JP2004265624A - Connected long body and cable - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a continuous long body for a cable capable of storing a large amount of information related to the cable as compared with a conventional one, and hardly making the stored information out of recognition even when a long time elapses after installation. <P>SOLUTION: This continuous long body 1 has: a string-like holding member 3; and a plurality of RFID elements 5 held by the holding member 3 with spaces in the longitudinal direction of the holding member 3. <P>COPYRIGHT: (C)2004,JPO&NCIPI

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
The present invention relates to a continuous body formed by providing a plurality of RFID (Radio Frequency Identification) elements at intervals in a longitudinal direction of a long member, and a cable provided with the continuous body. , Wherein the elongated member is a string-shaped member.
[0002]
[Prior art]
Conventionally, for example, as a method of identifying only a target cable from among a large number of laid metal cables or optical fiber cables, printing is performed on the outer surface (sheath) of each cable, or Methods for attaching tags and identifying cables are known.
[0003]
Here, the printing is performed by applying information such as a manufacturer name, a manufacturing date, a cable product name, and a cable length to the outer surface of the cable with ink, a thermal transfer laser, or the like. Further, information substantially similar to the printed information is engraved on the tag, for example. Then, the tag is attached to an outer cover of the cable, or is suspended from the cable using, for example, a metal wire.
[0004]
By the way, when printing is performed on the cable surface, the printing is performed along the longitudinal direction of the cable. Therefore, when the number of characters increases, it is necessary to expose the laid cable over a long section. However, if the cable is, for example, laid in a trough and the trough is covered, it is necessary to remove the cover over a long section, and if the trough is buried in earth and sand, It is necessary to remove earth and sand over a long section, and a large number of steps are required to expose the cable.
[0005]
Therefore, when performing the above-described printing, it is desirable to minimize the length of the printing along the longitudinal direction of the cable. However, if the length of the printing is limited in this manner, the total information necessary for the cable is required. However, there is a problem that it is difficult to print on the outer sheath of the cable.
[0006]
In addition, information on the cable, such as characters and symbols printed on the outer surface of the cable, may be unreadable due to elapse of a long period of time or, for example, rubbing at the time of cable installation or the like. There is a problem.
[0007]
Further, when the tags are provided on the cable, a large number of tags must be provided at regular intervals on the long cable, which takes a lot of man-hours when providing the tags, and, like the case of printing, It is difficult to write a lot of information on the tag.Furthermore, the tag provided on the cable is detached from the cable, or the information written on the tag is faded or disappears over time and becomes unreadable. There is a problem that may be.
[0008]
Therefore, a cable having a configuration in which, for example, a QR code (two-dimensional barcode) is attached to the surface of the cable outer cover instead of the above-described printing or tag on the outer surface of the cable is disclosed (for example, Patent Document 1). ).
[0009]
[Patent Document 1]
JP 2001-21730 A
[Problems to be solved by the invention]
By the way, according to the cable disclosed in Patent Document 1, since the information about the cable is QR-coded, it is necessary to store a large amount of information about the cable as compared with the case of using a print or a tag as described above. Can be.
[0011]
However, since the QR-coded information is provided on the surface of the cable, as in the case of printing as described above, the information may be blurred due to the elapse of a long period of time or rubbing when installing the cable, for example. There is a problem that it may be lost or disappear, or it may come off from the cable surface and become unreadable.
[0012]
The present invention has been made in view of the above problems, and it is possible to store a large amount of information on a cable than before, and it is difficult to determine the stored information even after a long time has elapsed after installation. An object of the present invention is to provide a cable which is less likely to be formed and a continuous body which can be easily installed on the cable.
[0013]
[Means for Solving the Problems]
The present invention according to claim 1, wherein a string-shaped holding member and a plurality of RFID elements held by the string-shaped holding member at intervals in the longitudinal direction of the string-shaped holding member. It is a long body.
[0014]
According to a second aspect of the present invention, in the continuous body according to the first aspect, the string-shaped holding member is configured by a tear string of a cable, and each of the RFID elements is connected to the continuous string. Is an elongated body fixed to an intermediate portion of the holding member using an adhesive.
[0015]
The present invention according to claim 3, wherein the cable core, the string-shaped holding member, and the plurality of RFID elements held by the string-shaped holding member at intervals in the longitudinal direction of the string-shaped holding member. And a continuous body provided integrally with the cable core, and a sheath covering the cable core and the continuous body.
[0016]
BEST MODE FOR CARRYING OUT THE INVENTION
FIG. 1 is a perspective view showing a schematic configuration of an elongated body 1 according to an embodiment of the present invention.
[0017]
The continuous elongated body 1 includes a string-shaped holding member 3, and a plurality of RFID (Radio Frequency Identification) elements 5 are arranged in the longitudinal direction of the string-shaped holding member 3 at regular intervals, for example. Is held by the holding member 3. The intervals between the RFID elements 5 may be constant values, or the values of the intervals between the RFID elements 5 may be different from each other.
[0018]
The string-shaped holding member 3 is formed of, for example, a tear string used for a cable, and each of the RFID elements 5 is attached to an intermediate portion of the continuous string-shaped holding member 3 by using an adhesive. Fixed. Note that a string other than the tear string, for example, a strong string made of FRP may be used as the string-shaped holding member 3.
[0019]
The information stored in the RFID element 5 can be read by an RFID reader using, for example, an electromagnetic wave as a medium. Further, an outer portion of each of the cylindrical RFID elements 5 is formed of a hard member (for example, glass or plastic) that allows electromagnetic waves to pass through, and the longitudinal direction of each of the cylindrical RFID elements 5 and the string-shaped holding member 3 Each of the column-shaped RFID elements 5 is provided so that the longitudinal direction thereof substantially coincides with the longitudinal direction.
[0020]
FIG. 2 is a diagram showing a schematic configuration of a continuous body manufacturing apparatus 7 for manufacturing the continuous body 1.
[0021]
The continuous body manufacturing apparatus 7 applies an adhesive 9 to the intermediate portion of the long elongated cord-shaped holding member 3 at a predetermined interval, and attaches one RFID element 5 to each portion where the adhesive is applied. This is an apparatus for disposing each RFID element 5 on the string-shaped holding member 3.
[0022]
Here, the continuous body manufacturing apparatus 7 includes a base 11, and on the upper side of the base 11, the first string-shaped holding member 3 before the RFID elements 5 are provided can be stored. The storage means 15 and the first storage means 15 are provided separately from each other, and the string-shaped holding member (the string-shaped storage means stored in the first storage means 15) after the RFID elements 5 are provided. A second storage means 17 capable of storing the string-shaped holding member 3 integrally continuous with the holding member is provided via a connecting member (not shown).
[0023]
The first storage means 15 and the second storage means 17 are formed of a drum capable of storing the cord-shaped holding member 3 by winding, and are substantially parallel to each other and extend in the horizontal direction. It is rotatable around each of the rotation shafts 15A and 17A. Then, in a state where the first storage means 15 and the second storage means 17 store the string-shaped holding member 3, the first storage means 15 and the second storage means 17 The string-like holding member 3 extends linearly in the horizontal direction. In this state, for example, when the second storage means 17 is rotated by an actuator (not shown), the string-like holding member 3 is wound up. It moves in the direction of arrow AR.
[0024]
The upper side of the base 11 and the upper side of the cord-shaped holding member 3 extending horizontally in the horizontal direction between the first storage means 15 and the second storage means 17 are provided. Adhesive applying means 19 for applying an adhesive to the cord-shaped holding member 3 is provided at intervals in the longitudinal direction of the cord-shaped holding member 3. The adhesive applying means 19 intermittently applies the adhesive 9 in accordance with a detected value of a moving amount detecting means (not shown) capable of measuring the moving amount of the cord-shaped holding member 3. is there. Then, the adhesive 9 is applied at intervals in the longitudinal direction of the string-shaped holding member 3.
[0025]
The upper side of the cord-shaped holding member 3 extending horizontally in the horizontal direction between the first storage means 15 and the second storage means 17, and the adhesive application means 19 and the second An RFID element storage means 13 capable of storing the RFID elements 5 is provided between the storage means 17 and the second storage means 17.
[0026]
Further, a supply port 13A for disposing each RFID element 5 stored in the RFID element storage means 13 on the string-shaped holding member 5 is provided at a lower side of the RFID element storage means 13, Further, between the RFID element storage means 13 and the supply port 13A, a supply means 21 capable of intermittently supplying the RFID elements 5 to the string-shaped holding member 3 via the supply port 13A is provided. Is provided.
[0027]
The supply unit 21 includes, in a passage 23 between the RFID element storage unit 13 and the supply port 13A, flat plate-shaped shutters 21A and 21B that extend in the horizontal direction and are movable in the horizontal direction. 21B is movable by an actuator provided in the shutter drive unit 21C.
[0028]
Further, a shutter 21B is provided above the shutter 21A, and only one RFID element 5 can be accommodated in the space of the passage 23 surrounded by the shutter 21A and the shutter 21B.
[0029]
Then, one RFID element 5A exists between the shutter 21A and the shutter 21B, that is, a large number of RFID elements 5 exist above the shutter 21B, and the shutter 21A and the shutter 21B When the shutter 21A releases the passage 23 while closing the passage 23 with the shutter 21B from the state in which the passage 23 is closed, the RFID element 5A is supplied to the cord-like holding member 3 through the supply port 13A, When the shutter 21A closes the passage 23 with the shutter 21A and the shutter 21B releases the passage 23, the RFID element 5B drops between the shutter 21A and the shutter 21B, and then closes the passage 23 with the shutter 21B. The state is similar to the state shown in FIG.
[0030]
Each of the shutters 21 </ b> A and 21 </ b> B can supply the RFID elements 5 to the string-shaped holding member 3 one by one by repeating the above operation.
[0031]
The supply unit 21 intermittently supplies the RFID element 5 according to a detection value of a movement amount detection unit (not shown) capable of measuring the movement amount of the string-shaped holding member 3. The RFID elements 5 can be supplied one by one to the application position of the adhesive 9 applied at intervals in the longitudinal direction of the RFID tag 3. Then, the RFID elements 5 are adhered one by one to the application position of the adhesive 9.
[0032]
Next, the cable 25 provided with the elongated body 1 will be described.
[0033]
FIG. 3 is a cross-sectional view illustrating a schematic configuration of the cable 25 provided with the elongated body 1.
[0034]
The sectional view (FIG. 3) is a sectional view when the cable 25 is cut along a plane perpendicular to the axial direction of the cable 25.
[0035]
The cable 25 has a cable core 27 inside, and the outside of the cable core 27 is covered with a sheath 29.
[0036]
The cable core 21 has a tension member 28 provided at the center thereof along the longitudinal direction of the cable 25, and a slot 31 having a circular cross section is formed around the tension member 28 so as to surround the tension member 28. 25 are provided long along the longitudinal direction.
[0037]
A plurality of grooves 33 </ b> A to 33 </ b> E are provided along the longitudinal direction of the cable 25 at positions substantially equiangularly distributed on the outer periphery of the slot 31. In each of the grooves 33A to 33E, for example, an appropriate number of four-core optical fiber tapes 35 are provided, and the slots 31 other than where the grooves 33A to 33E are provided are provided. An elongated body 1 is provided in contact with the outer peripheral wall. The elongated body 1 is vertically or horizontally wound on the outer peripheral wall of the slot 31.
[0038]
When the cable 25 is wound around a drum for storage, the grooves 33A to 33E and the continuous body 1 prevent the optical fiber tape 35 located only on the outside from extending. However, in order to extend almost equally, each of the grooves 33A to 33E does not go straight in parallel to the central axis CL extending in the longitudinal direction of the cable 25 (see FIG. 3). Rather than extending at a right angle), it extends slightly longitudinally. That is, they extend slightly obliquely with respect to the paper surface of FIG.
[0039]
The outer circumference of the slot 31 and the elongated body 1 are connected to the elongated body 1 and the slot 31 provided with the optical fiber tape 35 so as to cover the two. A holding roll 37 for holding down the fiber tape 35 is wound horizontally, and the continuous body 1 is provided integrally with the cable core 27. Further, the outside of the cable core 27 on which the presser winding 37 is wound is covered with a sheath 29 having an annular cross section in the longitudinal direction. The sheath 29 is made of, for example, polyethylene (PE), polyvinyl chloride (PVC), a non-halogen flame-retardant material, an eco-friendly material that does not generate toxic gas when burned, and is easily separated from vinyl. Have been.
[0040]
Next, the cable 39 will be described.
[0041]
FIG. 4 is a cross-sectional view illustrating a schematic configuration of the cable 39 provided with the elongated body 1.
[0042]
The sectional view (FIG. 4) is a sectional view when the cable 39 is cut along a plane perpendicular to the axial direction of the cable 39.
[0043]
The cable 39 includes a cable core 41 inside, and the outside of the cable core 41 is covered with a sheath 43.
[0044]
The cable core 41 is provided with a tension member 45 having a tensile member 44 provided in the center thereof along the longitudinal direction of the cable 39 and having a circular cross section perpendicular to the longitudinal direction. Only the plurality of optical fiber cords 47 having a circular cross section surround the tension member 45. Each of the optical fiber cords 47 is provided long along the longitudinal direction of the cable 39. In other words, in the cross-sectional view of the cable 39 shown in FIG. 4, each optical fiber cord 47 is in contact with the outer peripheral wall of the tension member 45, and each adjacent optical fiber cord 47 is in contact with each other.
[0045]
In order to fix each of the optical fiber cords 47 to the tension member 45, a presser winding 49 is wound so as to cover each of the optical fiber cords 47.
[0046]
Further, the continuous body 1 is disposed in contact with the outer wall of the horizontally wound presser winding 49 (the continuous body 1 is provided on the cable core 41 by vertically attaching or horizontally winding). A holding roll 51 is wound horizontally so as to integrate the cable core 41 with the holding roll 49 and cover both. The outside of the cable core 41 on which the presser winding 51 is wound is covered with a sheath 43 having a longitudinal section in an annular shape. The sheath 43 is made of, for example, polyethylene, polyvinyl chloride, a non-halogen flame retardant, or an eco-friendly material, similarly to the sheath 29.
[0047]
Each of the optical fiber cords 47 and the elongated body 1 is slightly twisted and extended in the longitudinal direction of the cable 39, as in the case of the cable 25.
[0048]
Next, the cable 53 will be described.
[0049]
FIG. 5 is a cross-sectional view illustrating a schematic configuration of the cable 53 provided with the elongated body 1.
[0050]
The cross-sectional view (FIG. 5) is a cross-sectional view when the cable 53 is cut along a plane perpendicular to the axial direction of the cable 53.
[0051]
The cable 53 is different from the cable 25 in that the continuous body 1 is provided in one of the grooves formed in the slot, and the other points are substantially the same as the cable 25. I have.
[0052]
That is, the cable 53 includes the cable core 55 inside, and the outside of the cable core 55 is covered with the sheath 57.
[0053]
The cable core 55 has a tension member 59 provided at the center thereof along the longitudinal direction of the cable 53, and a slot 61 having a circular cross section is formed around the tension member 59 so as to surround the tension member 59. Are provided long along the longitudinal direction.
[0054]
A plurality of grooves 63 </ b> A to 63 </ b> F are provided along the longitudinal direction of the cable 53 at positions distributed at substantially equal angles on the outer periphery of the slot 61. The continuous body 1 is provided in one of the grooves 63A to 63F along the longitudinal direction of the cable 53. In each of the other grooves 63A to 63E, for example, an appropriate number of four-core optical fiber tapes 65 are provided.
[0055]
Further, on the outer periphery of the slot 61 in which the elongated body 1 and the optical fiber tape 65 are provided, a holding roll 67 for holding down the elongated body 1 and the optical fiber tape 65 is wound horizontally.
[0056]
Thus, the elongated body 1 is provided integrally with the cable core 55.
[0057]
Each optical fiber tape 65 and the continuous body 1 are slightly twisted in the longitudinal direction of the cable 53 and extend in the same manner as in the case of the cable 25.
[0058]
The outside of the cable core 55 on which the presser winding 67 is wound is covered with a sheath 57 whose longitudinal section is annular. The sheath 57 is made of, for example, polyethylene (PE), polyvinyl chloride (PVC), a non-halogen flame retardant, does not generate toxic gas when burned, and is easily separated from vinyl, similarly to the cable 25. It is made of eco-friendly materials.
[0059]
Next, the cable 69 will be described.
[0060]
FIG. 6 is a cross-sectional view illustrating a schematic configuration of the cable 69 provided with the elongated body 1.
[0061]
The above sectional view (FIG. 6) is a sectional view when the cable 69 is cut along a plane perpendicular to the axial direction of the cable 69.
[0062]
The cable 69 is different from the cable 39 in that it surrounds the tension member using a continuous body and a plurality of optical fiber cords, and the other points are substantially the same as the cable 39.
[0063]
That is, the cable 69 includes a cable core 71 inside, and the cable core 71 is covered with the sheath 73.
[0064]
The cable core 71 includes a tension member 77 having a tensile member 75 provided in the center thereof along the longitudinal direction of the cable 69 and having a circular cross section perpendicular to the longitudinal direction. A plurality of optical fiber cords 79 having a circular cross section perpendicular to the longitudinal direction are provided along the longitudinal direction of the cable 69 so as to surround the tension member 77. In other words, in the cross-sectional view of the cable 69 shown in FIG. 6, each of the optical fiber cords 79 and the elongated body 1 (RFID 5) are in contact with the outer peripheral wall of the tension member 77, and each of the adjacent optical fiber cords 79 is connected to each other. At a position where the continuous body 1 is provided and the continuous body 1 is provided, the continuous body 1 (RFID5) and the optical fiber cord 79 adjacent to the continuous body 1 (RFID5) are in contact with each other.
[0065]
Further, in the cross-sectional view of FIG. 6, a portion of the outer circumference of the elongated body 1 that is farthest from the tension member 77 and a portion of each outer circumference of each optical fiber cord 79 that is farthest from the tension member 77. A presser winding 81 for holding down the continuous body 1 and the optical fiber cord 79 is wound horizontally along an envelope connecting the two.
[0066]
Thus, the elongated body 1 is provided integrally with the cable core 71.
[0067]
The optical fiber cord 79 and the elongated body 1 are slightly twisted in the longitudinal direction of the cable 69 and extend in the same manner as the cable 25.
[0068]
Further, the outside of the cable core 71 on which the presser winding 81 is wound is covered with a sheath 73 whose cross section in the longitudinal direction is annular. Note that the sheath 73 is made of, for example, polyethylene, polyvinyl chloride, a non-halogen flame retardant, or an eco-friendly material in substantially the same manner as the sheath 29 and the like.
[0069]
The cable 25 and the cable 39 are embodiments in which the outer shape of the elongated body 1 is sufficiently smaller than the outer shape of the cable core, and the outer shape of the elongated body 1 is sufficiently smaller than the outer shape of the cable core. If not, it is desirable to use an embodiment like the cable 53 or the cable 69.
[0070]
According to the elongated body 1, the plurality of RFID elements 5 are arranged and fixed at intervals in the longitudinal direction of the string-shaped holding member 3, and the elongated body 1 is formed integrally long. Therefore, the longitudinal direction of the elongated body 1 and the longitudinal direction of the cable are aligned with each other, and the elongated body 1 is easily integrated with the cable core of the cable. This facilitates the work of providing the gaps in the directions.
[0071]
Further, according to the elongated body 1, a tear string generally used for a cable can be used as a holding member. Therefore, it is necessary to manufacture a dedicated holding member for manufacturing the elongated body 1. Further, since the RFID elements 5 are fixed to the tear string with an adhesive, the production of the elongated body 1 is easy.
[0072]
According to the cable 25 provided with the elongated body 1, since the RFID element is employed as a storage medium for storing information on the cable 25, printing on the outer cover (outer peripheral surface of the sheath) of the cable 25 or the cable 25 is performed. By attaching the tag to the tag or hanging the tag, a larger amount of information can be stored than storing (displaying) the information on the cable 25, and the information on the RFID element 5 can be stored without exposing the outer sheath of the cable 25. The information stored in the RFID element 5 can be read and displayed by the RFID reader only by bringing the RFID reader capable of reading and displaying the information close to the cable 25. That is, information on the cable 25 can be easily read and displayed.
[0073]
Further, according to the cable 25 provided with the elongated body 1, the RFID element 5 is employed as a storage medium for storing information on the cable 25, and the RFID element 5 is covered with the sheath 29 of the cable 25. Therefore, it is possible to prevent the information about the cable 25 from being blurred or lost due to the elapse of a long period of time after the cable 25 is laid, the rubbing when the cable 25 is installed, or the like, and the information being unreadable. Further, since the RFID element 5 is covered with the sheath 29, even when an external force is applied to the cable 25 when the cable 25 is installed, for example, the external force is reduced by the sheath 29, and the RFID element 5 is damaged. It becomes difficult.
[0074]
Further, according to the cable 25 provided with the elongated body 1, the RFID element 5 is not embedded in the thick portion of the pipe-shaped sheath 29, and the sheath 29 is substantially uniform in the longitudinal direction. Therefore, even if the cable 25 is bent for installation or maintenance, for example, stress concentration hardly occurs in the thick portion of the sheath 29. Therefore, the sheath of the cable 25 is bent by the above-described installation or maintenance. 29 is less likely to be damaged.
[0075]
Further, if the RFID element 5 is installed in the thick part of the sheath 29, the RFID element 5 must be inserted into the constituent member of the sheath 29 in a state of being melted at a high temperature. Although the function of the RFID element 5 may be hindered by the high temperature, when the cable 25 covers the cable core 27 with the sheath 29, since the presser winding 37 is interposed therebetween, the RFID The element 5 is not directly exposed to the components of the sheath 29 in a high-temperature state, and therefore, there is little possibility that the function of the RFID element 5 is hindered when the sheath 29 is covered.
[0076]
When covering the cable core 27 with the sheath 29, the cable core 27 having a substantially circular cross section may be covered with the sheath 29 having a circular cross section, and it is necessary to provide the RFID element 5 in the thick portion of the sheath 29. , The coating can be easily performed.
[0077]
Further, according to the cable 25, since the respective RFID elements 5 are provided at predetermined intervals in the longitudinal direction of the elongated body 1, information on the cable 25 (for example, at an arbitrary position in the longitudinal direction of the cable 25). , A method for identifying the cable 25). And even if the cable 25 is laid in a trough and this trough is covered, and this trough is buried in the earth and sand, it is only necessary to remove a part of the earth and sand without removing the earth and sand over a long section. Thus, the information of the cable 25 can be read, and the number of steps for removing the earth and sand can be reduced.
[0078]
Note that the installation interval of each of the RFID elements 5 may be determined according to the distance at which the information stored in the RFID element 5 can be read by the RFID reader. For example, if the readable distance is 1 m and the interval between the RFID elements 5 is set to 1 m, the RFID is positioned within 0.87 m (1 m ÷ 2 × √3 ≒ 0.87 m) from the cable 25. When the reader is brought closer, the information stored in the RFID element 5 can be read by the RFID reader.
[0079]
Note that the information on the cable 25 stored in each of the RFID elements 5 may be stored in advance in each of the RFID elements 5 before the manufacture of the continuous body 1, or, for example, the continuous body shown in FIG. An RFID writer capable of writing information to the RFID element 5 is installed between the RFID element storage means 13 and the second storage means 17 of the manufacturing apparatus 7, or an RFID writer is provided near the passage 23 of the continuous body manufacturing apparatus 7. When a lighter is installed and the elongated body 1 is manufactured, information on the cable 25 may be written to each RFID element 5. Furthermore, after laying the cable 25, the information of each RFID element 5 may be rewritten using an RFID writer.
[0080]
According to each of the cables 39, 53, and 69 provided with the elongated body 1, a large amount of information about each of the cables 39, 53, and 69 can be stored, and information about each of the cables 39, 53, and 69 can be easily read and displayed. For example, the same effects as those provided by the cable 25 are provided.
[0081]
In addition, in each of the cables 39, 53, and 69, as in the case of the cable 25, each RFID element 5 is provided at a predetermined interval in the longitudinal direction of the continuous elongated body 1, so that each of the cables 39, 53, and 69 Information about each cable 39, 53, 69 can be obtained at any position in the longitudinal direction.
[0082]
The installation intervals of the RFID elements 5 may be determined in the same manner as the cable 25.
[0083]
Further, information on each of the cables 39, 53, and 69 stored in each of the RFID elements 5 can be written similarly to the case of the cable 25.
[0084]
Further, the cables 39, 53, and 69 may be metal cables instead of optical fiber cables, or cables in which optical fibers and metal wires are mixed.
[0085]
【The invention's effect】
ADVANTAGE OF THE INVENTION According to this invention, the information regarding a cable can be stored in a larger amount than before, and even if a long time passes after installation, there is little possibility that the stored information cannot be determined. This provides an effect that it is possible to provide a cable that is not easily damaged even when bent into a bent shape and a continuous body that can be easily installed on the cable.
[Brief description of the drawings]
FIG. 1 is a perspective view showing a schematic configuration of a continuous body according to an embodiment of the present invention.
FIG. 2 is a view showing a schematic configuration of a continuous body manufacturing apparatus for manufacturing the continuous body.
FIG. 3 is a cross-sectional view illustrating a schematic configuration of a cable provided with a continuous body.
FIG. 4 is a cross-sectional view illustrating a schematic configuration of a cable provided with a continuous body.
FIG. 5 is a cross-sectional view illustrating a schematic configuration of a cable provided with a continuous body.
FIG. 6 is a cross-sectional view illustrating a schematic configuration of a cable provided with a continuous body.
[Explanation of symbols]
DESCRIPTION OF REFERENCE NUMERALS 1 Run-length body 3 String-shaped holding member 5 RFID element 9 Adhesive 25, 39, 53, 69 Cable 27, 41, 55, 71 Cable core 29, 43, 57, 73 Sheath

Claims (3)

A string-shaped holding member;
A plurality of RFID elements held by the string-shaped holding member at intervals in the longitudinal direction of the string-shaped holding member;
A prolonged body characterized by having: The elongate body according to claim 1,
The string-shaped holding member is configured by a tear cord of a cable, and each of the RFID elements is fixed to an intermediate portion of the continuous string-shaped holding member using an adhesive. A run-length body. A cable core;
A string-shaped holding member and a plurality of RFID elements held by the string-shaped holding member at intervals in the longitudinal direction of the string-shaped holding member, and integrated with the cable core. A prolonged body provided;
A sheath covering the cable core and the elongated body;
A cable comprising:

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