trimmed state along the front surface (2) and (2) of the left front body (1f-L) and right front body (1f-R), the back body (1r) It is sewn to the edging state. (B3) is a horizontal cross-shaped connecting reflective sign strip interposed between the rear standing portions (8) and (8) of the second reflective sign strips (B2) and (B2). Of course, it is sewn to the body (1r).

  The left and right pairs of the first reflective marker strip (B1) and the second reflective marker strip (B2) (B2) including the connected reflective marker strip (B3) are both retroreflective sheet materials (for example, trade name: reflexite). ) And a reflective cloth material such as a reflective cloth material, specifically, a base sheet or a white lining (9) such as vinyl chloride as shown in FIGS. 8 and 9, and a retroreflective film sheet material (10 ) And the parallel side edges (11L) and (11R) are welded by a constant band width (W5) (for example, about 8 cm) by a high frequency welder or the like. The welded side edges (11L) (11R) are sewn to the waistcoat body (V).

  The safety vest is self-luminous, and includes a large number of light emitting diodes (LEDs) (12) scattered in the vest body (V) and an electric circuit (C) as shown in FIG. Yes.

  That is, reference numeral (13) in FIGS. 3 and 4 is a pocket made of cloth sewn from the inner side (back side) to the front waist surface (3) of the left front body (1f-L) in the waistcoat body (V). There is a power box (14) that can be accommodated from above. A flap for opening and closing the upper portion of the pocket (13) and a locking tool such as a hook-and-loop fastener for keeping the pocket closed are not shown. In addition, the pocket (13) for storing such a power supply box (14) replaces the front body surface (3) of the left front body (1f-L), and the front body surface of the right front body (1f-R). It can be installed on the front surface (2) or (2) of (3) or the front body (1f).

  The power box (14) is a hard synthetic resin product with an open / close lid, which includes a required number of dry batteries (for example, two AA alkaline batteries) serving as a power source (15) as shown in FIG. A circuit board (16) is built in and can be turned on / off by operating a push button (power switch) (17) from the outside.

  (18) and (18) are a set of two flexible covered wires for electrically connecting the power source (15) and a number of light emitting diodes (LEDs) (12). As shown in the front view of FIG. 1, after being led out through the pocket (13) from the power supply box (14) attached to the vest body (V) as a seamless continuous one over the entire length, From the first reflective marker band (B1) on the front trunk surface (3) of the left front body (1f-L), a second reflective marker band (on the left side) is connected to the first reflective marker band (B1). The second reflective marker band (B2) of the front (left front) (6) reaches the shoulder (left shoulder) (7) and continues from the shoulder (left shoulder) (7). Part (left rear standing part) (8) heading downward and connected to its lower end Once reaching a first reflection label band is (B1).

  Further, as shown in the rear view of FIG. 2 from the lower end of the rear standing portion (left rear standing portion) (8), so as to stand upside down, another second reflective sign band (right second reflective sign band) (B2) is raised. As shown in FIG. 1 and the side sectional view of FIG. 5, the U-turn is turned upward along the portion (right rear standing portion) (8) and passes through the shoulder (right shoulder) (7) at the upper end. In addition, the wiring is extended long so as to continue downward along the fore part (right erect part) (6) and reach the end point near the lower end.

  In addition, as can be confirmed from the above description based on FIGS. 1, 2, and 5, in the illustrated embodiment, the covered wires (18) and (18) are connected to the second reflective marker band (left side of the left front body (1f-L)). Start wiring near the lower end of the second reflection sign band (B2) and end near the lower end of the second reflection sign band (the right second reflection sign band) (B2) in the right front body (1f-R). However, as long as the covered wires (18) and (18) are wired as a seamless continuous piece over the entire length of the pair of left and right second reflective marker bands (B2) and (B2), Wiring may be started from anywhere, and there is no limitation on the order or direction of the wiring.

  And the said continuous single long covered electric wire (18) (18) is a front part (6) (6) and a rear part (8) (8) in a pair of left and right 2nd reflective sign bands (B2) (B2). A large number of light emitting diodes (LEDs) (12) are attached in a scattered distribution state with an appropriate interval (D) only at a position passing through, and are supplied with power from the power source (15). .

  In this regard, in the illustrated embodiment, there are a total of eight light emitting diodes (12) on the left and right front parts (6) and (6) in the second reflective marker bands (B2) and (B2), and a rear part (8). Similarly, in the case of (8), a total of 8 left and right 4 pieces are attached, and the distance (D) between adjacent light emitting diodes (12) on the covered wires (18) and (18) is a constant dimension of about 10 cm. It has become.

  FIGS. 12 and 13 show the mounting state of each light-emitting diode (12) with respect to the second reflective marker strips (B2) and (B2). As will be apparent, the second reflective marker strip (B2) is shown in FIG. The large-diameter circular lead wires for receiving the lead wires (19) and (19) of the respective light-emitting diodes (12) in the front-standing portions (6) and (6) and the rear-standing portions (8) and (8) of (B2). A receiving hole (20) and a pair of left and right wedge leg receiving long holes (21, 21) for receiving a wedge leg of a transparent light diffusion cover described later are formed as openings. The circular lead wire receiving hole (20) is in a positional relationship sandwiched from both the left and right directions by both wedge leg receiving long holes (21) and (21).

  Further, (22) is an insulating seat plate applied to the back surface of the second reflective marker band (B2) (B2), and is extracted from a hard synthetic resin such as polypropylene as shown in FIGS. A pair of small-diameter left and right lead wire receiving holes (20) communicating with the large lead wire receiving holes (20) on the side of the second reflective marker bands (B2) (B2) are formed in the center portion. 23) (23) and a pair of left and right wedge leg receiving slots which are in communication with the wedge leg receiving slots (21) and (21) on the second reflective marker band (B2) (B2) side in the periphery. (24) and (24) are each aperture-distributed.

  Therefore, the lead wires (19) and (19) of the light emitting diode (12) from the front side of the second reflective marker bands (B2) and (B2), the lead wire receiving hole (20) having a large diameter and the insulating seat plate (22). Can be inserted into the lead wire receiving hole (23) (23) having a smaller diameter on the side, and the leading end of the inserted lead wire (19) (19) and the protective coating (25 ) The contact point where the bare wire portions (26) and (26) from which the (25) has been peeled is three-dimensionally crossed is soldered on the back side of the insulating seat plate (22), thereby maintaining the energized state. (P) (P) indicates the soldered portion.

  In this case, as shown in FIGS. 12 and 13, the soldered portions (P) and (P) of the lead wires (19) and (19) and the bare wire portions (26) and (26) are replaced with silicon adhesive ( It is preferable to keep the entire covering state in 27) fixed. Further, it is desirable that the covered wires (18) and (18) are fixed and maintained by the silicon-based adhesive (27) even inside the power supply box (14). This is because it is possible to prevent the possibility that the covered electric wires (18) and (18) are swayed and deformed improperly from the roots of the soldered portions (P) and (P) or in the middle of other wirings, and thus disconnected.

  The light diffusing cover (28) mentioned above is a transparent synthetic resin product such as polycarbonate, as extracted and shown in FIGS. 16 to 18, and has a conical head (29) having substantially the same diameter as the insulating seat plate (22). And a pair of left and right wedge legs (30) and (30) protruding downward from the second leg, and the wedge legs (30) and (30) are connected to the second reflective marker bands (B2) and (B2) as shown in FIGS. ) From the front side of the wedge leg receiving long holes (21) (21) and the wedge leg receiving long holes (24) (24) on the insulating seat plate (22) side, thereby emitting light from the light emitting diode (12). Can be diffused at a wide angle (θ) (for example, about 120 degrees).

  A head escape hole (31) of the light emitting diode (12) is formed in the center of the conical head (29) in the light diffusion cover (28), and the lead wires (19) (19) are connected to 2 The head (32) of the light emitting diode (12) inserted and fixed from the reflective sign bands (B2) (B2) to the insulating seat plate (22) is in the head escape hole (31) of the light diffusion cover (28). The light diffusing cover (28) bulges outward from the surface of the second reflective marker strip (B2) (B2) by a certain height (H) (for example, about 7 mm). Therefore, the light emission of the light emitting diode (12) that is greatly diffused by this can be easily seen from the lateral direction of the waistcoat wearer by the vehicle driver, which helps to ensure safety.

  Further, a large number of drain grooves (33) are provided on the conical surface of the conical head (29) in the light diffusing cover (28) in a radially symmetric arrangement, and rainwater can be discharged along this. However, it also helps to improve the brightness of the conical surface. Note that the wedge legs (30) and (30) of the light diffusion cover (28) are locked to the back surface of the insulating seat plate (22), and there is no possibility of easily coming out to the front side.

  First, soldered portions (P) (P) of the lead wires (19) and (19) of the light emitting diode (12) and the bare wire portions (26) and (26) of the long covered wires (18) and (18) are provided. As described above, it is preferable to fix the silicon adhesive (27) in the covering state. However, the back surface of the second reflective marker strip (B2) (B2) and the second reflective marker strip (B2) (B2). A constant band width (W6) (for example, as shown in FIGS. 6 and 7) between the front face (2) (2) of the front body (1f) and the surface of the back body (1r) of the front body (1f) to which The adhesive sponge tape material (34) of about 3 cm) is inserted and installed in a state extending substantially the same length as the above-described covered wires (18) and (18), and soldering in a large number of scattered distribution states The silicone adhesive (27) of the parts (P) and (P) is further backed by the sponge tape material (34). All it is desirable to coat.

  Then, since the sponge tape material (34) gives a bending resistance to the second reflective marker bands (B2) (B2), it is caused by improper deflection movement deformation of the covered electric wires (18) (18). The disconnection accident can be prevented more reliably.

  Next, FIGS. 19 to 22 show a preferred modified embodiment of the present invention, in which the front body (1f) of the waistcoat body (V) is more easily carried than the back body (1r). The long covered electric wires (18) and (18) are likely to cause rubbing, wrinkle deformation, and the like, and the long covered wires (18) and (18) particularly pass through the left and right second reflective marker bands (B2) and (B2), in particular, the erect portions (6) and (6). There is a great risk of disconnection at the position.

  For this reason, the separate short two wires 1 only at a position where the two sets of the above-described covered wires (18) and (18) pass through the standing portions (6) and (6) of the second reflective marker bands (B2) and (B2). By additionally connecting a pair of second covered wires (35) and (35), even if the long (first) covered wires (18) and (18) cause a disconnection accident, they can be energized without any problem. A double circuit is formed.

  In this respect, in the case of the illustrated embodiment, among the light emitting diodes (12) distributed in four on the left and right front portions (6) and (6) of the second reflective marker bands (B2) and (B2), 2 at the intermediate position thereof. In other words, the bridges are thinned out, and the uppermost position and the lowermost position are connected in a superimposed manner by the same pair of short second covered wires (35) (35). .

  And the bare wire part (37) (37) which peeled off the protective film (36) (36) of the 2nd covered electric wire (35) (35), and the lead wire (19) (19) of the said light emitting diode (12) The three-dimensionally crossing contact point is also soldered, but in this case, the continuous second long (first) covered wire (18) (18) and the short second covered wire (35) ( 35) are stacked in two upper and lower stages, and the lead wires (19) and (19) of the light emitting diode (12) are straddled across the bare wire portions (26), (26), (37) and (37). It is preferable that the lead wires (19) and (19) and the first and second covered electric wires (18), (18), (35) and (35) are collectively soldered together. Lead wires (19) and (19) of the light emitting diode (12) and bare wire portions (26), (26), (37) and (37) in the first and second covered electric wires (18), (18), (35) and (35) This means that the soldering parts (P), (P), (P), and (P) are integrated into one place (one point).

  In addition, in the modified embodiment of FIGS. 19 to 22, the soldered portions (P), (P), (P), and (P) are fixed to the covered state with the silicon-based adhesive (27) and further fixed from the back side. It is the same as that of the said embodiment of FIGS. 1-18 that it is preferable to coat | cover with the adhesive sponge tape material (34) with a long strip | belt width (W6). Other configurations are also substantially the same as those of the above-described embodiment of FIGS. 1 to 18. Therefore, only the same reference numerals as those of FIGS. Omitted.

  The safety waistcoat of the embodiment according to the present invention has the above-described configuration, and is worn on the upper body from the outside of the clothing in the same manner as a conventional safety waistcoat. Then, when the pocket (13) is opened and the push button (power switch) (17) of the power supply box (14) is turned on, a large number of scattered light emitting diodes (LEDs) (12) are simultaneously scattered. When the LED is flashed and turned off, the light emitting diode (12) is turned off.

  However, the push button (power switch) (17) may be used as a changeover switch, and the light emitting diode (12) may be changed over in a three-stage manner of blinking → continuous lighting → off. The light emission color of the light emitting diode (12) is not limited to the red light emitting diode, and a chromatic light emitting diode other than the red light emitting diode can be employed.

  In any case, the flashing of the light emitting diodes (12) scattered in the front portions (6) and (6) and the rear portions (8) and (8) of the second reflective marker bands (B2) and (B2). Or, since the light emission to be lit is diffused at a wide angle (θ) by the individual light diffusion covers (28) and (28), not only from the front and rear direction of the waistcoat wearer, but also from the lateral direction (left and right direction). Visibility is also high, and the waistcoat wearer's safety is excellent.

The covered electric wires (18) and (18) for supplying power to the light emitting diode (12) are seamless and continuous over the entire length that is not cut in the middle, and the protective coatings (25) and (25). The stripped bare wire portions (26) and (26) and the lead wires (19) and (19) of the light emitting diode (12) three-dimensionally crossed over the bare wire portions are soldered at the crossing contacts. Therefore, the energized state is remarkably stable, and there is no possibility that the covered wires (18) and (18) are disconnected. The durability can be remarkably improved.

  In particular, as a configuration illustrated in the modified embodiment of FIGS. 19 to 22, the covered electric wires (18) and (18) are provided with a pair of left and right plackets (6) and (6) in the second reflective marker bands (B 2) and (B 2). If a separate short second covered electric wire (35) (35) that becomes a double circuit is additionally connected only at the position where it passes, the long continuous single (first) covered electric wire (18) (18) Even if a disconnection accident occurs, the second covered wire (35) (35) can cause the light emitting diode (12) to emit light without any trouble, and the durability is further improved.

  Furthermore, in any of the embodiment of FIGS. 1 to 18 and the modified embodiment of FIGS. 19 to 22, the bare wire portions (26) and (26) of the covered wires (18), (18), (35), and (35). (37) Solder portions (P), (P), (P), and (P) between the lead wires (19) and (19) of the light emitting diodes (12) with the silicon-based adhesive (27). If fixed and maintained in the covered state, the covered electric wires (18), (18), (35), and (35) are not likely to be illegally deformed from the roots of the soldered portions (P) (P) (P) (P), The prevention effect of the disconnection is further improved.

(1f) · Front body (1r) · Rear body (2) · Front face (3) · Front torso face (4) (5L) (5R) · Hook fastener (6) · Front part (7) · Shoulder ( 8) ・ Standing part (9) ・ Base sheet (10) ・ Retroreflective film sheet material (11L) (11R) ・ Side edge (12) ・ Light emitting diode (13) ・ Pocket (14) ・ Power supply box (15)-Power supply (16)-Circuit board (17)-Push button (18) (35)-Coated wire (19)-Lead wire (20) (23)-Lead wire receiving hole (21) (24)- Wedge leg receiving long hole (22), insulating seat plate (25) (36), protective coating (26) (37), bare wire part (27), silicon adhesive (28), light diffusion cover (29), Conical head (30), wedge leg (31), light emitting diode escape hole (3 ) ・ Head (33) ・ Drainage ditch (34) ・ Sponge tape material (C) ・ Electric circuit (B1) ・ First reflective marker strip (B2) ・ Second reflective marker strip (B3) ・ Linked reflective marker strip (P) Soldering part (V) Vest body

Claims (5)

A first reflective sign strip that can be opened and closed to surround the torso;
A substantially V-shaped second reflection sign band that continues from the pair of left and right front standing parts connected to the first reflection sign band through both shoulders to the pair of left and right rear standing parts similarly connected to the first reflection sign band. When,
In a self-luminous safety waistcoat comprising a number of light emitting diodes scattered at appropriate intervals along the second reflective marker band,
A set of two covered wires for supplying power to the light emitting diodes from the power supply attached to the first reflective marker band or the second reflective marker band passes through the shoulder from the left or right foremost part of the second reflective marker band. Once reaching the lower end of the same one of the rear standing parts, and further making a U-turn upward from the lower end, it reaches the vicinity of the lower end of the same other standing part through the left and right rear raising parts and shoulders. As a long seamless continuous single
A self-luminous safety vest characterized in that the bare wire portion from which the protective coating of the coated electric wire is peeled off and the lead wires of the respective light emitting diodes are soldered in an energized state.   2. The self-luminous safety waistcoat according to claim 1, wherein a soldered portion between the bare wire portion of the covered electric wire and the lead wire of each light emitting diode is fixed in a covered state with a silicon-based adhesive.   2. The self-covered electric wire according to claim 1, wherein a separate short second covered electric wire serving as a double circuit is additionally connected only at a position where the covered electric wire passes through the pair of left and right plackets in the second reflective marker band. Luminous safety waistcoat.   A conical head of a transparent light diffusing cover in which the head of each light-emitting diode that bulges from the surface of the second reflective marker band is inserted and fixed from the front side of the second reflective marker band to an insulating seat plate in a backing state The self-luminous safety waistcoat according to claim 1, wherein the self-luminous safety vest is maintained in an enclosed state.   Between the surface of the waistcoat body and the back surface of the second reflective marker band sewn to the surface in a bordered state, the silicon adhesive of each soldering part is further covered from the back side with a long fixed band width. The self-luminous safety waistcoat according to claim 2, wherein an adhesive sponge tape material is inserted and installed.

Images