CN110412696B - Optical fiber connector tool - Google Patents

Optical fiber connector tool Download PDF

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Publication number
CN110412696B
CN110412696B CN201910723666.2A CN201910723666A CN110412696B CN 110412696 B CN110412696 B CN 110412696B CN 201910723666 A CN201910723666 A CN 201910723666A CN 110412696 B CN110412696 B CN 110412696B
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CN
China
Prior art keywords
optical fiber
fiber connector
connector
movable piece
movable
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CN201910723666.2A
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CN110412696A (en
Inventor
张登平
张康健
赵毅
王子瑜
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Jiangsu Unikit Optical Technology Co Ltd
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Jiangsu Unikit Optical Technology Co Ltd
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Priority to CN201910723666.2A priority Critical patent/CN110412696B/en
Publication of CN110412696A publication Critical patent/CN110412696A/en
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    • GPHYSICS
    • G02OPTICS
    • G02BOPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/24Coupling light guides
    • G02B6/36Mechanical coupling means
    • G02B6/38Mechanical coupling means having fibre to fibre mating means
    • G02B6/3807Dismountable connectors, i.e. comprising plugs
    • G02B6/3833Details of mounting fibres in ferrules; Assembly methods; Manufacture

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  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Optics & Photonics (AREA)
  • Mechanical Coupling Of Light Guides (AREA)

Abstract

The invention provides an optical fiber connector tool, which comprises: the base body is provided with a groove part for fixedly arranging the optical fiber connector; the detection end is arranged on the base body and provides a light source for detecting the position of the optical fiber inserted into the optical fiber connector through the self or an externally connected light-emitting part; the first movable piece is movably arranged on the base body and can be moved to be combined with or separated from the groove part, and in a state that the first movable piece is combined with the groove part to limit the optical fiber connector, the first movable piece is inserted through the step or inserted through the step to push the optical fiber connector movable piece for fixing the optical fiber. By arranging the first movable piece, the optical fiber connector and the optical fiber assembly can be conveniently and rapidly completed with high quality, and the working efficiency is greatly improved.

Description

Optical fiber connector tool
Technical Field
The invention mainly relates to the field of optical fiber connectors, in particular to an optical fiber connector tool.
Background
The field assembly type optical fiber connector in the current market is mainly divided into a pre-buried optical fiber connector and a straight-through type optical fiber connector, wherein a pre-buried optical fiber part of the pre-buried optical fiber connector is configured on a V-shaped groove or a combination groove, and an external optical fiber is butted with the pre-buried optical fiber in the V-shaped groove or the combination groove during assembly and is fixed through an optical fiber fixing device of the optical fiber connector; the straight-through type optical fiber connector or the fused end type optical fiber connector is a connector without embedded optical fibers, the end parts of the optical fibers are directly inserted into the optical fiber connector after being trimmed by a fused end machine, the optical fibers are fixed by an optical fiber fixing device of the optical fiber connector, the distinguishing mode of the embedded line type optical fiber connector and the straight-through type optical fiber connector mainly uses a section of optical fibers with or without embedded optical fibers as distinguishing modes, and any connector needs to fix the optical fibers in the optical fiber connector by the fixing device of the connector.
When the optical fiber connector is assembled in the field, the optical fibers in the wired optical fiber cable are combined with the optical fiber connector to perform signal transmission. For easy installation and fixing of the optical fiber, the optical fiber and the optical fiber connector are combined and fixed to be distinguished into three main types: push tube type, clamp spring type and box type, the push tube type structure is mainly through the sliding of push tube or push plate (namely optical fiber connector movable piece) located on the optical fiber connector, the extrusion groove body and the cover body are extruded and fixed; the clamping spring type is commonly called as a key type, the groove body and the cover body are clamped by the U-shaped clamping spring, so that the optical fiber is clamped and locked, and when a key (a key or a plug-in piece, namely an optical fiber connector moving piece) is inserted, an inserting piece or a boss of the key is wedged into a gap bayonet between the groove body and the cover body, so that the clamping spring is unfolded to enable the optical fiber to move; the box-lay type is similar to the clamp-spring type in that the opposite-lay type is a fiber locking state of the insert sheet in the inserted state, and the optical fiber can move in the fiber connector when the insert sheet (insert sheet or box cover, i.e., the movable member of the fiber connector) is pulled out.
In the field assembly process, the optical fiber position can be positioned and fixed through the self-contained structural functions of the three optical fiber connectors, but the positioning of the optical fiber position is not accurate enough and easy to cause fiber breakage or light bending due to the precision of the optical fiber connectors and the light weight of hands, so that the attenuation of signals is increased, the service life is short and the like.
Disclosure of Invention
The technical problems to be solved by the invention are as follows: how to realize the rapid and accurate installation of the field assembly optical fiber connector.
In order to solve the technical problems, the invention provides an optical fiber connector tool, which is realized by the following technical scheme:
An optical fiber connector tooling, comprising: the base body is provided with a groove part for fixedly arranging the optical fiber connector; the detection end is arranged on the base body and provides a light source for detecting the position of the optical fiber inserted into the optical fiber connector through the self or an externally connected light-emitting part; the first movable piece is movably arranged on the base body and can be moved to be combined with or separated from the groove part, and in a state that the first movable piece is combined with the groove part to limit the optical fiber connector, the first movable piece is inserted through the step or inserted through the step to push the optical fiber connector movable piece for fixing the optical fiber.
Further, the method further comprises the following steps: the slide way is arranged on the base body corresponding to the tail part of the optical fiber connector in the state that the optical fiber connector is arranged on the base body, and is used for enabling the detachable wire fixing sleeve of the optical fiber connector to directionally move from the outside to the tail part of the optical fiber connector; the second movable piece is movably arranged on the base and can move to be combined with or separated from the slideway, and in a state that the optical fiber connector is limited on the base and the outer skin of the optical cable to be installed is arranged at the tail part of the optical fiber connector, the second movable piece can move to push the wire fixing sleeve positioned on the slideway into the tail part of the optical fiber connector and fix the outer skin of the optical fiber to be installed at the tail part of the optical fiber connector through the wire fixing sleeve.
Further, the second movable piece is provided with a clamping groove cavity for limiting the wire fixing sleeve on the slideway.
Further, the detection end is movably arranged on the base body and is detachably combined with the optical fiber connector into a whole through a cylindrical structure combined with the optical fiber connector.
Further, the detection end is movably arranged on the base body through a pin shaft or is inserted into the base body from the outer side through an inserting part.
Further, the detection end is a shell, and the shell is used for configuring the detachable connector.
Further, the detection end comprises a shell, a switch arranged on the surface of the shell and a light source assembly arranged in the shell, wherein a light outlet point of the light source assembly is arranged at a position opposite to a fiber channel, which is limited on the base, of the fiber connector for arranging the fiber to be connected, and the switch is used for controlling the on-off of the light source assembly through the power supply of a battery of the light source assembly.
Further, one side or two sides of the base body are provided with movable shaft rods for configuring the first movable piece and/or the second movable piece.
Further, a sleeve structure or a clamping groove structure matched with the movable shaft lever is arranged on the first movable piece and/or the second movable piece.
Further, a hinge is arranged on the side portion of the base body, and the first movable piece is fixed on the hinge.
Further, a guide rail is arranged on the base body, the first movable piece is provided with an insert piece matched with the guide rail, an opening is arranged on the guide rail, the insert piece is inserted into the guide rail from the opening, the length of the guide rail ensures that the first movable piece can move the movable piece of the optical fiber connector on the base body to a locking position when moving, and/or the second movable piece can push the wire fixing sleeve on the slideway into the tail part of the optical fiber connector when moving.
Further, the length of the movable shaft rod ensures that the first movable piece can move the movable piece of the optical fiber connector on the base to a locking position when moving, and/or the second movable piece can push the wire fixing sleeve on the slideway into the tail part of the optical fiber connector when moving.
Further, the step of the first movable member is inserted into the push tube type optical fiber connector laterally.
Further, the step of the first movable member is inserted longitudinally into the clip-spring optical fiber connector.
The beneficial effects of the invention are as follows:
The optical fiber connector tool provided by the invention is characterized in that the position of an optical fiber connector is limited through the groove part on the base, then an optical fiber is installed in the optical fiber connector on the base through a light source provided by the detection end, and then the movable part of the optical fiber connector is operated through the first movable part to lock the optical fiber in the optical fiber connector; for the push tube type optical fiber connector, the step of the first movable piece is matched with the movable piece of the optical fiber connector and pushes the movable piece of the optical fiber connector, so that the optical fiber is locked; for the clamp spring type optical fiber connector, the optical fiber is unlocked and locked by inserting and extracting the step of the first movable piece and the movable piece of the optical fiber connector, so that all keys or plug-ins in the corresponding structure at present are saved; for the box-type optical fiber connector, the movable piece of the optical fiber connector is pressed in through the step of the first movable piece, so that the optical fiber is locked; the optical fiber connector is wide in application range, applicable to most types of optical fiber connectors in the current market, fast in installation speed and high in accuracy.
Drawings
FIG. 1 is a schematic view of a prior art optical fiber connector (with a ferrule) according to the present invention;
FIG. 2 is a schematic view of an opened structure of a first movable member and a second movable member of the optical fiber connector tool according to the present invention;
FIG. 3 is a top view of FIG. 1;
FIG. 4 is a schematic view of a closed structure of a first movable member and a second movable member of the optical fiber connector tool according to the present invention;
FIG. 5 is a top view of FIG. 3;
FIG. 6 is a schematic perspective view of the present invention for connecting an external power source to an optical fiber connector;
FIG. 7 is a schematic structural diagram of a detecting end of the present invention;
FIG. 8 is a cross-sectional view of a test tip of the present invention;
FIG. 9 is a schematic view of a first movable member or a second movable member with a hinge structure at one side of the present invention;
FIG. 10 is a schematic view of the structure of the guide rail with an opening of the present invention;
FIG. 11 is a side view of the movable shaft of the present invention engaged with a bar-shaped slot of the first movable member or the second movable member;
FIG. 12 is a schematic view of a first movable member according to the present invention;
FIG. 13 is a side view of the first movable member or the second movable member of the present invention with a rail slider;
FIG. 14 is a schematic view of an optical fiber penetrating fiber optic connector according to the present invention;
FIG. 15 is a schematic view of the structure of an aramid fiber layer and an inlet tube on an outer jacket of the optical cable of the present invention;
Fig. 16 is a schematic view of the structure of the cable jacket of the present invention;
FIG. 17 is a schematic view of a structure of a second movable member of the present invention;
FIG. 18 is a schematic view showing the structure of the second movable member of the present invention pushed forward;
FIG. 19 is a schematic view of the structure of the first movable member and the second movable member of the present invention after the cable fixing sleeve is pushed into place;
Wherein:
1. A base; 1-1, a groove part; 1-2, a slideway; 1-3, wiring grooves; 1-4, dovetail grooves; 1-5, a movable shaft lever; 1-6, a spring;
2. A detection end; 2-1, a pin shaft; 2-2, detecting end sleeve;
3. A first movable member; 3-1, a first step; 3-2, a first shaft sleeve;
4. a second movable member; 4-1, a second step; 4-2, a second shaft sleeve, 4-3 and a clamping groove cavity;
5. An optical fiber connector; 5-1, an optical fiber connector body; 5-2, fixing ring; 5-3, a wire inlet pipe; 5-4, fixing the wire sleeve; 5-4-1 wire fixing sleeve steps; 5-5 parts of tail cap.
Detailed Description
The preferred mechanism and method of movement of the present invention will be further described with reference to the drawings and detailed description below, in which the fiber optic connector moving parts are specific to various types of fiber optic connectors for securing optical fibers.
As shown in fig. 2 to 19, an optical fiber connector tool includes a base 1, a detection end 2, a first movable member 3 and a second movable member 4.
The base 1 is provided with a groove 1-1 for fixedly arranging the optical fiber connector.
The groove 1-1 is mainly used for fixing the optical fiber connector main body 5-1 in a disassembled state in field installation, and the optical fiber connector in the disassembled state is provided with various types of groove 1-1 as shown in fig. 1, for example, the groove 1-1 matched with the outline of the optical fiber connector main body 5-1 in the disassembled state is arranged, so that the optical fiber connector main body 5-1 is fixed;
The optical fiber connector body 5-1 can be fixed by arranging a convex clamping point, clamping position or concave fixing hole position on the optical fiber connector 5, and arranging a corresponding structure such as a groove, clamping position or short column on the clamping point, clamping position or hole position by the groove part 1-1; the fixing can also be realized according to some structural characteristics of the optical fiber connector, for example, a boss 5-6 is naturally formed at the tail part of some optical fiber connector main bodies 5-1, a step 5-7 is necessary in structural design, and a clamping groove or a protruding ridge matched with the corresponding boss can be correspondingly designed in the groove part 1-1. Or the optical fiber connector main body 5-1 is provided with a small fixing hole which does not affect the main body structure, and the groove part 1-1 is correspondingly provided with a convex clamping pin which extends into the small fixing hole so as to fix the relative position of the optical fiber connector 5.
The direction in the slot 1-1 in which the fixation is required for the different connectors:
For the push-tube type optical fiber connector, the push-tube type optical fiber connector is characterized in that the optical fiber connector moving part of the push-tube type optical fiber connector 5 is pushed to advance or retreat in the axial direction so as to lock the optical fiber, so that the groove part 1-1 of the optical fiber connector tool has the main function of fixing the optical fiber connector 5 to be fixed in the longitudinal direction or the axial direction; meanwhile, because the bayonet of the optical fiber connector movable piece of the push tube type optical fiber connector is transversely arranged, even when the first step 3-1 of the first movable piece 3 is inserted into the optical fiber connector movable piece, the optical fiber connector tool can not influence the pushing of the optical fiber connector movable piece in the longitudinal direction even if the optical fiber connector 5 transversely slides in the groove part 1-1.
For the U-shaped clip spring type optical fiber connector, because the first step 3-1 of the key is flat when the key is inserted into the optical fiber connector 5, and the bayonet parts of the optical fiber connector 5 and the key are arranged along the longitudinal direction or the axial direction, in order to wedge the first step 3-1 of the first movable part 3 of the optical fiber connector tool into the bayonet of the movable part of the optical fiber connector, namely, the slot bayonet between the slot body and the cover body, the first step 3-1 is also designed along the longitudinal direction; so theoretically, as long as the bayonet is long enough, after the first step 3-1 of the first movable member 3 of the optical fiber connector fixture is inserted into the optical fiber connector movable member, the insertion of the optical fiber into the optical fiber connector 5 is not affected even if the optical fiber connector 5 slides back and forth in the longitudinal direction, so the groove portion 1-1 can be mainly used for limiting the lateral position of the optical fiber connector.
For box-laying type optical fiber connector, the optical fiber connector is locked by mainly inserting the optical fiber connector movable piece, namely the inserting piece or the box cover, into the optical fiber connector, so that the inserting piece or the box cover can be pressed in only by the step of the first movable piece.
The above is a possible way of limiting the fixation of the fiber optic connector by the groove portion 1-1, but the optimal fixation for three fiber optic connectors is still fixed both laterally and longitudinally.
The detection end 2 is arranged on the base body 1-1 and provides a light source for detecting the position of the optical fiber inserted into the optical fiber connector through the self or an externally connected light-emitting part. The detection end 2 is detachably integrated with the optical fiber connector 5 by a cylindrical structure combined with the optical fiber connector, namely, the detection end sleeve 2-2.
The main function of the detecting end 2 is to confirm that the optical fiber is inserted into the correct position when the optical fiber is inserted into the optical fiber connector 5, and then to lock the optical fiber by the movable member of the optical fiber connector. Because the optical fiber or the bare fiber is very fragile, if the pin of the optical fiber connector 5 is plugged only by the end cover, the operator needs to feel whether the optical fiber is inserted into the end of the pin by hand of the operator or whether the inserted optical fiber is bent, so that the optical fiber is easy to be excessively inserted or the optical fiber is broken when being inserted, and other adverse effects are easily caused, so that the position of the optical fiber is conveniently checked. Specifically, the principle is as follows:
the detection end 2 emits a light source, the light source emits to the end face of the optical fiber connector 5, if no optical fiber is inserted, the contact pin of the optical fiber connector 5 is in a hollow state, the light source is not coupled into the optical fiber, at the moment, the light source is in a scattering state due to radiation, and the brightness of light leaking out of the contact pin in the radial direction is higher; when the optical fiber is inserted into the end part of the contact pin, the optical fiber can be coupled with the light source if the optical fiber reaches the end part of the contact pin, and at the moment, most of light is transmitted due to the light guide characteristic of the optical fiber, so that the brightness of the contact part of the light source and the contact pin can be obviously reduced, whether the position of the optical fiber is in place can be judged through visual brightness, excessive insertion of the optical fiber or insufficient insertion length of the optical fiber is not easy to cause, and the optical fiber is particularly suitable for field installation.
The detecting end 2 may be only one housing for configuring the detachable connection head 12, and the form of the scheme is that another detachable connection head 12 specially providing a light source is configured, and the detachable connection head 12 may be another optical fiber connector specially providing a light source, and the optical fiber connector is directly connected with the light source through an optical fiber or through a tail fiber, that is, the optical fiber connector 5 fixed in the groove part 1-1 of the present patent is provided with a detecting light source through external light source luminescence. The design adopts the existing light source tool which is arranged on the present site for detecting whether the optical cable is good or not, the light source tool comprises a detachable connector 12, the detachable connector 12 is provided with a light-emitting part which is in butt joint with the optical fiber, and the condition of the optical fiber to be detected can be detected initially by inputting the light source into the optical fiber to be detected; therefore, the detection end 2 of the patent can be just a shell which is in butt joint with an existing light source tool on site, so that the reasonable utilization of the existing tool is realized.
Meanwhile, the detection end 2 can also be a self-contained light source, the structure of the detection end is similar to that of the existing portable light source, a shell of the detection end is provided with a switch and a light source assembly, a light outlet point of the light source assembly is arranged at a position opposite to a fiber channel of an optical fiber to be connected with the optical fiber connector limited on the base, and the light source assembly is powered by a battery of the light source assembly, so that the light source can be controlled to be started by a button in a serial connection mode. The light source assembly outputs a light source through the end part of the optical fiber positioned in the light source assembly and is opposite to the optical fiber in the optical fiber connector on the base body 1, and the scheme is equivalent to arranging the light source in the shell of the detection end, so that the position condition of the optical fiber connector 5 inserted into the optical fiber can be detected by using the light source of the tool.
When the optical fiber connector is configured on the base 1, the detection end 2 can be configured on the base 1 in a plug-in mode through the plug-in part from the outside, and the detection end can be matched with a boss matched with the channel only through the channel, as shown in fig. 2, 7 and 8, and meanwhile, the optimal mode provided by the patent is as follows: the detection end 2 is movably arranged on the seat body 1 through a pin shaft 2-1. Although the detection end 2 may be completely fixed, the optical fiber connector 5 may be damaged by being forcibly locked in such a manner, and the structure is not necessarily firm, which is disadvantageous in detecting the position of the optical fiber by the light source. For a general optical fiber connector 5, a gap is formed between the head part of the contact pin and the shell, so that the head part of the detection end 2 is provided with a detection end sleeve 2-2 matched with the gap, the detection end sleeve 2-2 is inserted into the head part of the optical fiber connector 5, so that the detection end 2 and the optical fiber connector 5 are connected into a whole, and the detection end 2 also follows the position of the optical fiber connector 5 to be fixed in a state that the optical fiber connector 5 is fixed in the groove part 1-1, and the optical fiber connector 5 is driven to move onto the base 1 along a fixed track by the action of the pin shaft 2-1 and combined with the groove part 1-1, so that the optical fiber connector 5 is accurately configured in the groove part 1-1.
The first movable member 3 is movably provided to the base 1 and is movable to be combined with or separated from the groove portion 1-1, and in a state that the first movable member 3 is combined with the groove portion 1-1 to restrict the optical fiber connector 5, the first movable member 3 is inserted through the first step 3-1 of the first movable member 3 or is inserted through the first step 3-1 and pushes the optical fiber connector movable member for fixing the optical fiber.
As shown in fig. 13, wherein the first step 3-1 of the first movable member 3 is flat, the first step 3-1 of the first movable member is laterally inserted into the push-tube type optical fiber connector; as shown in fig. 11 and 12, or inserted longitudinally into a clip-spring fiber optic connector.
The manner in which the first movable member 3 is movably disposed can be distinguished by the state: one of which is reversible and the other of which is detachable, specifically:
The turnover structure can be as shown in fig. 2, one side of the groove part 1-1 is provided with a suspended movable shaft lever 1-5, one side of the first movable part 3 is provided with a first shaft lever sleeve 3-2 which is matched with the movable shaft lever 1-5, so that turnover can be performed; meanwhile, as shown in fig. 9, the structure of the first shaft lever sleeve 3-2 matched with the movable shaft lever 1-5 can be correspondingly changed into a hinge structure 6, the hinge structure 6 can be formed by overturning a hinge part, one side of the hinge can be combined with the first movable part 3 into a whole, and the other side of the hinge is fixed on one side of the groove part 1-1 of the seat body 1, so that the hinge structure 6 can be used for overturning.
The detachable structure can be that one side or two sides of the groove part 1-1 are provided with movable shaft rods 1-5, as shown in fig. 11, one side or two sides of the corresponding side of the first movable part 3 are provided with strip-shaped clamping grooves 7 corresponding to the movable shaft rods 1-5, and the strip-shaped clamping grooves can be elastically clamped on the movable shaft rods 1-5 through the material of the first movable part 3, so that the first movable part 3 is fixed and detached; meanwhile, as shown in fig. 10, or a groove guide rail 8 is arranged on one side or two sides of the groove part 1-1, an opening part 9 is arranged on the guide rail, the opening part can be positioned on the top or the side part, as shown in fig. 13, a guide rail sliding part 10 which is downwards extended and matched with the groove guide rail is arranged on one side or two sides of the corresponding first movable part 3, the guide rail sliding part 10 is inserted into the guide rail at the opening part 9, and the first movable part 3 is pushed to enable the guide rail sliding part to be coupled with the groove guide rail, so that the detachable structure is realized.
For push-tube type optical fiber connectors, the length of the movable shaft rod 1-5 ensures that the first movable part 3 can move the optical fiber connector movable part positioned on the base body 1 to a locking position when moving, or the length of the guide rail 8 ensures that the first movable part 3 can move the optical fiber connector movable part positioned on the base body 1 to the locking position when moving.
The locking position refers to a position where the optical fiber is locked and fastened in the optical fiber connector by moving the optical fiber connector moving part from one end to the other end after the optical fiber is inserted into the optical fiber connector.
For the push-tube type optical fiber connector 5, since it is required to be inserted into the optical fiber connector movable member at the first step 3-1 of the first movable member 3 and push the optical fiber connector movable member to lock the optical fiber to the optical fiber connector 5, the first movable member 3 is required to be capable of being turned over and slid back and forth at this time.
Therefore, when the turnover structure is applied to the push tube type optical fiber connector, one side of the groove part 1-1 is provided with a suspended movable shaft rod 1-5, one side of the first movable part 3 is provided with a first shaft rod sleeve 3-2 matched with the movable shaft rod 1-5, the length of the movable shaft rod 1-5 is longer than that of the first shaft rod sleeve 3-2, and the first movable part 3 can turn over on the movable shaft rod 1-5 and move back and forth along the movable shaft rod 1-5, so that the movable part of the optical fiber connector can be moved to the position where the optical fiber is locked or unlocked; if the structure is realized by a hinge structure, a guide rail can be arranged on the seat body, and the structure of the guide rail is similar to that of the guide rail in the above-mentioned and detachable type, so long as the first movable part 3 can be ensured to move back and forth along the axial direction in the state of being coupled with the movable part of the optical fiber connector; the first movable part 3 can be detachable if the opening part 9 is arranged on the slideway guide rail;
For the detachable structure, the first movable part 3 may also be provided with a movable shaft lever 1-5 on one side or two sides of the groove part 1-1, as shown in fig. 11, one side or two sides of the first movable part 3 corresponding to the movable shaft lever 1-5 is provided with a strip-shaped clamping groove 7, and the length of the movable shaft lever 1-5 is longer than that of the strip-shaped clamping groove 7, so that detachment is realized and the first movable part 3 moves along the movable shaft lever 1-5 in the axial direction; it is also possible to provide a groove guide rail 8 on one side or both sides of the groove portion 1-1 to realize the forward and backward movement of the first movable member 3 along the movable shaft lever 1-5.
When the detachable structure is applied to the U-shaped clamp spring type optical fiber connector, the first step 3-1 of the first movable piece 3 needs to be wedged into or separated from the optical fiber connector 5 so as to finish the action of loosening and locking, so that the first movable piece 3 can realize the actions in a vertical direction by a turnover or separation mode relative to the groove part 1-1; thus, for the overturned version, as shown in fig. 12, the structure is substantially identical to that of the first movable member 3 for the overturned version, but the first shaft sleeve 3-2 adopts a kidney-shaped hole structure 11 which can move up and down on the movable shaft 1-5, so as to realize the wedging or leaving action; in the detachable structure, the direction of the first step 3-1 of the first movable member 3 is generally the same as the longitudinal direction of the optical fiber connector 5, and the detachable structure is generally realized by the action of inserting or extracting, so that most of the detachable structure is suitable for the U-shaped clip-type optical fiber connector.
The box-type optical fiber connector can lock the optical fiber by simply pressing the insert or the cover, and therefore, the box-type optical fiber connector can be applied to most of the above structural forms of the movable member 3, and will not be described again.
As shown in fig. 2, the slide rail 1-2 is provided on the housing 1 corresponding to the tail portion of the optical fiber connector 5 in a state where the optical fiber connector 5 is arranged on the housing 1, and allows the detachable wire fixing sleeve 5-4 of the optical fiber connector 5 to be moved from the outside to the tail portion of the optical fiber connector in an oriented manner.
The movable mode of the cable fixing sleeve 5-4 and the second movable member 4 is as shown in fig. 14, 15, 16, 17, 18 and 19, the slideway 1-2 is a channel for sliding the cable fixing sleeve 5-4 at the tail of the optical fiber connector 5, and provides guiding and limiting effects for the cable fixing sleeve 5-4 to slide towards the tail of the optical fiber connector 5, mainly clamping the outer sheath of the optical cable between the cable inlet tube 5-3 and the cable fixing sleeve 5-4 of the optical fiber connector, and clamping the aramid fiber reinforced core of the optical cable between the fixed ring 5-2 and the cable fixing sleeve 5-4. Because the sheath has a certain thickness and is tightly clamped, the wire fixing sleeve 5-4 is sleeved into the wire inlet pipe 5-3, and the aramid fiber reinforced core can be clamped only under the condition that the sheath is accurately clamped, the tool of the patent needs to be used.
And a second movable member 4 movably provided to the base 1 and movable to be combined with or separated from the slideway 1-2, the second movable member 4 being movable to push a wire fixing sleeve 5-4 provided on the slideway 1-2 into the tail of the optical fiber connector 5 in a state that the optical fiber connector 5 is restrained on the base 1 and the outer skin and the aramid fiber reinforcing core of the optical cable to be mounted are arranged at the tail of the optical fiber connector 5, and fix the outer skin and the aramid fiber reinforcing core of the optical cable to be mounted to the tail of the optical fiber connector 5 through the wire fixing sleeve 5-4.
The wire fixing sleeve 5-4 of the optical fiber connector 5 is of a hollow columnar structure, the wire fixing sleeve 5-4 is provided with a wire fixing sleeve step, and the wire fixing sleeve step enables the columnar structure to be of a step type, so that the optical fiber connector is suitable for clamping the outer skin and the aramid fiber reinforced core simultaneously. The main function of the wire fixing sleeve 5-4 is to clamp the outer skin and the aramid fiber of the optical cable at the tail part of the optical fiber connector 5, so that the optical cable can be fixed, the second movable part 4 drives the wire fixing sleeve 5-4 on the slide way 1-2 to be accurate in direction, and meanwhile, the wire fixing sleeve 5-4 can be installed at the tail part of the optical fiber connector 5 by applying larger force.
The second movable part is provided with a clamping groove cavity 4-3 for limiting the wire fixing sleeve 5-4 on the slideway 1-2. The shape of the clamping groove cavity 4-3 is matched with that of the wire fixing sleeve 5-4, and the wire fixing sleeve 5-4 can be accommodated when the wire fixing sleeve 5-4 is pushed to move towards the tail of the optical fiber connector 5.
The second movable piece 4 is provided with a second step 4-1, and the second step 4-1 can prop against the wire fixing sleeve 5-4. The clamping groove cavity 4-3 can also be a channel for accommodating the optical fiber wire, and the wire fixing sleeve 5-4 is pushed by the front surface of the second movable piece 4.
The main functions of the second movable member 4 are: because the characteristics of loose sleeve optical cable penetrate fiber optic cable to the afterbody of fiber optic connector after the installation, the operating personnel is manual at the scene to embolia solid line cover 5-4 to the afterbody of fiber optic connector 5, because manual operation can be uneven or the direction is inaccurate and lead to solid line cover 5-4 to warp easily with uneven effort, or resistance is too big to pack into, or the fiber optic cable drunkenness when embolia solid line cover after penetrating fiber optic cable, causes interference or not enough, makes the optic fibre can not dock accurately. The second step 4-1 is arranged in the second movable piece 4, and the wire fixing sleeve 5-4 is driven by the second step 4-1, so that the wire fixing sleeve 5-4 moves towards the tail of the optical fiber connector 5 along the slideway 1-2 by pushing the movable piece 4, the step of manually operating the wire fixing sleeve 5-4 is omitted, and the wire fixing sleeve 5-4 is installed in place and accurately due to the guiding and limiting effects of the slideway 1-2, and the tail cap 5-5 of the optical fiber connector can also be installed accurately.
Similar to the first movable member 3, the second movable member 4 may be combined with the base 1 in a reversible manner and in a detachable manner. However, unlike the first movable member 3, the second movable member 4 can be moved longitudinally back and forth, and the structure is similar to that of the first movable member, and will not be described here.
For the most preferred embodiment of the second movable member, as shown in fig. 2, the second movable member 4 is engaged with the shaft sleeve 3-2 through the movable shaft 2-6, and the movable shaft 2-6 may be sleeved with the spring 1-6, and the spring 1-6 is disposed at the front of the second movable member 4. When the second movable piece 4 pushes the wire fixing sleeve 5-4 to move towards the tail of the optical fiber connector, the spring 1-6 firstly provides a resistance for the second movable piece 4, so that the second movable piece 4 slowly pushes the wire fixing sleeve 5-4, and applies a larger force to the wire fixing sleeve 5-4, which is beneficial to the wire fixing sleeve 5-4 to clamp the aramid fiber reinforced core and the sheath, and when the wire fixing sleeve 5-4 is in place, the spring 1-6 enables the second movable piece 4 to quickly reset, so that the second movable piece 4 is separated from the wire fixing sleeve 5-4 of the optical fiber connector.
The tail part of the base body 1 is provided with a dovetail groove 1-4, the dovetail groove 1-4 is communicated with a through groove at the bottom of the slideway 1-2, the through groove is arranged along the slideway 1-2, and an opening of the dovetail groove 1-4 is used for conveniently pulling down an aramid fiber reinforced core of the optical fiber wire when in field installation manual operation.
The surface of the base body 1 is also provided with a wire pressing groove 1-3, the rear part of the tool is arranged according to the wire pressing groove 1-3 and is a concave part in the shape of a finger, so that an optical fiber is conveniently pressed on the base body 1 by a thumb after penetrating into the optical fiber connector, and the loose optical cable is not easy to move.
The relative position of the optical fiber connector is limited by the groove part arranged on the base body, the light source of the detection end is in butt joint with the contact pin of the optical fiber connector after the relative position is limited, the bare fiber is inserted into the optical fiber connector after the optical cable is peeled, if the end part of the optical fiber is inserted into the outlet end part of the contact pin, the light source is conducted at the moment, and the phenomenon that the obvious brightness is weakened from strong occurs at the position where the light source of the detection end is in butt joint with the contact pin; for the push tube type optical fiber connector, only the first movable piece is buckled with the base body, the first step on the corresponding first movable piece is coupled with the movable part (namely the push tube or the push sheet) of the optical fiber connector, and the optical fiber can be locked at the correct position of the optical fiber connector by pushing the movable piece at the moment, so that the whole process is convenient and rapid, and the success rate is high; for the clamp spring type optical fiber connector, the first movable piece is equivalent to a key which is arranged on each optical fiber connector in the prior art, when the clamp spring type optical fiber connector is used, the first movable piece is firstly opened, the clamp spring type optical fiber connector is fixed in the groove part, then the first movable piece is buckled, at the moment, the first step of the first movable piece is inserted into the movable part of the optical fiber connector, then the optical cable is peeled off and the bare fiber is inserted into the optical fiber connector, as described above, after the butt joint is successful, the first movable piece is turned over or taken down, and the optical fiber can be locked at the correct position of the optical fiber connector, so that the key is not required to be arranged independently in each clamp spring type optical fiber connector, and the cost applied to parts of the key part is greatly saved while the optical fiber connector can be assembled conveniently, rapidly and high-quality.
Finally, it should be noted that: although the present invention has been described in detail with reference to the embodiments, it should be understood that the invention is not limited to the preferred embodiments, but is capable of modification and equivalents to some of the features described in the foregoing embodiments, but is intended to cover all modifications, equivalents, and alternatives falling within the spirit and principles of the invention.

Claims (12)

1. An optical fiber connector frock, its characterized in that:
comprising the following steps:
the base body is provided with a groove part for fixedly arranging the optical fiber connector;
The detection end is arranged on the base body and provides a light source for detecting the position of the optical fiber inserted into the optical fiber connector through the self or an externally connected light-emitting part;
The first movable piece is movably arranged on the base body and can be moved to be combined with or separated from the groove part, and in a state that the first movable piece is combined with the groove part to limit the optical fiber connector, the first movable piece is inserted through a step or inserted through the step to push the optical fiber connector movable piece for fixing the optical fiber;
The detection end is movably arranged on the base body and is detachably combined with the optical fiber connector into a whole through a cylindrical structure combined with the optical fiber connector;
The detection end is movably arranged on the base body through a pin shaft or is inserted into the base body from the outer side through the plug-in connection part.
2. The fiber optic connector tooling of claim 1, wherein: further comprises:
the slide way is arranged on the base body corresponding to the tail part of the optical fiber connector in the state that the optical fiber connector is arranged on the base body, and is used for enabling the detachable wire fixing sleeve of the optical fiber connector to directionally move from the outside to the tail part of the optical fiber connector;
The second movable piece is movably arranged on the base and can move to be combined with or separated from the slideway, and in a state that the optical fiber connector is limited on the base and the outer skin of the optical cable to be installed is arranged at the tail part of the optical fiber connector, the second movable piece can move to push the wire fixing sleeve positioned on the slideway into the tail part of the optical fiber connector and fix the outer skin of the optical fiber to be installed at the tail part of the optical fiber connector through the wire fixing sleeve.
3. The fiber optic connector tooling of claim 2, wherein: the second movable piece is provided with a clamping groove cavity for limiting the wire fixing sleeve on the slideway.
4. The fiber optic connector tooling of claim 1, wherein: the detection end is a shell, and the shell is used for configuring the detachable connector.
5. The fiber optic connector tooling of claim 1, wherein: the detection end comprises a shell, a switch arranged on the surface of the shell and a light source assembly arranged in the shell, wherein a light outlet point of the light source assembly is arranged at a position opposite to a fiber channel, which is limited on the base, of the fiber connector for arranging the fiber to be connected, and the switch is used for controlling the on-off of the light source assembly through the battery power supply of the light source assembly.
6. A fiber optic connector tooling according to any one of claims 2-3, wherein: one side or two sides of the seat body are provided with movable shaft rods for configuring the first movable piece and/or the second movable piece.
7. The fiber optic connector tooling of claim 6, wherein: and the first movable piece and/or the second movable piece is/are provided with a sleeve structure or a clamping groove structure matched with the movable shaft lever.
8. A fiber optic connector tooling according to any one of claims 1-3, wherein: the side of the seat body is provided with a hinge, and the first movable piece is fixed on the hinge.
9. A fiber optic connector tooling according to any one of claims 1-3, wherein: the optical fiber connector is characterized in that a guide rail is arranged on the base body, the first movable piece and/or the second movable piece are/is provided with an insertion piece matched with the guide rail, an opening is arranged on the guide rail, the insertion piece is inserted into the guide rail from the opening, the length of the guide rail ensures that the first movable piece can move the movable piece of the optical fiber connector positioned on the base body to a locking position when moving, and/or the second movable piece can push a wire fixing sleeve positioned on a slide rail into the tail of the optical fiber connector when moving.
10. The fiber optic connector tooling of claim 6, wherein: the length of the movable shaft rod ensures that the first movable part can move the movable part of the optical fiber connector on the base to a locking position when moving and/or the second movable part can push the wire fixing sleeve on the slideway into the tail part of the optical fiber connector when moving.
11. A fiber optic connector tooling according to any one of claims 1-3, wherein: the step of the first movable member is inserted into the push tube type optical fiber connector transversely.
12. A fiber optic connector tooling according to any one of claims 1-3, wherein: the step of the first movable member is inserted longitudinally into the clip-spring optical fiber connector.
CN201910723666.2A 2019-08-06 2019-08-06 Optical fiber connector tool Active CN110412696B (en)

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CN113328395A (en) * 2021-07-13 2021-08-31 浙江亚厦装饰股份有限公司 Wire casing subassembly

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JP2005134585A (en) * 2003-10-29 2005-05-26 Fujikura Ltd Optical fiber splicing tool
JP2014219517A (en) * 2013-05-07 2014-11-20 株式会社フジクラ Optical fiber connecting tool and optical fiber connection method
CN104216063A (en) * 2014-08-21 2014-12-17 江苏宇特光电科技股份有限公司 Field-assembled optical fiber connector
CN210427860U (en) * 2019-08-06 2020-04-28 江苏宇特光电科技股份有限公司 Optical fiber connector tool

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Publication number Priority date Publication date Assignee Title
WO2010147750A2 (en) * 2009-06-16 2010-12-23 3M Innovative Properties Company Assembly tool and optical connector assembly method

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Publication number Priority date Publication date Assignee Title
JP2005134585A (en) * 2003-10-29 2005-05-26 Fujikura Ltd Optical fiber splicing tool
JP2014219517A (en) * 2013-05-07 2014-11-20 株式会社フジクラ Optical fiber connecting tool and optical fiber connection method
CN104216063A (en) * 2014-08-21 2014-12-17 江苏宇特光电科技股份有限公司 Field-assembled optical fiber connector
CN210427860U (en) * 2019-08-06 2020-04-28 江苏宇特光电科技股份有限公司 Optical fiber connector tool

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