Optical fiber processing tool and optical fiber movable connector

文档序号:566868 发布日期:2021-05-18 浏览:19次 中文

阅读说明:本技术 一种光纤处理工具和光纤活动连接器 (Optical fiber processing tool and optical fiber movable connector ) 是由 黄美金 张海焱 邹峰 胡军 于 2019-11-18 设计创作,主要内容包括:本发明公开了一种光纤处理工具和光纤活动连接器,涉及光纤通信技术领域,光纤处理工具包括:工具主体,其包括主体正面,主体正面上设有第一收容槽;旋转档位开关,其设置在第一收容槽内,包括至少两个调节档位,其在调节档位之间切换时可调节光缆端部到工具主体的第一端部之间的光纤的长度。光纤活动连接器包括:连接器主体,其内并排设有第一收容腔和第二收容腔,第一收容腔内设有光纤固定装置;推拉部件,其至少部分滑设于第二收容腔内;光缆卡扣,其固定在推拉部件位于第二收容腔外的一端上,光缆卡扣内固定有光缆。本发明中的光纤处理工具能解决不同切割刀导致光纤切割长度不一致的问题,光纤活动连接器对接光纤时操作方便,作业效率高。(The invention discloses an optical fiber processing tool and an optical fiber movable connector, which relate to the technical field of optical fiber communication, wherein the optical fiber processing tool comprises: the tool main body comprises a main body front surface, and a first accommodating groove is formed in the main body front surface; rotatory gear switch, it sets up in first accepting groove, including at least two regulation gears, its adjustable optical cable end is to the length of the optic fibre between the first end of tool body when adjusting the gear and switching. The optical fiber connector includes: the connector comprises a connector main body, a first accommodating cavity and a second accommodating cavity are arranged in the connector main body side by side, and an optical fiber fixing device is arranged in the first accommodating cavity; the push-pull component is at least partially arranged in the second accommodating cavity in a sliding manner; and the optical cable buckle is fixed at one end of the push-pull component positioned outside the second accommodating cavity, and an optical cable is fixed in the optical cable buckle. The optical fiber processing tool can solve the problem that the cutting lengths of optical fibers are inconsistent due to different cutting knives, and the optical fiber movable connector is convenient to operate and high in operation efficiency when being butted with the optical fibers.)

1. An optical fiber processing tool, comprising:

the tool comprises a tool main body (1) and a cutting tool, wherein the tool main body (1) comprises a main body front surface (11), a first containing groove (12) is formed in the main body front surface (11), the first containing groove (12) is used for containing an optical cable of an optical fiber to be cut, and the optical fiber to be cut can penetrate through a first end portion (100) of the tool main body (1);

rotatory gear switch (2), it sets up in first accepting groove (12), rotatory gear switch (2) include two at least regulation gears, just rotatory gear switch (2) are adjustable when adjusting the gear the optical cable tip arrives the length of optic fibre between first end (100) of tool body (1).

2. An optical fiber processing tool according to claim 1, wherein a retaining member (13) is disposed on the first receiving groove (12), and the rotary-position switch (2) is configured to cooperate with the retaining member (13) to fix the optical fiber cable.

3. An optical fiber processing tool according to claim 2, wherein the rotary position switch (2) comprises:

an adjustment disc (21);

the first adjusting gear comprises a first guide groove (22) and a first cutting groove (23) which are arranged on the adjusting disc (21) and matched with each other, the first guide groove (22) is used for accommodating the optical fiber to be cut, and the first cutting groove (23) is preset with a first depth and used for being matched with the limiting piece (13) to fix the optical cable;

and the second adjusting gear comprises a second guide groove (24) and a second cutting groove (25) which are arranged on the adjusting disc (21) and are matched with each other, the second guide groove (24) is used for accommodating the optical fiber to be cut, and the second cutting groove (25) is preset with a second depth different from the first depth and is used for being matched with the limiting piece (13) to fix the optical cable.

4. An optical fiber processing tool according to claim 3, wherein a rotary shaft (14) is further provided on the front surface (11) of the main body, and the adjusting plate (21) is fitted over the rotary shaft (14) and rotatable around the rotary shaft (14) to switch between the first adjusting position and the second adjusting position.

5. An optical fibre handling tool as claimed in claim 3, wherein the retaining member (13) comprises two spaced apart retaining tabs which form a retaining space with the first (23) or second (25) cutting slot for securing the optical fibre cable.

6. An optical fiber processing tool according to claim 1, wherein: the tool body (1) further comprises a body back surface (15) opposite to the body front surface (11), a second accommodating groove (16) is formed in the body back surface (15), the second accommodating groove (16) is used for accommodating optical cables with coatings of optical fibers to be removed and enabling the optical fibers with the coatings to be removed to penetrate out of a second end portion (200) of the tool body (1), the second end portion (200) is opposite to the first end portion (100), and a coating removing device (3) capable of enabling the optical fibers with the coatings to be removed to penetrate out is further arranged on the second end portion (200).

7. An optical fiber processing tool according to claim 6, wherein the coating removing means (3) comprises:

an upper clamping seat (31) and a lower clamping seat (32) which can be closed and separated, wherein the upper clamping seat (31) and the lower clamping seat (32) are arranged on the second end part (200) of the tool main body (1) at intervals so as to lead out the optical fiber to be subjected to coating removal;

the upper clamp (33) is arranged on the upper clamp seat (31) and can slide along the upper clamp seat (31);

the lower clamp (34) is arranged on the lower clamp seat (32) and can slide along the lower clamp seat (32);

when the upper clamp (33) and/or the lower clamp (34) slide, relative sliding is generated between the upper clamp (33) and the lower clamp (34) along the direction vertical to the axial direction of the tool main body (1).

8. An optical fiber processing tool according to claim 6 or 7, wherein the coating-removing means (3) is of plastic material.

9. An optical fiber processing tool according to claim 1, wherein: the tool main body (1) is also provided with a projection (17) for opening an optical cable protective cover (44) of the optical fiber movable connector.

10. An optical fiber processing tool, comprising: the optical fiber coating removing tool comprises a tool body (1), wherein the tool body (1) comprises a body back surface (15), a second accommodating groove (16) is formed in the body back surface (15), the second accommodating groove (16) is used for accommodating an optical cable to be coated with an optical fiber, the optical fiber to be coated with the coating can penetrate out of a second end portion (200) of the tool body (1), and a coating removing device (3) for the optical fiber to be coated with the coating to penetrate out is further arranged on the second end portion (200).

11. An optical fiber processing tool according to claim 10, wherein the coating removing means (3) comprises:

an upper clamping seat (31) and a lower clamping seat (32) which can be closed and separated, wherein the upper clamping seat (31) and the lower clamping seat (32) are arranged on the second end part (200) of the tool main body (1) at intervals so as to lead out the optical fiber to be subjected to coating removal;

the upper clamp (33) is arranged on the upper clamp seat (31) and can slide along the upper clamp seat (31);

the lower clamp (34) is arranged on the lower clamp seat (32) and can slide along the lower clamp seat (32);

when the upper clamp (33) and/or the lower clamp (34) slide, relative sliding is generated between the upper clamp (33) and the lower clamp (34) along the direction vertical to the axial direction of the tool main body (1).

12. A fiber optic pigtail connector comprising:

the connector comprises a connector main body (4), a first accommodating cavity (41) and a second accommodating cavity (42) are arranged in the connector main body side by side, and an optical fiber fixing device (43) is arranged in the first accommodating cavity (41);

a push-pull member (5) which is at least partially slidably disposed in the second housing cavity (42);

a cable clamp (6) fixed to an end of the push-pull member (5) located outside the second receiving cavity (42), and the optical cable processed by the optical fiber processing tool according to claim 5 is fixed inside the cable clamp (6), and when the push-pull member (5) slides in place inside the second receiving cavity (42), the optical fiber of the optical cable is aligned with the optical fiber inside the optical fiber fixing device (43) and bent.

13. The fiber optic pigtail of claim 12, wherein: optical cable buckle (6) are including flip (61) and installation cell body (62), installation cell body (62) are used for the centre gripping the optical cable, flip (61) can be followed the axial direction of optical cable is around installation cell body (62) upset or with the optical cable is the upset of axle around installation cell body (62).

14. The fiber optic pigtail of claim 13, wherein: and a tooth-shaped structure (63) is arranged on the inner side of the mounting groove body (62).

15. The fiber optic pigtail of claim 12, wherein: the optical fiber connector further comprises an optical cable protective cover (44) capable of axially overturning around the connector main body (4), an installation shaft (45) is further arranged on the outer wall of the second accommodating cavity (42), and the optical cable protective cover (44) is riveted on the outer wall of the second accommodating cavity (42) through the installation shaft (45).

16. The fiber optic pigtail of claim 12, wherein: the bottom of the push-pull component (5) is provided with an anti-tripping device (51), the outer wall of the second accommodating cavity (42) is further provided with two anti-tripping holes (421) which are arranged at intervals and matched with the anti-tripping device (51) so as to limit the push-pull component (5) to slide between the two anti-tripping holes (421).

17. A fiber optic pigtail connector comprising:

the connector comprises a connector main body (4), a first accommodating cavity (41) and a second accommodating cavity (42) are arranged in the connector main body side by side, and an optical fiber fixing device (43) is arranged in the first accommodating cavity (41);

a push-pull member (5) which is at least partially slidably disposed in the second housing cavity (42);

and the optical cable buckle (6) is fixed at one end of the push-pull component (5) positioned outside the second accommodating cavity (42), an optical cable with optical fibers of a preset length is fixed in the optical cable buckle (6), and when the push-pull component (5) slides in place in the second accommodating cavity (42), the optical fibers of the optical cable can be aligned with the optical fibers in the optical fiber fixing device (43) and the optical fibers of the optical cable can be bent.

18. The fiber optic pigtail of claim 17, wherein: optical cable buckle (6) are including flip (61) and installation cell body (62), installation cell body (62) are used for the centre gripping the optical cable, flip (61) can be followed the axial direction of optical cable is around installation cell body (62) upset or with the optical cable is the upset of axle around installation cell body (62).

19. The fiber optic pigtail of claim 18, wherein: and a tooth-shaped structure (63) is arranged on the inner side of the mounting groove body (62).

20. The fiber optic pigtail of claim 17, wherein: the optical fiber connector further comprises an optical cable protective cover (44) capable of axially overturning around the connector main body (4), an installation shaft (45) is further arranged on the outer wall of the second accommodating cavity (42), and the optical cable protective cover (44) is riveted on the outer wall of the second accommodating cavity (42) through the installation shaft (45).

21. The fiber optic pigtail of claim 20, wherein: and a protective cover groove used for being opened by matching with the bump is also formed in the optical cable protective cover (44).

22. The fiber optic pigtail of claim 17, wherein: the bottom of the push-pull component (5) is provided with an anti-tripping device (51), the outer wall of the second accommodating cavity (42) is further provided with two anti-tripping holes (421) which are arranged at intervals and matched with the anti-tripping device (51) so as to limit the push-pull component (5) to slide between the two anti-tripping holes (421).

23. The fiber optic pigtail of claim 17, wherein: optical fiber connector still includes that detachably slides and establishes optical fiber fixing device switch (9) on connector main part (4), be equipped with at least one arch (91) on optical fiber fixing device switch (9), be equipped with on optical fiber fixing device (43) with arch (91) complex optical fiber fixing device recess, work as optical fiber fixing device switch (9) are followed when connector main part (4) slide, the accessible protruding (91) and optical fiber fixing device recess cooperation are opened or are closed optical fiber fixing device (43).

Technical Field

The invention relates to the technical field of optical fiber communication, in particular to an optical fiber processing tool and an optical fiber movable connector.

Background

With the development of communication technology, optical fiber transmission is increasingly applied to communication systems, and optical fibers are mainly connected with optical fibers through optical fiber connectors and optical fiber adapters. An Optical fiber connector is a plug-in connector based on a single-core plug and an adapter, and is usually a main part of a mechanical connector in an Optical Distribution Network (ODN).

During ODN engineering field implementation and subsequent maintenance, it is often necessary to fabricate fiber pigtails in the field. There are two methods generally used at present: one is field fusion, that is, a fusion splicer is used to fuse a section of optical fiber prefabricated into an end in a factory with an optical cable; the other is field assembly, i.e. assembling a mechanical fiber optic connector directly on the cable. The field welding needs welding machines and other equipment, and has certain requirements on the operating environment; the field assembly has certain requirements on the quality of operators and certain failure rate. The human factor is often the greatest in the case of field assembly failure. For field assembly, the following problems often arise:

1) the use of miller clamp to remove the coating of the optical fiber 250 is easy to damage the optical fiber;

2) the cutting lengths of the optical fibers are different among different types of cutting knives;

3) the field assembly type quick connector needs to manually align the optical fiber, and the optical fiber is easy to touch the inner wall of the connector during alignment, so that the pollution of a cut end face is caused;

4) it is difficult for an operator in a low light environment or older to perform an optical fiber alignment operation;

5) after the optical fiber is penetrated into the field assembly type quick connector, the bending degree of the optical fiber needs to be manually controlled;

6) after the optical fiber is penetrated, an effective fixing structure is not provided, and the optical fiber butt joint points are easy to separate when subsequent operation is carried out;

disclosure of Invention

In view of the defects in the prior art, a first aspect of the present invention is to provide an optical fiber processing tool capable of solving the problem of inconsistent cutting lengths of optical fibers caused by different cutting blades.

In order to achieve the above purposes, the technical scheme adopted by the invention is as follows:

an optical fiber processing tool comprising:

the tool main body comprises a main body front surface, wherein a first containing groove is arranged on the main body front surface and is used for containing an optical cable of the optical fiber to be cut and enabling the optical fiber to be cut to penetrate out of a first end part of the tool main body;

rotatory gear switch, it sets up in the first accepting groove, rotatory gear switch includes two at least regulation gears, just rotatory gear switch is adjustable when adjusting the gear and switching the optical cable tip to the length of the optic fibre between the first end of tool body.

On the basis of the technical scheme, a limiting part is arranged on the first accommodating groove, and the rotary gear switch is used for being matched and fixed with the limiting part on the optical cable.

On the basis of the above technical solution, the rotary position switch includes:

an adjusting disk;

the first adjusting gear comprises a first guide groove and a first cutting groove which are arranged on the adjusting disc and matched with each other, the first guide groove is used for accommodating the optical fiber to be cut, and the first cutting groove is preset with a first depth and used for being matched with the limiting piece to fix the optical cable;

and the second adjusting gear comprises a second guide groove and a second cutting groove which are arranged on the adjusting disc and are matched with each other, the second guide groove is used for accommodating the optical fiber to be cut, and the second cutting groove is preset with a second depth different from the first depth and is used for being matched with the limiting piece to fix the optical cable.

On the basis of the technical scheme, a rotating shaft is further arranged on the front face of the main body, and the adjusting disc is sleeved on the rotating shaft and can rotate around the rotating shaft to switch between a first adjusting gear and a second adjusting gear.

On the basis of the technical scheme, the limiting part comprises two separation blades which are arranged at intervals, and the separation blades and the first cutting slot position or the second cutting slot position form a limiting space for fixing the optical cable.

On the basis of the technical scheme, the tool main body further comprises a main body back face opposite to the main body front face, a second accommodating groove is formed in the main body back face and used for accommodating the optical cable with the optical fiber coating to be removed and enabling the optical fiber with the coating to be removed to penetrate out of a second end portion of the tool main body, the second end portion is opposite to the first end portion, and a coating removing device for the optical fiber with the coating to be removed to penetrate out is further arranged on the second end portion.

On the basis of the technical scheme, the coating removing device comprises:

the upper clamping seat and the lower clamping seat are arranged on the second end part of the tool main body at intervals so as to enable the optical fiber to be subjected to coating removal to penetrate out;

the upper clamp is arranged on the upper clamp seat and can slide along the upper clamp seat;

the lower clamp is arranged on the lower clamp seat and can slide along the lower clamp seat;

when the upper clamp and/or the lower clamp slide, relative sliding is generated between the upper clamp and the lower clamp along the direction perpendicular to the axial direction of the tool main body.

On the basis of the technical scheme, the coating removing device is made of plastic materials.

On the basis of the technical scheme, the tool main body is also provided with a convex block for opening an optical cable protective cover of the optical fiber movable connector.

A second aspect of the invention is to provide an optical fiber processing tool capable of removing a coating of an optical fiber.

In order to achieve the above purposes, the technical scheme adopted by the invention is as follows:

the utility model provides an optical fiber processing tool, includes the tool body, the tool body includes the main part back, be equipped with the second accepting groove on the main part back, the second accepting groove is used for acceping the optical cable of waiting to get rid of the optical fiber coating to can make the optic fibre of waiting to get rid of the coating wear out the second tip of tool body, just still be equipped with the coating remove device that the optic fibre that can supply to wait to get rid of the coating worn out on the second tip.

On the basis of the technical scheme, the coating removing device comprises:

the upper clamping seat and the lower clamping seat are arranged on the second end part of the tool main body at intervals so as to enable the optical fiber to be subjected to coating removal to penetrate out;

the upper clamp is arranged on the upper clamp seat and can slide along the upper clamp seat;

the lower clamp is arranged on the lower clamp seat and can slide along the lower clamp seat;

when the upper clamp and/or the lower clamp slide, relative sliding is generated between the upper clamp and the lower clamp along the direction perpendicular to the axial direction of the tool main body.

On the basis of the technical scheme, the coating removing device is made of plastic materials.

On the basis of the technical scheme, the tool main body is also provided with a convex block for opening an optical cable protective cover of the optical fiber movable connector.

The third aspect of the present invention is to provide an optical fiber connector which is convenient to operate and has high operation efficiency when optical fibers are butted.

In order to achieve the above purposes, the technical scheme adopted by the invention is as follows:

a fiber optic pigtail comprising:

the connector comprises a connector main body, a first accommodating cavity and a second accommodating cavity are arranged in the connector main body side by side, and an optical fiber fixing device is arranged in the first accommodating cavity;

the push-pull component is at least partially arranged in the second accommodating cavity in a sliding manner;

an optical cable buckle fixed on one end of the push-pull component outside the second accommodating cavity, wherein the optical cable processed by the optical fiber processing tool according to claim 5 is fixed in the optical cable buckle, and when the push-pull component slides in place in the second accommodating cavity, the optical fiber of the optical cable can be aligned with the optical fiber in the optical fiber fixing device, and the optical fiber of the optical cable can be bent.

On the basis of the technical scheme, the optical cable buckle comprises a flip cover and an installation groove body, the installation groove body is used for clamping the optical cable, and the flip cover can be used for overturning the optical cable around the installation groove body or overturning the optical cable around the installation groove body as an axis.

On the basis of the technical scheme, a tooth-shaped structure is arranged on the inner side of the installation groove body.

On the basis of the technical scheme, the optical fiber movable connector further comprises an optical cable protective cover capable of axially overturning around the connector main body, an installation shaft is further arranged on the outer wall of the second accommodating cavity, and the optical cable protective cover is riveted on the outer wall of the second accommodating cavity through the installation shaft.

On the basis of the technical scheme, the optical cable protection cover is also provided with a protection cover groove used for being matched with the bump to open.

On the basis of the technical scheme, the bottom of the push-pull component is provided with an anti-tripping device, and the outer wall of the second accommodating cavity is also provided with two anti-tripping holes which are arranged at intervals and matched with the anti-tripping device so as to limit the push-pull component to slide between the two anti-tripping holes.

On the basis of the technical scheme, the optical fiber movable connector further comprises an optical fiber fixing device switch detachably arranged on the connector main body in a sliding mode, at least one protrusion is arranged on the optical fiber fixing device switch, an optical fiber fixing device groove matched with the protrusion is formed in the optical fiber fixing device switch, and when the optical fiber fixing device switch slides along the connector main body, the optical fiber fixing device can be opened or closed through the matching of the protrusion and the optical fiber fixing device groove.

The fourth aspect of the present invention is to provide another optical fiber connector which is convenient to operate and has high operation efficiency when optical fibers are butted.

A fiber optic pigtail comprising:

the connector comprises a connector main body, a first accommodating cavity and a second accommodating cavity are arranged in the connector main body side by side, and an optical fiber fixing device is arranged in the first accommodating cavity;

the push-pull component is at least partially arranged in the second accommodating cavity in a sliding manner;

and the optical cable buckle is fixed at one end of the push-pull component positioned outside the second accommodating cavity, an optical cable with optical fibers with preset lengths is fixed in the optical cable buckle, and when the push-pull component slides in place in the second accommodating cavity, the optical fibers of the optical cable can be aligned with the optical fibers in the optical fiber fixing device, and the optical fibers of the optical cable are bent.

On the basis of the technical scheme, the optical cable buckle comprises a flip cover and an installation groove body, the installation groove body is used for clamping the optical cable, and the flip cover can be used for overturning the optical cable around the installation groove body or overturning the optical cable around the installation groove body as an axis.

On the basis of the technical scheme, a tooth-shaped structure is arranged on the inner side of the installation groove body.

On the basis of the technical scheme, the optical fiber movable connector further comprises an optical cable protective cover capable of axially overturning around the connector main body, an installation shaft is further arranged on the outer wall of the second accommodating cavity, and the optical cable protective cover is riveted on the outer wall of the second accommodating cavity through the installation shaft.

On the basis of the technical scheme, the optical cable protection cover is also provided with a protection cover groove used for being matched with the bump to open.

On the basis of the technical scheme, the bottom of the push-pull component is provided with an anti-tripping device, and the outer wall of the second accommodating cavity is also provided with two anti-tripping holes which are arranged at intervals and matched with the anti-tripping device so as to limit the push-pull component to slide between the two anti-tripping holes.

On the basis of the technical scheme, the optical fiber movable connector further comprises an optical fiber fixing device switch detachably arranged on the connector main body in a sliding mode, at least one protrusion is arranged on the optical fiber fixing device switch, an optical fiber fixing device groove matched with the protrusion is formed in the optical fiber fixing device switch, and when the optical fiber fixing device switch slides along the connector main body, the optical fiber fixing device can be opened or closed through the matching of the protrusion and the optical fiber fixing device groove.

Compared with the prior art, the invention has the advantages that:

according to the optical fiber processing tool, the rotary gear switch capable of adjusting gears is arranged, different cutting knives correspond to different cutting groove positions, and the corresponding cutting groove positions are selected when the corresponding cutting knives are used, so that the problem of inconsistent cutting lengths can be solved. Meanwhile, the coating removing device is made of plastic, and the hardness of the plastic is smaller than that of the optical fiber, so that the optical fiber can be prevented from being scratched.

The optical fiber movable connector provided by the invention can be used for fixing the optical cable due to the fact that the optical cable movable connector is provided with the independent optical cable buckle, and the problem that optical fiber butt joints are easy to separate due to the fact that a fixing structure is lacked in the prior art is solved. Simultaneously still be equipped with a push-and-pull part in the connector main part, place the optical cable buckle behind the installation cell body of push-and-pull part, promote push-and-pull part can guide optic fibre to get into inside the connector main part to accomplish the butt joint of optic fibre and form the bending, do not need manual butt joint and artificial control to be crooked, thereby optic fibre touches the connector inner wall easily when avoiding the butt joint, causes the pollution of cutting terminal surface. And the whole butt joint process is simple to operate, the workload is greatly reduced, the quality requirement of operators is reduced, and the operation efficiency is improved.

Drawings

FIG. 1 is an exploded view of an optical fiber processing tool in an embodiment of the present invention;

FIG. 2 is a schematic diagram of a front side of a main body of an optical fiber processing tool according to an embodiment of the present invention;

FIG. 3 is a schematic structural view of a fiber optic cable according to an embodiment of the present invention;

FIG. 4 is a schematic diagram of an optical fiber processing tool adjusting the length of an optical fiber to be cut according to an embodiment of the present invention;

FIG. 5 is a schematic view of a backside of a main body of an optical fiber processing tool according to an embodiment of the present invention;

FIG. 6 is a schematic view of an optical fiber processing tool with coatings removed according to an embodiment of the present invention;

FIG. 7 is an exploded view of a fiber optic pigtail connector of an embodiment of the present invention;

FIG. 8 is a schematic structural view of a connector body according to an embodiment of the present invention;

FIG. 9 is a schematic diagram of a switch of an optical fiber fixing device according to an embodiment of the present invention;

FIG. 10 is a schematic structural view of a push-pull member according to an embodiment of the present invention;

FIG. 11 is a bottom view of the connector body in accordance with an embodiment of the present invention;

FIG. 12 is a schematic structural view of one embodiment of a cable clamp according to an embodiment of the present invention;

FIG. 13 is a schematic structural view of another embodiment of a cable clamp according to embodiments of the present invention;

FIG. 14 is a schematic view of a cleaver cutting an optical fiber according to an embodiment of the present invention;

FIG. 15 is a schematic view of a cable snap mounted to a push-pull member in an embodiment of the present invention;

FIG. 16 is a schematic view of an optical fiber bending when the push-pull member slides in place according to an embodiment of the present invention;

FIG. 17 is a schematic view of the cover of FIG. 16 with the protective cover attached;

FIG. 18 is a schematic view of the fiber securing device switch removed from FIG. 17.

In the figure: 1-a tool main body, 11-a main body front surface, 12-a first accommodating groove, 121-a first cable buckling groove, 13-a limiting member, 14-a rotating shaft, 15-a main body back surface, 16-a second accommodating groove, 161-a second cable buckling groove, 17-a bump, a 2-rotating gear switch, 21-a regulating disc, 22-a first guiding groove, 23-a first cutting groove position, 24-a second guiding groove, 25-a second cutting groove position, 3-a coating removing device, 31-an upper clamping seat, 32-a lower clamping seat, 33-an upper clamp, 34-a lower clamp, 4-a connector main body, 41-a first accommodating cavity, 42-a second accommodating cavity, 421-an anti-falling hole, 422-a guiding groove, 43-an optical fiber fixing device, 44-a cable protecting cover, 45-mounting shaft, 5-push-pull component, 51-anti-tripping, 52-push-pull section, 53-mounting groove position, 54-third guiding groove, 6-optical cable buckle, 61-flip, 62-mounting groove body, 63-tooth-shaped structure, 7-optical fiber ferrule, 8-outer shell, 9-optical fiber fixing device switch, 91-bulge, 100-first end, 200-second end, 300-optical cable, 301-coated optical fiber and 302-bare optical fiber.

Detailed Description

The present invention will be described in further detail with reference to the accompanying drawings and examples.

Referring to fig. 1, an embodiment of the present invention provides an optical fiber processing tool including a tool body 1 and a rotary position switch 2.

Referring to fig. 2, the tool body 1 includes a main body front surface 11, and a first receiving groove 12 is disposed on the main body front surface 11, and the first receiving groove 12 is used for receiving an optical cable of an optical fiber to be cut and enabling the optical fiber to be cut to pass through the first end 100 of the tool body 1.

Rotatory gear switch 2 sets up in first accepting groove 12, and rotatory gear switch 2 includes two at least regulation gears, and rotatory gear switch 2 when adjusting the gear and switch over the length of the optic fibre between the first end 100 of adjustable optical cable tip to tool body 1.

Referring to fig. 3, which is a schematic structural diagram of an optical cable 300, after an outer jacket of the optical cable is stripped, a coated optical fiber 301 is exposed, and a bare optical fiber 302 is obtained after the coating of the coated optical fiber 301 is removed, in this embodiment, a fiber to be cut refers to the bare optical fiber 302, and the bare optical fiber 302 is assembled into the optical fiber connector after a part of the bare optical fiber 302 is cut.

Referring to fig. 4, the length of the optical fiber between the cable end and the first end 100 of the tool body 1 in the present embodiment refers to the length of the coated optical fiber 301 and the bare optical fiber 302 in the tool body 1, because when cutting, a part of the bare optical fiber 302 needs to be extended from the first end 100 of the tool body 1, and the length of the optical fiber between the cable end and the first end 100 of the tool body 1 is adjusted, that is, the length of the optical fiber extended out of the first end 100 is adjusted. Because the cutting point of the cutting knife of difference is different, but the cutting point of same kind of cutting knife remains unchanged, so stretch out the outer optic fibre length of first end portion 100 through the adjustment and can control cutting length to can solve the problem that the cutting point nonconformity of different cutting knives leads to cutting length nonconformity, improved ordinary adaptation.

In addition, a limiting member 13 is further disposed on the first accommodating groove 12 in this embodiment, and the rotary position switch 2 is used for fixing the optical cable in cooperation with the limiting member 13. The optical cable 300 to be cut can be well fixed after the limiting piece 13 is arranged.

As a preferred embodiment, the rotary position switch 2 in this embodiment comprises an adjusting disk 21 and two adjusting positions: a first shift position and a second shift position.

The first adjusting gear comprises a first guiding groove 22 and a first cutting groove 23 which are arranged on the adjusting disc 21 and matched with each other, the first guiding groove 22 is used for accommodating an optical fiber to be cut, and the first cutting groove 23 is preset with a first depth and used for being matched with the limiting part 13 to fix the optical cable.

The second adjusting gear comprises a second guide groove 24 and a second cutting groove 25 which are arranged on the adjusting disc 21 and matched with each other, the second guide groove 24 is used for accommodating the optical fiber to be cut, and the second cutting groove 25 is preset with a second depth different from the first depth and used for being matched with the limiting part 13 to fix the optical cable.

Wherein for the first and second cutting slot positions 23, 25, the first and second predetermined depths are primarily associated with different cutting knives, it being understood that more cutting slot positions may be provided on the adjusting disk 21 and corresponding groove depths may be provided in order to accommodate a greater variety of cutting knives.

In the actual use process, the optical cable to be cut firstly needs to be clamped by an optical cable buckle 6, specifically, the optical cable buckle 6 comprises a flip cover 61 and an installation groove body 62, the installation groove body 62 is used for clamping the optical cable, and the flip cover 61 can turn around the installation groove body 62 along the axial direction of the optical cable or turn around the installation groove body 62 by taking the optical cable as an axis.

Meanwhile, the first accommodating groove 12 is provided with a structure for accommodating and positioning the optical cable buckle 6, in this embodiment, the first accommodating groove 12 is provided with a first optical cable buckle groove 121, the first optical cable buckle groove 121 is used for accommodating the optical cable buckle 6, and the structure for positioning the optical cable buckle 6 may be a limiting member 13. The optical cable is then positioned by the end face of the optical cable buckle 6, the limiting member 13, and the first cutting slot 23 or the second cutting slot 25. At this time, the length of the optical fiber between the cable end and the first end 100 of the tool body 1 is the length of the optical fiber between the end face of the cable clamp 6 and the first end 100.

Preferably, the position-limiting member 13 includes two separation blades spaced apart from each other, and the separation blades and the first cutting slot 23 or the second cutting slot 25 form a position-limiting space for fixing the optical cable.

Furthermore, a rotating shaft 14 is further arranged on the front surface 11 of the main body, and the adjusting disk 21 is sleeved on the rotating shaft 14 and can rotate around the rotating shaft 14 to switch between a first adjusting gear and a second adjusting gear. Like this at the in-service use in-process, can select corresponding regulation gear according to specific cutting knife to can guarantee the uniformity of cutting length.

As a better embodiment, referring to fig. 5, the tool main body 1 further includes a main body back surface 15 opposite to the main body front surface 11, a second receiving groove 16 is provided on the main body back surface 15, the second receiving groove 16 is used for receiving an optical cable whose coating is to be removed and enabling the optical fiber whose coating is to be removed to pass through a second end portion 200 of the tool main body 1, the second end portion 200 is disposed opposite to the first end portion 100, and the second end portion 200 is further provided with a coating removing device 3 through which the optical fiber whose coating is to be removed passes.

As described above, before the optical cable is assembled into the optical fiber connector, the outer jacket needs to be stripped off to expose the coated optical fiber 301, and then the coating on the end of the coated optical fiber 301 needs to be removed to obtain the bare optical fiber 302, and the bare optical fiber 302 is cut as required and then assembled.

In this embodiment, a coating removing device 3 capable of removing a coating is further integrated on the other surface of the optical fiber processing tool, and specifically, it includes an upper holder 31 and a lower holder 32, which can be closed and separated, and an upper clamp 33 and a lower clamp 34.

Wherein the upper holder 31 and the lower holder 32 are provided at intervals on the second end 200 of the tool body 1 to pass out the optical fiber from which the coating is to be removed.

And an upper clamp 33 which is arranged on the upper clamp seat 31 and can slide along the upper clamp seat 31.

And a lower clip 34 disposed on the lower clip holder 32 and slidable along the lower clip holder 32.

In this embodiment, the upper holder 31 and the lower holder 32 are both provided with a rib and a groove structure, and the upper holder 33 and the lower holder 34 are also provided with a corresponding rib and a corresponding groove structure to be matched and fixed, so that the upper holder 33 and the lower holder 34 can slide by the rib and the groove structure.

The upper clamp 33 and/or the lower clamp 34 are/is slid so that the upper clamp 33 and the lower clamp 34 are relatively slid in a direction perpendicular to the axial direction of the tool body 1. If go up clamp 33 and lower clamp 34 and carry out the coating all the time and get rid of the optic fibre in a place, will wear and tear very fast, wear and tear simultaneously and also influenced the effect of getting rid of the coating, so through letting go up clamp 33 and lower clamp 34 relative movement, increased the area of action of getting rid of the coating in this embodiment, the extension coating remove device 3's that can be fine life has also improved the effect of getting rid of the coating.

Referring to fig. 5 and 6, in practical use, firstly, the optical cable 300 is installed on the cable buckle 6, and meanwhile, in this embodiment, the second cable buckle groove 161 is provided on the second accommodating groove 16, then the cable buckle 6 is placed in the second cable buckle groove 161, after the coated optical fiber 301 passes through the upper clamp 33 and the lower clamp 34, the upper clamp 33 and the lower clamp 34 are pinched, and the coating on a part of the optical fiber can be stripped by pulling the coated optical fiber 301, and then the bare optical fiber 302 is obtained.

In addition, in the prior art, the coating is mainly removed through the miller clamp, the optical fiber is easily damaged, and the coating removing device 3 in the embodiment is made of plastic, so that the optical fiber can be prevented from being scratched because the hardness of the plastic is lower than that of the optical fiber.

Preferably, the tool body 1 is further provided with a projection 17 for opening the cable protective cover 44 of the optical fiber connector. In the embodiment, the protrusion 17 is disposed on the side surface of the tool body 1 near the second end 200, and the cable protection cover 44 can be conveniently opened by integrating the protrusion 17 without using other tools.

Meanwhile, referring to fig. 1 and 4, the present invention further provides another optical fiber processing tool, which includes a tool main body 1, wherein the tool main body 1 includes a main body back surface 15, a second receiving groove 16 is disposed on the main body back surface 15, the second receiving groove 16 is used for receiving an optical cable whose coating is to be removed, and enabling the optical fiber whose coating is to be removed to pass through a second end portion of the tool main body 1, and a coating removing device 3 is further disposed on the second end portion and enabling the optical fiber whose coating is to be removed to pass through.

Further, the coating-removing device 3 includes:

the optical fiber coating removing tool comprises an upper clamping seat 31 and a lower clamping seat 32 which can be closed and separated, wherein the upper clamping seat 31 and the lower clamping seat 32 are arranged on the second end part of the tool main body 1 at intervals so that an optical fiber to be coated can penetrate out, and the upper clamping seat 31 and the lower clamping seat 32 are both provided with convex rib and groove structures;

the upper clamp 33 is provided with corresponding convex rib and groove structures which are matched and fixed with the upper clamp seat 31 and can slide along the upper clamp seat 31 through the convex rib and groove structures;

and the lower clamp 34 is provided with a corresponding convex rib and groove structure which is matched and fixed with the lower clamp seat 32, and can slide along the lower clamp seat 32 through the convex rib and groove structure, so that the lower clamp 34 and the upper clamp 33 can slide relatively along the direction vertical to the axial direction of the tool main body 1.

Further, the coating removing device 3 is made of plastic.

In summary, in the optical fiber processing tool of the present invention, the rotary position switch 2 with adjustable positions is provided, different cutting knives correspond to different cutting slots, and the corresponding cutting slot is selected when the corresponding cutting knife is used, so that the problem of inconsistent cutting lengths can be solved. Meanwhile, the coating removing device 3 is made of plastic, and the hardness of the plastic is smaller than that of the optical fiber, so that the optical fiber can be prevented from being scratched.

Referring to fig. 7, an embodiment of the present invention further provides an optical fiber connector, which includes a connector body 4, a push-pull member 5, a cable buckle 6, a cable 300, a fiber ferrule 7, and a housing 8.

Referring to fig. 8, a first receiving cavity 41 and a second receiving cavity 42 are arranged in parallel in the connector body 4, and an optical fiber fixing device 43 is arranged in the first receiving cavity 41. One end of the optical fiber fixing device 43 is mainly used for arranging the optical fiber ferrule 7, and the optical fiber ferrule 7 can be formed by ceramic, glass, plastic or metal materials.

The housing 8 is detachably fitted outside the first receiving cavity 41 of the connector body 4, and the connector body 4 and the housing 8 are configured to have an SC (square connector) type interface, and an optical fiber field connector having other standard type interfaces, such as an ST (round connector) type interface, an FC (round threaded connector) type interface, or an LC (similar to and smaller than the SC) type interface, may also be provided.

Referring to fig. 9, the optical fiber connector further includes an optical fiber fixing device switch 9 detachably slidably disposed on the connector body 4, the optical fiber fixing device switch 9 is provided with at least one protrusion 91, the optical fiber fixing device 43 is provided with an optical fiber fixing device groove engaged with the protrusion 91, and when the optical fiber fixing device switch 9 axially slides along the connector body 4, the optical fiber fixing device 43 can be turned on or off by the engagement of the protrusion 91 and the optical fiber fixing device groove. That is, when the optical fiber fixing device switch 9 slides along the axial direction of the connector body 4, the protrusion 91 acts on the groove of the optical fiber fixing device, and slides towards the direction close to the optical fiber ferrule 7 to close the optical fiber fixing device 43, or slides towards the direction far from the optical fiber ferrule 7 to open the optical fiber fixing device 43, and after the opening, the optical fibers can be butted.

Specifically, in this embodiment, after the housing 8 is sleeved on the connector body 4, the optical fiber fixing device switch 9 is sleeved on the housing 8, and after the optical fibers are butted, the optical fiber fixing device switch 9 is pulled toward the direction close to the optical fiber ferrule 7 to close the optical fiber fixing device 43 to complete the fixing.

The push-pull member 5 is at least partially slidably disposed in the second receiving cavity 42.

And an optical cable buckle 6 fixed on one end of the push-pull member 5 positioned outside the second receiving cavity 42, wherein the optical cable processed by the optical fiber processing tool with the coating removed and the optical fiber cutting length adjusted is fixed in the optical cable buckle 6, and when the push-pull member 5 slides in place in the second receiving cavity 42, the optical fiber of the optical cable can be aligned with the optical fiber in the optical fiber fixing device 43, and the optical fiber of the optical cable can be bent.

Specifically, the second receiving cavity 42 in the present embodiment is provided with a guiding groove 422, and as shown in fig. 10, the push-pull member 5 includes a push-pull section 52, the push-pull section 52 can slide along the guiding groove 422, the push-pull section 52 is further provided with a mounting groove 53 for receiving the optical cable buckle 6, and a third guiding groove 54 for carrying the optical fiber in the optical cable buckle 6, and the push-pull section 52 slides along the guiding groove 422, so that the push-pull member 5 guides the optical fiber in the optical cable buckle 6 into the connector main body 4. After the cable is slid in place, the tail end of the guide groove 422 in the second accommodating cavity 42 can limit the cable clamp 6, so that the cable clamp is prevented from moving up and down, left and right.

Preferably, the bottom of the push-pull member 5 is provided with an anti-trip device 51, and as shown in fig. 11, the outer wall of the second receiving cavity 42 is further provided with two anti-trip holes 421 which are spaced apart and matched with the anti-trip device 51 to limit the push-pull member 5 from sliding between the two anti-trip holes 421.

Specifically, the retaining buckle 51 is disposed at the bottom of the push-pull section 52, and when the push-pull section 52 is pulled axially outwards along the connector body 4, the retaining buckle 51 falls into the outer retaining hole 421 of the second receiving cavity 42, so as to ensure that the push-pull member 5 is not pulled out. When the push-pull section 52 is pushed axially inward along the connector body 4, the retaining buckle 51 falls into the retaining hole 421 at the inner side of the second receiving cavity 42, so as to ensure that the push-pull member 5 does not go forward and move freely.

In addition, the optical cable buckle 6 in this embodiment includes a flip cover 61 and a mounting groove 62, the mounting groove 62 is used for clamping the optical cable, and the flip cover 61 can be turned around the mounting groove 62 along the axial direction of the optical cable or turned around the mounting groove 62 with the optical cable as an axis.

Specifically, referring to fig. 12, the cover 61 can be turned around the installation groove 62 with the optical cable as an axis, wherein the installation groove 62 is V-shaped, and the optical cable is clamped by the V-shaped structure. In order to achieve a better clamping effect, a tooth-shaped structure 63 is arranged on the inner side of the installation groove body 62, and the tooth-shaped structure 63 can achieve an anti-skid effect. The installation groove body 62 is further provided with a socket structure for fixing with the first cable clamping groove 121 and the second cable clamping groove 161.

Referring to fig. 13, the flip cover 61 in the figure can be turned around the installation slot 62 along the axial direction of the optical cable, that is, along the length direction of the optical cable, wherein the installation slot 62 is rectangular and open, and a tooth-shaped structure 63 is also arranged on the inner side of the installation slot 62 to achieve a better clamping effect.

The shape of the installation groove 62 in this embodiment can be reasonably selected according to the shape of the optical cable, and the circular optical cable and the butterfly cable can be adapted by replacing the optical cable buckle 6.

Further, the optical fiber connector further includes an optical cable protection cover 44 capable of being turned around the connector main body 4 in the axial direction, an installation shaft 45 is further disposed on an outer wall of the second accommodation cavity 42, and the optical cable protection cover 44 is riveted to the outer wall of the second accommodation cavity 42 through the installation shaft 45.

The cable protection cover 44 is further provided with a protection cover groove for opening in cooperation with the protrusion, for example, a protrusion 17 may be provided on the tool body 1 of the optical fiber processing tool, and the protrusion 17 may be inserted into the protection cover groove and screwed, so that the cable protection cover 44 may be opened.

The cable protection cover 44 is further provided with a fixing hole, and the outer wall of the second accommodating cavity 42 is provided with a bump, so that when the cable protection cover 44 is covered, the cable protection cover 44 is fixed to prevent the cable protection cover from being automatically separated.

When the push-pull member 5 slides in place in the second receiving cavity 42, the area of the second receiving cavity 42 can be covered by the cable protection cover 44 for protection.

The above-described fiber handling tool process and fiber optic connector assembly principles are described as follows:

the outer jacket of the optical cable 300 is first removed using a cable stripper, resulting in a coated optical fiber 301.

Referring to fig. 6, the optical fiber 300 is then snapped into the cable snap 6, the cable snap 6 is placed on the side of the optical fiber processing tool where the main body rear surface 15 is provided with the coating removing device 3, and the coating on the coated optical fiber 301 is removed by using the coating removing device 3, resulting in a bare optical fiber 302.

The bare optical fiber 302 is cleaned by using absolute ethyl alcohol, as shown in fig. 4, and then the optical cable buckle 6 is placed on the side, provided with the rotary gear switch 2, of the front surface 11 of the main body of the optical fiber processing tool, and a corresponding adjusting gear is selected according to the specific model of the cutting knife. Referring to FIG. 14, the fiber handling tool is then placed on the cleaver to cleave the bare optical fiber 302.

Referring to fig. 15, after the cutting is completed, the cable clamp 6 is removed, the push-pull member 5 is pulled open, and the cable clamp 6 is placed in the installation groove 53 of the push-pull member 5.

When the cable clamp 6 is installed in the installation slot 53, the axial center line of the optical fiber of the optical cable 300 and the axial center line of the optical fiber fixing device 43 are on the same horizontal line. The push-pull member 5 is pushed toward the housing 8, the bare fiber 302 enters the fiber fixing device 43 during the process of pushing the push-pull member 5, and then the pushing is continued, as shown in fig. 16, the coated optical fiber 301 in the third guide groove 54 of the push-pull member 5 is automatically bent, and a bent section is obtained.

Referring to fig. 17 and 18, the optical cable protection cover 44 is closed, the optical fiber fixing device switch 9 is pulled towards the direction close to the optical fiber inserting core 7 until the optical fiber fixing device switch 9 is pulled still, and the optical fiber fixing device switch 9 is removed to complete the assembly.

Meanwhile, the present invention also provides another optical fiber connector, which includes:

a connector body 4 in which a first housing chamber 41 and a second housing chamber 42 are provided side by side, an optical fiber fixing device 43 being provided in the first housing chamber 41;

a push-pull member 5, at least a part of which is slidably arranged in the second accommodating cavity 42;

and an optical cable buckle 6 fixed to one end of the push-pull member 5 located outside the second receiving cavity 42, wherein an optical cable having an optical fiber with a predetermined length is fixed in the optical cable buckle 6, and when the push-pull member 5 slides in place in the second receiving cavity 42, the optical fiber of the optical cable can be aligned with the optical fiber in the optical fiber fixing device 43, and the optical fiber of the optical cable can be bent.

The preset length refers to the length of the optical fiber cut by the cutter after the corresponding adjusting gear is selected by the optical fiber processing tool, the preset length is also the length required for completing the assembly of the optical fiber movable connector, and the coating of part of the optical fiber is removed by the optical fiber processing tool.

Further, the optical cable buckle 6 includes a flip cover 61 and a mounting groove 62, the mounting groove 62 is used for clamping the optical cable, and the flip cover 61 can be turned around the mounting groove 62 along the axial direction of the optical cable or turned around the mounting groove 62 with the optical cable as an axis.

Further, a tooth-shaped structure 63 is arranged inside the mounting groove body 62.

Further, the optical fiber connector further includes an optical cable protection cover 44 capable of being turned around the connector main body 4 in the axial direction, an installation shaft 45 is further disposed on an outer wall of the second accommodation cavity 42, and the optical cable protection cover 44 is riveted to the outer wall of the second accommodation cavity 42 through the installation shaft 45.

Further, the cable protection cover 44 is further provided with a protection cover groove for opening in cooperation with the bump.

Furthermore, the bottom of the push-pull member 5 is provided with an anti-release device 51, and the outer wall of the second receiving cavity 42 is further provided with two anti-release holes 421 which are arranged at intervals and matched with the anti-release device 51 so as to limit the push-pull member 5 to slide between the two anti-release holes 421.

Further, the optical fiber connector further comprises an optical fiber fixing device switch 9 detachably slidably disposed on the connector body 4, at least one protrusion 91 is disposed on the optical fiber fixing device switch 9, an optical fiber fixing device groove matched with the protrusion 91 is disposed on the optical fiber fixing device 43, and when the optical fiber fixing device switch 9 slides along the connector body 4, the optical fiber fixing device 43 can be opened or closed through the matching of the protrusion 91 and the optical fiber fixing device groove.

In summary, the optical fiber connector of the present invention can be used for fixing the optical cable 300 because the optical fiber connector is provided with the independent optical cable buckle 6, thereby solving the problem that the optical fiber butt joint is easy to separate due to the lack of a fixing structure in the prior art. Meanwhile, the connector main body 4 is also provided with the push-pull component 5, the optical cable buckle 6 is placed in the installation groove 53 of the push-pull component 5, the push-pull component 5 is pushed to guide the optical fiber to enter the connector main body 4, so that the optical fiber is butted and bent without manual butt joint or manual control, and the optical fiber is prevented from easily touching the inner wall of the connector during butt joint to cause pollution of a cut end face. And the whole butt joint process is simple to operate, the workload is greatly reduced, the quality requirement of operators is reduced, and the operation efficiency is improved.

The present invention is not limited to the above-described embodiments, and it will be apparent to those skilled in the art that various modifications and improvements can be made without departing from the principle of the present invention, and such modifications and improvements are also considered to be within the scope of the present invention. Those not described in detail in this specification are within the skill of the art.

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