WO2012033057A1 - 係合部材付き光ファイバーケーブル - Google Patents
係合部材付き光ファイバーケーブル Download PDFInfo
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- WO2012033057A1 WO2012033057A1 PCT/JP2011/070179 JP2011070179W WO2012033057A1 WO 2012033057 A1 WO2012033057 A1 WO 2012033057A1 JP 2011070179 W JP2011070179 W JP 2011070179W WO 2012033057 A1 WO2012033057 A1 WO 2012033057A1
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- WIPO (PCT)
- Prior art keywords
- sheath
- optical fiber
- fiber cable
- engaging member
- slit
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Classifications
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- G—PHYSICS
- G02—OPTICS
- G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
- G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
- G02B6/24—Coupling light guides
- G02B6/36—Mechanical coupling means
- G02B6/38—Mechanical coupling means having fibre to fibre mating means
- G02B6/3807—Dismountable connectors, i.e. comprising plugs
- G02B6/3887—Anchoring optical cables to connector housings, e.g. strain relief features
- G02B6/3888—Protection from over-extension or over-compression
-
- G—PHYSICS
- G02—OPTICS
- G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
- G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
- G02B6/44—Mechanical structures for providing tensile strength and external protection for fibres, e.g. optical transmission cables
- G02B6/4401—Optical cables
- G02B6/4429—Means specially adapted for strengthening or protecting the cables
- G02B6/443—Protective covering
Definitions
- the present invention relates to an optical fiber cable with an engaging member, and more specifically, an optical fiber cable with an engaging member to which an engaging member for coupling the optical fiber cable and the optical connector is attached by engaging with the optical connector. It is about.
- Optical connectors are used to connect fiber optic cables and between fiber optic cables and optical transceiver modules installed on circuit boards, but in the work of routing fiber optic cables inside vehicles such as automobiles.
- tension may be applied between the optical fiber cable and the optical connector.
- an optical connector for a vehicle such as an automobile is required to be firmly coupled to an optical fiber cable.
- a relatively short optical fiber cable used in a vehicle or indoor has a structure in which a tensile strength material such as an optical fiber and an aramid fiber is accommodated in a central portion and the periphery thereof is protected by a sheath.
- the tensile strength of the entire optical fiber cable is borne by the tensile strength material, but when an operator pulls the optical fiber cable in an actual routing operation, the operator directly pulls the sheath portion. In this case, since the tensile strength material and the sheath are not integrated, only the sheath portion may fall out of the optical connector even if the strength strength of the tensile strength material is sufficient. Therefore, it is necessary to fix both the tensile strength material and the sheath to the connector.
- Patent Document 1 As a coupling structure between an optical fiber cable and an optical connector, for example, a configuration as described in Patent Document 1 has been proposed and widely used.
- a tensile strength member of an optical fiber cable is sandwiched between a rear portion of a stopper for holding a ferrule and a large diameter portion of the caulking ring, and an optical fiber is formed by the small diameter portion and the ring of the caulking ring.
- the end of the sheath of the cable is pinched to prevent the optical connector from being detached from the optical fiber cable.
- the optical cable connector described in Patent Document 1 has a problem in that the number of parts and the number of processing steps are large because the tensile strength material and the sheath portion are caulked by separate members.
- a configuration as described in Patent Document 2 has been proposed.
- the cord jacket (sheath) is made thicker.
- the cord jacket itself functions as a caulking base (corresponding to the small diameter portion of caulking ring in Patent Document 1), thereby reducing the number of parts and the number of processing steps.
- the configuration of Patent Document 2 is advantageous for shortening the connecting portion between the optical fiber cable and the optical connector.
- the problem to be solved by the present invention is to reduce the number of parts and the number of processing steps, and to increase the coupling strength between the optical fiber cable and the optical connector, in particular, the sheath fixing strength.
- the present invention provides an optical fiber cable having a sheath having a slit formed in an end face in a longitudinal direction and a tensile material disposed inside the sheath and having an end portion drawn out of the sheath through the slit.
- An inner ring mounted on the end surface side from a position where the tensile material of the outer peripheral surface of the sheath is pulled out of the sheath through the slit, and the tensile material of the outer peripheral surface of the sheath
- An engagement member having a first portion located on the opposite side of the side where the inner ring is mounted from a position drawn out of the sheath through the slit and a second portion overlapping the outside of the inner ring; And the first portion of the engaging member bites into the outer peripheral surface of the sheath and is coupled to the sheath, It is an Abstract that end is clamped between the second portion of the engagement member and the inner ring.
- two slits facing the sheath may be formed, one slit may be formed in the sheath, or three or more slits may be formed in the sheath.
- the tensile strength material may be passed only through a part of the slit formed in the sheath.
- the present invention it is possible to improve the coupling strength between the engaging member and the optical fiber cable, particularly the sheath fixing strength.
- the engaging member 82 when the engaging member 82 is mounted in the vicinity of the end surface of the sheath 811 of the optical fiber cable 81, the first portion 821 of the engaging member 82 is more than that. There is no portion where the sheath 811 is not compressively deformed on the distal end side (or the sheath 811 itself does not exist). For this reason, the engaging member 82 and the sheath 811 are coupled only by a frictional force with the outer peripheral surface of the compressed sheath 811.
- the present invention there is a portion where the sheath is not compressed and deformed on the tip side of the first portion of the engaging member. For this reason, even when a tensile force larger than the frictional force is applied between the sheath and the engaging member, the portion of the sheath that is not compressively deformed is caught by the engaging member, thereby preventing movement of the sheath. Or suppressed. That is, in order to move the sheath in the axial direction, it is necessary to apply a force larger than the frictional force between the first portion of the engaging member and the sheath, and it is necessary to compress and deform the sheath at the distal end portion. There is. For this reason, compared with the structure which is merely coupled by the frictional force, the coupling strength between the engaging member and the sheath is increased (in other words, the force required to move the sheath in the axial direction is increased).
- the part where the tensile strength material is pulled out to the outside of the sheath through the slit is located closer to the distal end side than the first part of the engaging member.
- the slit is pushed and expanded in the circumferential direction, and the circumference of the sheath Directional dimension is larger than other parts.
- the outer diameter of the sheath in this portion is larger than that in other portions. For this reason, this portion has a higher effect of preventing or suppressing the sheath from being pulled out of the engaging member as compared to other portions.
- the present invention it is possible to achieve both shortening of the axial dimension of the first portion of the engaging member and improvement of the coupling strength between the engaging member and the optical fiber cable. Or, even if the axial dimension of the first portion of the engaging member is reduced, it is possible to prevent or suppress a decrease in the coupling strength between the engaging member and the optical fiber cable. Therefore, the size of the engaging member can be reduced. And it becomes possible to achieve size reduction of the whole optical connector by achieving size reduction of an engaging member.
- FIG. 4B is a perspective view showing a state in which the tensile strength material is pulled out from two slits formed in the sheath
- FIG. 4C is a perspective view showing that the inner ring is attached to the sheath.
- D is the perspective view which showed the state which overlapped the 2nd part of the engaging member on the outer periphery of the inner ring. It is the perspective view which showed typically the state of an optical fiber cable, an inner ring, and an engagement member at the time of the assembly of the optical fiber cable with an engagement member concerning an embodiment of the present invention, and (a) is one slit in a sheath.
- FIG. 4B is a perspective view showing a state in which the tensile strength material is drawn out from one slit formed in the sheath
- FIG. 4C is a perspective view showing that the inner ring is attached to the sheath
- (D) is the perspective view which showed the state which overlapped the 2nd part of the engaging member on the outer periphery of the inner ring.
- FIG. 4D is a perspective view showing a state where the inner ring is mounted
- FIG. 4D is a perspective view showing a state where the second portion of the engaging member is superimposed on the outer periphery of the inner ring.
- each member constituting the optical fiber cable with a fixture according to the embodiment of the present invention refers to an optical fiber based on the completed state of the optical fiber cable with a fixture according to the embodiment of the present invention. It shall mean the longitudinal direction of the cable.
- the “front end side” means a side close to the end of the optical fiber cable (here, the end on the side where the engaging member is mounted), and the “rear end” means the optical fiber. The side far from the end of the cable shall be said.
- FIG. 1 is an exploded perspective view showing a configuration of an optical fiber cable 1 with an engaging member according to an embodiment of the present invention.
- FIG. 2 is an external perspective view showing the configuration of the optical fiber cable 1 with the engaging member according to the embodiment of the present invention.
- FIG. 3 is a cross-sectional view showing the internal structure of the optical fiber cable 1 with an engagement member according to an embodiment of the present invention, where (a) is a vertical cross-section at a plane including a slit, and (b) is orthogonal to the slit. It is a longitudinal section in a plane.
- the optical fiber cable 1 with an engaging member includes an optical fiber cable 11, an engaging member 12, and an inner ring 13.
- the optical fiber cable 11 includes a sheath 111, a tensile strength material 112, and an optical fiber 113.
- the sheath 111 is a substantially tube-shaped member, and a through hole extending in the axial direction is formed in the sheath 111.
- the cross-sectional shape of the sheath 111 is not particularly limited, but here, a configuration having a substantially circular shape will be described as an example.
- the sheath 111 has a structure which can be compressed and deformed in the radial direction when a compressive force is applied from the outer periphery.
- the sheath 111 is formed of various resin materials such as polyvinyl chloride, polyethylene, and non-halogen flame retardant polyethylene.
- the tensile strength material 112 is a string-like member.
- the tensile strength material 112 is a member for preventing the optical fiber from being broken when an excessive tension is applied to the optical fiber cable 11, and is formed of, for example, an aramid fiber.
- the optical fiber 113 is a member that transmits an optical signal, and various conventionally known optical fibers are applied.
- the optical fiber cable 11 has a configuration in which a tensile strength material and an optical fiber are disposed inside a through hole formed in the sheath 111.
- a slit 1111 extending in the axial direction from the end surface is formed at the end of the sheath 111, and the end of the tensile strength material 112 is passed through the slit 1111. Pulled out.
- the optical fiber cable 11 applied to the optical fiber cable 1 with the engaging member according to the embodiment of the present invention only needs to have a configuration in which the tensile strength material 112 and the optical fiber 113 are disposed inside the sheath 111.
- the configuration is not limited to that shown in FIGS.
- the engaging member 12 is a member for coupling the optical fiber cable 11 and the optical connector by engaging with an optical connector (described later), and is a member fixed to the sheath 111 and the tensile strength material 112 of the optical fiber cable 11. .
- the engaging member 12 is provided with a first portion 121 and a second portion 122.
- the first portion 121 is a portion that is fixed to the sheath 111 of the optical fiber cable 11.
- the second portion 122 is a portion for fixing the tensile strength material 112 of the optical fiber cable 11 together with the inner ring 13.
- the second portion 122 is also a portion that couples the optical fiber cable 11 and the optical connector by engaging with the optical connector.
- the first portion 121 of the engaging member 12 is a portion formed in a substantially annular shape or a substantially cylindrical shape, and is a portion where a through hole extending in the axial direction is formed.
- the through hole is formed to have a diameter that allows the sheath 111 of the optical fiber cable 11 to be inserted. For this reason, the structure formed in the through-hole formed in the 1st part 121 in the substantially same dimension and shape as the sheath 111 of the optical fiber cable 11 is applied.
- FIGS. 1 to 3 for example, if the cross section of the sheath 111 of the optical fiber cable 11 is substantially circular having a predetermined diameter, the through hole of the first portion 121 of the engagement member 12 has the same diameter. A configuration formed in a substantially circular shape can be applied.
- the second portion 122 of the engaging member 12 is also a substantially annular or substantially cylindrical portion, and is a portion where a through hole extending in the axial direction is formed. This through hole is formed in a diameter that allows the inner ring 13 to be inserted therein. For this reason, the through hole formed in the second portion 122 of the engagement member 12 is formed to have a diameter larger than the outer diameter of the inner ring 13.
- the inner ring 13 is a member that clamps and fixes the tensile material 112 of the optical fiber cable 11 together with the engaging member 12.
- the inner ring 13 is a substantially annular or cylindrical member, and is a member in which a through hole extending in the axial direction is formed.
- the through hole is formed to have a diameter that allows the sheath material 111 of the optical fiber cable 11 to be inserted.
- the sheath material 111 is formed to have substantially the same diameter as the outer diameter.
- unevenness is formed on the outer peripheral surface of the inner ring 13 to improve the bonding strength between the optical fiber cable 11 and the tensile strength material 112.
- the engagement member 12 and the inner ring 13 can be configured by, for example, cutting with a metal material.
- the inner ring 13 has a configuration that is less likely to deform than the second portion 122 of the engaging member 12.
- a configuration in which the inner ring 13 is formed of a material harder than the engaging member 12 is applied.
- a configuration in which the inner ring 13 is formed of a copper alloy such as stainless steel or brass and the engaging member 12 is formed of aluminum or an aluminum alloy can be applied.
- FIGS. 4 to 6A are perspective views showing a state in which the slit 1111 is formed in the sheath 111
- FIGS. 4 to 6B are diagrams showing the tensile material 112 from the slit 1111 formed in the sheath 111
- 4 to 6C are perspective views showing a state in which the inner ring 13 is attached to the sheath 111
- FIGS. 4 to 6D are engaged views.
- FIG. 7A is a perspective view showing a state in which the first portion 121 of the member 12 is superimposed on the outer periphery of the inner ring 13 and FIG. 7A is a diagram in which the first portion 121 of the engaging member 12 is superimposed on the outer periphery of the inner ring.
- FIG. 7B is a cross-sectional view showing a state where the engaging member 12 is compressed and deformed.
- a slit 1111 extending in the axial direction from the end surface of the sheath 111 of the optical fiber cable 11 is formed.
- the optical fiber cable 11 is inserted through the through hole of the engaging member 12 in advance.
- the number of slits 1111 is not particularly limited.
- the slits 1111 are preferably formed at equal intervals along the circumferential direction of the sheath 111. 4 shows a configuration in which two slits 1111 facing each other (at an interval of 180 degrees) are formed, a configuration in which one slit 1111 as shown in FIG. 5 is formed, or 3 as shown in FIG.
- the structure in which two or more slits 1111 are formed may be used.
- the number of slits 1111 formed in the sheath 111 is an even number, the work of forming the slits 1111 in the sheath 111 is facilitated. This is because the opposing slits 1111 can be formed at a time by a cutting tool such as a cutter. In particular, if two slits 1111 are formed, the formation of the slits 1111 is completed by one cutting operation, which leads to simplification of the process.
- the tensile strength material 112 is drawn out of the sheath 111 through the slit 1111.
- the amount of the tensile strength material 112 drawn from each slit 1111 is the same.
- the process of passing (stripping) the tensile strength material 112 through the slit 1111 can be simplified.
- Such a configuration is effective when the cable diameter is small and the tensile strength material 112 is small.
- the configuration in which three or more slits 1111 shown in FIG. 6 are formed is advantageous when the tensile material 112 is larger than the cable diameter (the diameter of the sheath 1111). If the number of slits 1111 is small when the number of tensile materials 112 is large, there is a possibility that the slits 1111 through which the tensile strength materials 112 are passed may greatly expand. This is because the tensile strength material 112 is held in a stable state by the slit 1111.
- the tensile strength material 112 may be passed through only one of the two slits 1111.
- the slit 1111 that is not used is provided.
- the two slits 1111 included may be formed.
- the tensile strength material 112 may be passed through only some of the slits 1111 out of the plurality of slits 1111 formed in the sheath 111, and the other slits 1111 may not be used. If the number of slits 1111 that are not used in this way increases, the distal end portion of the sheath 111 in which the slits 1111 are formed may be expanded, and the force for sandwiching the tensile strength material 112 may be reduced. However, in this embodiment, the details will be described later. Since the distal end portion of the sheath 111 in which the slit 1111 is formed by the ring 13 is pressed from the outside, such a problem does not occur.
- the inner ring 13 is attached to the outer periphery of the end portion of the sheath 111 of the optical fiber cable 11.
- the slit 1111 formed in the sheath 111 is prevented from expanding.
- the tensile strength material 112 is sandwiched between slits 1111 formed in the sheath 111.
- the engaging member 12 mounted in advance is moved to the end side of the optical fiber cable 11, and the second end of the engaging member 12 is moved.
- the portion 122 is superimposed on the outside of the inner ring 13.
- the tensile strength material 112 drawn out from the slit 1111 formed in the sheath 111 is positioned between the inner peripheral surface of the second portion 122 of the engaging member 112 and the outer peripheral surface of the inner ring 13.
- a compressive force is applied to the engaging member 12 from the outer peripheral surface side, and the engaging member 12 is plastically deformed so that the dimension in the radial direction becomes small.
- the first member 121 of the engaging member 12 is plastically deformed so that the inner diameter thereof becomes smaller than the outer diameter of the sheath 111.
- the first portion 121 of the engagement member 12 is in a state of being bitten into the sheath 111.
- the second portion 122 of the engaging member 12 is compressed and deformed, the tensile strength material 112 drawn out from the slit 1111 formed in the sheath 111 is applied to the first portion 121 of the engaging member 12 and the inner ring 13. It is pinched.
- the first portion 121 of the engaging member 12 bites into the sheath 111 of the optical fiber cable 11, whereby the engaging member 12 is fixed to the sheath 111 of the optical fiber cable, and the engaging member 12 and the sheath 111 are integrated.
- the engagement member 12 and the inner ring 13 sandwich the tensile material, whereby the engagement member 12 and the tensile material 112 are integrally coupled.
- the tensile strength material 112 is drawn out of the sheath 111 through the slit 1111 on the distal end side of the first portion 121 of the engagement member 12. Further, the inner ring 13 is provided on the distal end side from the position where the first portion 121 of the engaging member 12 and the tensile strength material 112 are pulled out to the outside of the sheath 111 through the slit 1111. For this reason, the first portion 121 of the engaging member 12 is mounted at a position away from the end surface of the sheath material 111 toward the rear end side by a predetermined distance.
- optical fiber cable 1 with an engagement member according to the embodiment of the present invention having such a configuration has the following operational effects.
- the first part 121 of the engaging member 12 is mounted in a state of being bitten into the sheath 111 of the optical fiber cable 11. Furthermore, a portion where the sheath 111 is not compressed and deformed 1111 is present on the distal end side of the first portion 121 of the engaging member 12. For this reason, the engaging member 12 is coupled to the sheath 111 so as not to move on the outer peripheral surface of the sheath 111 by a frictional force and a portion where the sheath 111 is not compressed and deformed 1111. Therefore, the coupling strength between the engaging member 12 and the optical fiber cable 11 can be improved.
- the engaging member 82 when the engaging member 82 is mounted in the vicinity of the end surface of the sheath 811 of the optical fiber cable 81, the first portion 821 of the engaging member 82 is more than that. There is no portion where the sheath 811 is not compressively deformed on the distal end side (or the sheath 811 itself does not exist). For this reason, the engaging member 82 and the sheath 811 are coupled only by a frictional force with the outer peripheral surface of the compressed sheath 811.
- the portion where the tensile strength material 112 is pulled out to the outside of the sheath 111 through the slit 1111 is located on the distal end side of the first portion 121 of the engagement member 12.
- the slits 1111 are pushed in the circumferential direction.
- the circumferential dimension of the sheath 111 is larger than that of other portions.
- the outer diameter of the sheath 111 at this portion is larger than the other portions.
- this portion has a higher effect of preventing or suppressing the sheath 111 from being pulled out of the engaging member than the other portions. That is, in order for the engaging member 12 to move to the distal end side, it is necessary to pass through this portion of the sheath 111. Since this portion has a larger outer diameter than other portions, the sheath 111 is compressed and deformed. The force required for is greater than the other parts. Therefore, the coupling strength between the engaging member 12 and the sheath 111 is increased.
- the slit 1111 is inserted into the sheath 111 (configuration in FIG. 3) and the slit is not performed (configuration in FIG. 11).
- a comparative evaluation of the sheath gripping force was performed.
- the optical fiber cable used was a PE base resin having a sheath outer diameter of 3.0 mm and an inner diameter of 1.5 mm, and the comparison was performed under exactly the same caulking conditions.
- the material of the engaging members 12 and 82 is a free-cutting aluminum alloy, the sheath gripping length is 5 mm, and the amount of biting into the sheaths 111 and 811 after caulking is about 0.2 mm.
- the axial dimension of the first portion 121 of the engagement member 12 is shortened, and the engagement member 12 and the optical fiber cable 11 It is possible to improve both the bonding strength. Or even if the axial dimension of the first portion 121 of the engagement member 12 is reduced, it is possible to prevent or suppress a decrease in the coupling strength between the engagement member 12 and the optical fiber cable 11. Therefore, the size of the engagement member 12 can be reduced. Then, by reducing the size of the engaging member 12, the entire optical connector 2 can be reduced in size.
- FIG. 10A and FIG. 10B are modifications of the optical fiber cable 1 with the engagement member according to the embodiment of the present invention
- FIG. 10A is an inner surface of the first portion 121 of the engagement member 12.
- An example in which a step is provided (b) is an example in which a screw is cut on the inner surface of the first portion 121 of the engaging member 12.
- the optical connector 2 includes a ferrule (not shown) and a split sleeve (not shown) accommodated in a connector housing. Although a detailed description is omitted, the tip of the optical fiber 113 of the optical fiber cable 11 is fixed to the ferrule.
- the split sleeve is a cylindrical metal member, and the tip of the ferrule is inserted from the rear end side.
- the ferrule of the mating connector enters the split sleeve from the tip side of the split sleeve, and the tip surfaces of both ferrules are butted together in the split sleeve. Thereby, the optical fibers fixed to both ferrules are optically connected.
- the connector housing of such an optical connector 2 includes a first housing member 21, a second housing member 22, and a third housing member 23. And the 1st housing member 21 and the 2nd housing member 22 couple
- the housing member 23 is assembled. The first housing member 21, the second housing member 22, and the third housing member 23 are combined to form a connector housing for the optical connector 2.
- Cable fixing portions 211 and 221 having circular recesses are formed on the rear end sides of the first housing member 21 and the second housing member 22, respectively.
- the cable fixing portions 211, 221 are formed with small diameter portions 2111, 2111, which are relatively small in diameter on the rear end side, and large diameter portions 2112, 2212, which are relatively large in diameter (larger diameter than the small diameter portion) on the distal end side. Is done.
- the engaging member 12 fixed to the sheath 111 of the optical fiber cable 11 is fixed to the cable fixing portions 211 and 221 having such a configuration.
- the first housing member 21 and the second housing member 22 are coupled, so that the first portion 121 of the engagement member 12 is engaged with the small diameter portions 2111, 2112 of the cable fixing portions 211, 221.
- the second portion 122 of the member 12 is sandwiched between the large diameter portions 2112 and 2212 of the cable fixing portions 211 and 221. Since the first portion 121 having a relatively large diameter is held by being sandwiched between the first housing member and the second housing member on the tip side of the second portion 122 having a relatively small diameter. Even if the optical fiber cable 11 is pulled, the optical fiber cable 11 does not come out of the optical connector 2.
- the engaging member 12 is fixed to the optical fiber cable 11 and the engaging member 12 is engaged with the optical connector 2. In this way, the optical fiber cable 11 and the optical connector 2 are coupled.
- the optical connector 2 is an example, and the configuration of the applied optical connector is not limited.
- the optical fiber cable has a substantially cylindrical sheath, but the cross-sectional shape of the optical fiber cable sheath is not limited.
- any optical fiber cable having a configuration in which a tensile strength material and an optical fiber are disposed inside the sheath can be applied regardless of the cross-sectional shape of the sheath.
- the present invention can also be applied to an optical fiber cable having a sheath having a substantially rectangular cross section or a substantially elliptical cross section. And in such a case, what is necessary is just to set the shape of an inner ring and an engaging member according to the cross-sectional shape of a sheath.
- optical fiber cable applied to the optical fiber cable with the engaging member according to the embodiment of the present invention is not limited to the above configuration. Any optical fiber cable having a sheath and a tensile strength material can be applied.
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Abstract
Description
Claims (5)
- 長手方向の端面にスリットが形成されるシースおよび前記シースの内部に配設され端部が前記スリットを通じて前記シースの外部に引き出される抗張力材を有する光ファイバーケーブルと、
前記シースの外周面のうちの前記抗張力材が前記スリットを通じて前記シースの外部に引き出される位置から前記端面側に装着される内リングと、
前記シースの外周面のうちの前記抗張力材が前記スリットを通じて前記シースの外部に引き出される位置から前記内リングが装着される側とは反対側に位置する第一の部分および前記内リングの外側に重畳する第二の部分とを有する係合部材と、
を有し、
前記係合部材の第一の部分が前記シースの外周面に食い込んで前記シースに結合するとともに、前記抗張力材の前記端部が前記内リングと前記係合部材の前記第二の部分とにより挟持されることを特徴とする係合部材付き光ファイバーケーブル。 - 前記シースには、対向する2つのスリットが形成されていることを特徴とする請求項1に記載の係合部材付き光ファイバーケーブル。
- 前記シースには、1つのスリットが形成されていることを特徴とする請求項1に記載の係合部材付き光ファイバーケーブル。
- 前記シースには、3つ以上のスリットが形成されていることを特徴とする請求項1に記載の係合部材付き光ファイバーケーブル。
- 請求項2または請求項4において、
前記シースに形成された前記スリットの一部にのみ前記抗張力材が通されていることを特徴とする係合部材付き光ファイバーケーブル。
Priority Applications (4)
Application Number | Priority Date | Filing Date | Title |
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JP2012532971A JP5254499B2 (ja) | 2010-09-06 | 2011-09-05 | 係合部材付き光ファイバーケーブル |
US13/704,161 US8905650B2 (en) | 2010-09-06 | 2011-09-05 | Fiber-optic cable with fitting |
EP11823532.4A EP2615482B1 (en) | 2010-09-06 | 2011-09-05 | Engagement member-equipped optical fiber cable |
CN201180042796.1A CN103080802B (zh) | 2010-09-06 | 2011-09-05 | 带有卡合部件的光缆 |
Applications Claiming Priority (2)
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JP2010198477 | 2010-09-06 | ||
JP2010-198477 | 2010-09-06 |
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WO2012033057A1 true WO2012033057A1 (ja) | 2012-03-15 |
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PCT/JP2011/070179 WO2012033057A1 (ja) | 2010-09-06 | 2011-09-05 | 係合部材付き光ファイバーケーブル |
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US (1) | US8905650B2 (ja) |
EP (1) | EP2615482B1 (ja) |
JP (2) | JP5254499B2 (ja) |
CN (1) | CN103080802B (ja) |
WO (1) | WO2012033057A1 (ja) |
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US8905650B2 (en) | 2010-09-06 | 2014-12-09 | Autonetworks Technologies, Ltd. | Fiber-optic cable with fitting |
JP6159429B1 (ja) * | 2016-01-18 | 2017-07-05 | 株式会社フジクラ | 光コネクタ、及び、光コネクタの製造方法 |
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JP5254499B2 (ja) | 2013-08-07 |
US20130094814A1 (en) | 2013-04-18 |
US8905650B2 (en) | 2014-12-09 |
EP2615482A4 (en) | 2016-03-02 |
CN103080802B (zh) | 2016-02-24 |
EP2615482B1 (en) | 2017-10-25 |
JPWO2012033057A1 (ja) | 2014-01-20 |
JP2013140403A (ja) | 2013-07-18 |
JP5510583B2 (ja) | 2014-06-04 |
EP2615482A1 (en) | 2013-07-17 |
CN103080802A (zh) | 2013-05-01 |
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