Optical fiber connector line sequence detection equipment

Abstract

The invention discloses optical fiber connector line sequence detection equipment, an optical fiber connector comprises a plurality of optical fibers, and the optical fiber connector line sequence detection equipment comprises a box body, a light source plate, a first detection mechanism, a second detection mechanism and a controller. The optical fiber connector is placed in the box body; the light source plate is connected and matched with the optical fiber connector, the light source plate comprises a plurality of light emitting sources, and the light emitting sources are used for emitting detection light to the corresponding optical fibers; the first detection mechanism comprises a first camera, the first camera is opposite to the optical fiber, and the first camera is used for identifying the optical fiber with the detection light; the second detection mechanism comprises a second camera, the second camera is opposite to the optical fiber, and the second camera is used for identifying the optical fiber with the detection light; the controller controls the light emitting sequence of the light emitting sources according to a preset program and is used for judging whether the optical fiber connector is a good product or not according to the detection signal of the first camera and the detection signal of the second camera. According to the invention, detection personnel can be prevented from mistakenly judging defective optical fiber connectors as good optical fiber connectors.

Description

Technical Field

[0001] The present application relates to the field of optical fiber line sequence detection, and in particular to an optical fiber connector line sequence detection device. Background Art

[0002] In the related art, during the production process of multi-core fiber optic connectors, in order to ensure that multiple optical fibers are correctly arranged in a preset order, it is usually necessary to detect the line sequence of the optical fibers. The existing detection method is that the inspector inputs optical signals to the light input end of each optical fiber in the optical fiber connector in turn, and observes whether the light output end corresponding to the optical fiber lights up. The inspector determines whether the line sequence of the optical fibers is correct by comparing the lighting sequence of the light output ends of each optical fiber with the light input sequence of the optical fiber light input end. If the lighting sequence of the optical fiber light output end is exactly the same as the light input sequence of the optical fiber light input end, the optical fiber connector is judged to be a good product. If the lighting sequence of the optical fiber light output end is inconsistent with the light input sequence of the optical fiber light input end, the optical fiber connector is judged to be a defective product.

[0003] However, inspectors need to stare at the optical fiber for a long time, which can easily cause eye fatigue. Inspectors are prone to misjudge defective optical fiber connectors as good ones, reducing the accuracy of optical fiber connector inspection. Summary of the Invention

[0004] In order to minimize eye fatigue for inspection personnel and improve the inspection accuracy of optical fiber connectors, the present application provides an optical fiber connector line sequence detection device.

[0005] The present application provides a fiber optic connector line sequence detection device that adopts the following technical solutions: A fiber optic connector line sequence detection device, the fiber optic connector includes multiple optical fibers, and the multiple optical fibers are arranged in sequence along a preset order. The fiber optic connector line sequence detection device includes: a box body, the box body defines a detection space, the outer peripheral wall of the box body is provided with a connecting hole connected to the detection space, the fiber optic connector is placed in the box body through the connecting hole and is limited by the box body.

[0006] A light source board is provided in the box body, the light source board is connected to and cooperates with the optical fiber connector, the light source board includes a plurality of light sources, the plurality of light sources are arranged in a one-to-one correspondence with the plurality of optical fibers, and the light source is used to emit detection light to the corresponding optical fibers.

[0007] The first detection mechanism includes a first camera, the first camera is opposite to the end of the optical fiber, the central axis of the first camera is arranged perpendicular to the central axis of the optical fiber, and the first camera is used to identify the optical fiber where the detection light appears.

[0008] a second detection mechanism, the second detection mechanism comprising a second camera, the second camera being opposite to the end of the optical fiber, the central axis of the second camera being arranged parallel to the central axis of the optical fiber, the second camera being used to identify the optical fiber from which the detection light appears; A controller, wherein the first camera, the second camera, and the light source are all communicatively connected to the controller, and the controller controls the light emission sequence of the plurality of light sources according to a preset program, and is used to determine whether the optical fiber connector is a good product based on the detection signal of the first camera and the detection signal of the second camera.

[0009] By adopting the above technical solution, multiple light sources on the light source board light up in sequence and emit detection light to the corresponding optical fiber. The first camera and / or the second camera captures and identifies the light-emitting end of the optical fiber where the detection light appears. When the lighting order of the light sources is consistent with the order of the light-emitting ends of the light where the detection light appears, the controller determines that the optical fiber connector is a good product. When the lighting order of the light sources is inconsistent with the order of the light-emitting ends of the light where the detection light appears, the controller determines that the optical fiber connector is a defective product. Compared with the existing technology, the inspection personnel do not need to look at the optical fiber, thereby avoiding eye fatigue of the inspection personnel and preventing the inspection personnel from misjudging a defective optical fiber connector as a good product, thereby improving the inspection accuracy of the optical fiber connector.

[0010] Preferably, a limiting mechanism is provided in the box, and the limiting mechanism includes a limiting member, a first driving member, a second driving member and a third driving member. The limiting member is provided with a limiting groove, and the optical fiber connector is limitedly matched with the limiting groove. The first driving member is connected and matched with the limiting member, and the second driving member is connected and matched with the third driving member and the first driving member. The first driving member is used to drive the limiting member to drive the optical fiber connector to rotate, the second driving member is used to drive the optical fiber connector to move along the first direction of the box, and the third driving member is used to drive the optical fiber connector to move along the second direction of the box.

[0011] By adopting the above technical solution, the optical fiber connector and the limit groove cooperate to prevent the optical fiber connector from shaking or deviating from the preset detection position when performing line sequence detection on the optical fiber connector, and the first camera and / or the second camera from being unable to identify the optical fiber that emits the detection light, thereby improving the working reliability of the optical fiber connector line sequence detection equipment.

[0012] and a second adjusting hole and a first adjusting hole are provided on an inner peripheral wall of the first fixing member, and the first adjusting hole and a second adjusting hole are provided on an inner peripheral wall of the first fixing member, and the first adjusting hole and the second adjusting hole are arranged opposite to each other along the second direction of the box body, and one of the first adjusting rod and the second adjusting rod is provided in the first adjusting hole, and the other is provided in the second adjusting hole, and the adjusting rod is threadedly connected to the corresponding adjusting hole, and the outer peripheral wall of the first pivot member is provided with a first driving part, and the first driving part extends into the first adjusting slot and is clamped between the first adjusting rod and the second adjusting rod, which is suitable for driving the first adjusting rod and the second adjusting rod to drive the first driving part to drive the first pivot member to rotate.

[0013] By adopting the above technical solution, by driving one of the first adjustment rod and the second adjustment rod to move away from the first driving part, and then driving the other of the first adjustment rod and the second adjustment rod to move close to the first driving part, the adjustment rod moving close to the first driving part drives the first driving part to rotate close to the adjustment rod moving away from the first driving part, so that the first driving part drives the first pivot member to drive the limit member to rotate, thereby achieving the technical effect of using the first driving member to drive the optical fiber connector to rotate.

[0014] Preferably, the second driving member includes a first movable member, a second fixed member and a third adjusting rod, the first movable member is slidably arranged on the second fixed member, the first movable member is connected and cooperated with the first driving member, the outer peripheral wall of the second fixed member is provided with a second connecting portion, the second connecting portion is provided with a third adjusting hole, the third adjusting rod is provided in the third adjusting hole and is threadedly connected to the third adjusting hole, the outer peripheral wall of the first movable member is provided with a second driving portion, the second driving portion is opposite to the third adjusting rod, and is suitable for driving the second driving portion through the third adjusting rod to drive the first movable member to move along the first direction of the box.

[0015] The first movable member is provided with a first accommodating groove on the end wall close to the second fixed member, and the second fixed member is provided with a first stop portion on the end wall close to the first movable member, the first stop portion extends into the first accommodating groove, and the outer peripheral wall of the first movable member is provided with a first positioning hole, the first fastener is threadedly connected to the first positioning hole, the first fastener is opposite to the first stop portion, and is suitable for driving the first fastener to stop with the first stop portion to fixedly connect the first movable member and the second fixed member.

[0016] By adopting the above technical solution, by twisting the third adjusting rod to move close to the second driving part, the third adjusting rod and the second driving part stop and drive the second driving part to move along the first direction of the box body, and the second driving part drives the first moving part to drive the limiting part to move along the second direction of the box body, thereby achieving the technical effect of using the second driving part to drive the limiting part to move along the first direction of the box body.

[0017] Preferably, the third driving member includes a second movable member, a third fixed member and a fourth adjusting rod, the second movable member is slidably arranged on the third fixed member, the second movable member is connected and cooperated with the second driving member, the outer peripheral wall of the third fixed member is provided with a third connecting portion, the third connecting portion is provided with a fourth adjusting hole, the fourth adjusting rod is provided in the fourth adjusting hole and is threadedly connected to the fourth adjusting hole, the outer peripheral wall of the second movable member is provided with a third driving portion, the third driving portion is opposite to the fourth adjusting rod, and is suitable for driving the third driving portion through the fourth adjusting rod to drive the second movable member to move along the second direction of the box.

[0018] The second movable member is provided with a second accommodating groove on the end wall close to the third fixed member, and the third fixed member is provided with a second stop portion on the end wall close to the second movable member, and the second stop portion extends into the second accommodating groove. The outer peripheral wall of the second movable member is provided with a second positioning hole, and the second fastener is threadedly connected to the second positioning hole. The second fastener is opposite to the second stop portion and is suitable for driving the second fastener to stop with the second stop portion to fixedly connect the second movable member and the third fixed member.

[0019] By adopting the above technical solution, by twisting the fourth adjusting rod to move close to the third driving part, the fourth adjusting rod and the third driving part stop and drive the third driving part to move along the second direction of the box body, and the third driving part drives the second movable part to drive the limiting part to move along the second direction of the box body, thereby achieving the technical effect of using the third driving part to drive the limiting part to move along the second direction of the box body.

[0020] Preferably, the first detection mechanism includes a fourth driving member, a fifth driving member and a sixth driving member, the fourth driving member is connected and cooperated with the first camera, the fifth driving member is connected and cooperated with the sixth driving member and the fourth driving member, the fourth driving member is used to drive the first camera to rotate, the fifth driving member is used to drive the first camera to move closer to or away from the optical fiber, and the sixth driving member is used to drive the first camera to move along the second direction of the box.

[0021] By adopting the above technical solution, the fourth driving member drives the first camera to rotate around the pivot axis of the fourth driving member so that the central axis of the first camera is perpendicular to the central axis of the optical fiber, the fifth driving member drives the first camera to move closer to or away from the optical fiber, thereby adjusting the focal length of the first camera, and the sixth driving member drives the first camera to move along the second direction of the box so that the first camera is opposite to the light-emitting end of the optical fiber, thereby achieving the technical effect of the first camera being opposite to the light-emitting end of the optical fiber.

[0022] The fourth driving member includes a second pivot member, a fourth fixing member, a fifth adjusting rod and a sixth adjusting rod, the second pivot member being pivotally connected to the fourth fixing member, the second pivot member being connected and cooperating with the first camera, the outer peripheral wall of the fourth fixing member being provided with a fourth connecting portion, the fourth connecting portion being provided with a second adjusting slot, the inner peripheral wall of the second adjusting slot being provided with a fifth adjusting hole and a sixth adjusting hole, the fifth adjusting hole and the sixth adjusting hole being arranged opposite to each other along the height direction of the box body, one of the fifth adjusting rod and the sixth adjusting rod being provided with the fifth adjusting hole, and the other being provided with the sixth adjusting hole, the adjusting rod being threadedly connected to the corresponding adjusting hole, the outer peripheral wall of the second pivot member being provided with a fourth driving portion, the fourth driving portion extending into the second adjusting slot and clamped between the fifth adjusting rod and the sixth adjusting rod, being suitable for driving the fifth adjusting rod and the sixth adjusting rod to drive the fourth driving portion to drive the second pivot member to rotate.

[0023] By adopting the above technical solution, by driving one of the fifth adjusting rod and the sixth adjusting rod to move away from the fourth driving part, and then driving the other of the fifth adjusting rod and the sixth adjusting rod to move close to the fourth driving part, the adjusting rod moving close to the fourth driving part drives the fourth driving part to rotate close to the adjusting rod moving away from the fourth driving part, so that the fourth driving part drives the second pivot member to drive the first camera to rotate, thereby achieving the technical effect of using the fourth driving member to drive the first camera to rotate.

[0024] Preferably, the fifth driving member includes a third moving member, a fifth fixed member and a first screw, the third moving member is slidably arranged on the fifth fixed member, the third moving member is connected and cooperated with the fourth driving member, the third moving member is provided with a third accommodating groove near the end wall of the fifth fixed member, the fifth fixed member is provided with a first rack near the end wall of the third moving member, the first rack extends into the third accommodating groove, the first screw passes through the third moving member and extends into the third accommodating groove, the first screw is pivotally connected to the third moving member, the first screw is provided with a first driving gear at the end near the third accommodating groove, the first driving gear is meshed with the first rack, and the first camera is driven to move closer to or away from the optical fiber by rotating the first screw.

[0025] By adopting the above technical solution, the first driving gear is driven to rotate by turning the first screw, and the first driving gear is meshed with the first rack and moves closer to or away from the optical fiber along the first rack. In addition, during the process of the first driving gear moving closer to or away from the optical fiber along the first rack, the first screw drives the third moving member to move closer to or away from the optical fiber, thereby achieving the technical effect of the fifth driving member driving the first camera to move closer to or away from the optical fiber.

[0026] Preferably, the sixth driving member includes a fourth moving member, a sixth fixed member and a second screw, the fourth moving member is slidably arranged on the sixth fixed member, the fourth moving member is connected and cooperated with the fifth driving member, the fourth moving member is provided with a fourth accommodating groove near the end wall of the sixth fixed member, the sixth fixed member is provided with a second rack near the end wall of the fourth moving member, the second rack extends into the fourth accommodating groove, the second screw passes through the fourth moving member and extends into the fourth accommodating groove, the second screw is pivotally connected to the fourth moving member, the second screw is provided with a second driving gear at the end near the fourth accommodating groove, the second driving gear is meshed with the second rack, and the first camera is driven to move along the second direction of the box by rotating the second screw.

[0027] By adopting the above technical solution, the second driving gear is driven to rotate by screwing the second screw, and the second driving gear is meshed with the second rack and moves along the second direction of the box body. In the process of the second driving gear moving along the second rack along the second direction of the box body, the second screw drives the fourth moving member to move along the second direction of the box body, thereby achieving the technical effect of the sixth driving member driving the first camera to move along the second direction of the box body.

[0028] In summary, this application includes at least one of the following beneficial technical effects: 1. Multiple light sources on the light source board light up in sequence and emit detection light to the corresponding optical fiber. The first camera and / or the second camera captures and identifies the light-emitting end of the optical fiber where the detection light appears. When the lighting order of the light sources is consistent with the order of the light-emitting ends where the detection light appears, the controller determines that the optical fiber connector is a good product. When the lighting order of the light sources is inconsistent with the order of the light-emitting ends where the detection light appears, the controller determines that the optical fiber connector is a defective product. Compared with the existing technology, the inspector does not need to look at the optical fiber, thereby avoiding eye fatigue of the inspector and preventing the inspector from misjudging a defective optical fiber connector as a good product, thereby improving the inspection accuracy of the optical fiber connector. 2. By turning the fourth adjusting rod to move closer to the third driving part, the fourth adjusting rod abuts against the third driving part and drives the third driving part to move along the second direction of the box body. The third driving part drives the second moving member to drive the limiting member to move along the second direction of the box body, thereby achieving the technical effect of using the third driving member to drive the limiting member to move along the second direction of the box body; 3. By screwing the second screw, the second driving gear is driven to rotate, and the second driving gear is meshed with the second rack and moves along the second direction of the housing. In the process of the second driving gear moving along the second rack along the second direction of the housing, the second screw drives the fourth moving member to move along the second direction of the housing, thereby achieving the technical effect of the sixth driving member driving the first camera to move along the second direction of the housing. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 is a schematic diagram of a fiber optic connector line sequence detection device according to an embodiment of the present application; Figure 2 is a schematic diagram of an optical fiber connector according to an embodiment of the present application; Figure 3 is a schematic diagram of a partial structure of an optical fiber connector line sequence detection device according to an embodiment of the present application; Figure 4 is a schematic diagram of a limiting mechanism according to an embodiment of the present application; Figure 5 is a schematic diagram of the limiting mechanism according to another angle in an embodiment of the present application; Figure 6 is a schematic diagram of the limiting mechanism according to another angle in an embodiment of the present application; Figure 7 is a cross-sectional view of a limiting mechanism according to an embodiment of the present application; Figure 8 is a cross-sectional view from another angle of the limiting mechanism in the embodiment of the present application; Figure 9 is a schematic diagram of a first detection mechanism according to an embodiment of the present application; Figure 10 is a cross-sectional view of a first detection mechanism according to an embodiment of the present application; Figure 11 is a cross-sectional view of the first detection mechanism according to an embodiment of the present application from another angle; Figure 12 It is a cross-sectional view from another angle of the first detection mechanism in the embodiment of the present application.

[0030] Description of reference numerals: 100. Optical fiber connector line sequence detection equipment; 1. Fiber optic connector; 11. Fiber optic; 12. Connector; 2. Box body; 21. Detection space; 22. Communication hole; 3. Light source board; 4. First detection mechanism; 41. First camera; 42. Fourth driving member; 421. Second pivoting member; 4211. Fourth driving portion; 422. Fourth fixing member; 4221. Fourth connecting portion; 4222. Second adjusting slot; 4223. Fifth adjusting hole; 4224. Sixth adjusting hole; 423. Fifth adjusting rod; 424. Sixth adjusting rod; 43. Fifth driving member; 431. Third moving member; 4311. Third accommodating slot; 432. Fifth fixing member; 4321. First rack; 433. First screw; 4331. First driving gear; 44. Sixth driving member; 441. Fourth moving member; 4411. Fourth accommodating slot; 442. Sixth fixing member; 4421. Second rack; 443. Second screw; 4431. Second driving gear; 5. Second detection mechanism; 51. Second camera; 6. Limiting mechanism; 61. Limiting member; 611. Limiting slot; 62. First driving member; 621. First pivoting member; 6211. First driving portion; 622. First fixing member; 6221. First connecting portion; 6222. First adjusting slot; 6223. First adjusting hole; 6224. Second adjusting hole; 623. First adjusting rod; 624. Second adjusting rod; 63. Second driving member; 631. First moving member; 6311. Second driving portion; 6312. First accommodating slot; 6313. First positioning hole; 632, second fixing member; 6321, second connecting portion; 6322, third adjusting hole; 6323, first stop portion; 633, third adjusting rod; 634, first fastener; 64, third driving member; 641, second movable member; 6411, third driving member; 6412, second accommodating groove; 6413, second positioning hole; 642, third fixing member; 6421, third connecting portion; 6422, fourth adjusting hole; 6423, second stop portion; 643, fourth adjusting rod; 644, second fastener. DETAILED DESCRIPTION

[0031] The following is combined with Figures 1-12 This application is described in further detail.

[0032] An embodiment of the present application discloses a fiber optic connector line sequence detection device 100. The fiber optic connector 1 includes a plurality of optical fibers 11. The plurality of optical fibers 11 are arranged in sequence along a preset order. The plurality of optical fibers 11 can be arranged in sequence along the radial direction of the optical fibers 11. It should be noted that the shape of the optical fibers 11 is circular.

[0033] Reference Figure 1 and Figure 3According to the embodiment of the present application, the optical fiber connector line sequence detection device 100 includes: a box 2, a light source board 3, a first detection mechanism 4, a second detection mechanism 5 and a controller.

[0034] The box body 2 defines a detection space 21, and the outer wall of the box body 2 is provided with a connecting hole 22 connected to the detection space 21. The optical fiber connector 1 is placed into the box body 2 through the connecting hole 22 and is limited by the box body 2. The box body 2 is used to shield the light in the external environment, thereby preventing the light in the external environment from interfering with the line sequence detection of the optical fiber connector 1.

[0035] The light source board 3 is arranged in the box body 2, and the light source board 3 is connected to the optical fiber connector 1. The light source board 3 includes multiple light sources, and the multiple light sources are arranged in a one-to-one correspondence with the multiple optical fibers 11. The light sources are used to emit detection light to the corresponding optical fibers 11.

[0036] Specifically, refer to Figure 2 The optical fiber connector 1 also includes a connector 12, which is provided with a plurality of light through holes. The light inlet ends of the plurality of optical fibers 11 are connected and matched with the plurality of light through holes, and the light inlet ends of the plurality of optical fibers 11 and the plurality of light through holes are arranged in a one-to-one correspondence. The light source board 3 is connected and matched with the connector 12, and the plurality of light sources are arranged in a one-to-one correspondence with the plurality of light through holes. The light source emits detection light to the corresponding light through holes, and the detection light enters the corresponding optical fiber 11.

[0037] It should be noted that the light source can be connected to the light hole via an optical cable or an optical fiber.

[0038] In some specific embodiments, the light source may be an LED (Light-Emitting Diode light source), and the color of the detection light may be red.

[0039] The first detection mechanism 4 includes a first camera 41. The first camera 41 is opposite the end of the optical fiber 11, and the central axis of the first camera 41 is perpendicular to the central axis of the optical fiber 11. The first camera 41 is used to identify the optical fiber 11 from which the detection light appears. The second detection mechanism 5 includes a second camera 51. The second camera 51 is opposite the end of the optical fiber 11, and the central axis of the second camera 51 is parallel to the central axis of the optical fiber 11. The second camera 51 is used to identify the optical fiber 11 from which the detection light appears.

[0040] In some specific embodiments, both the first camera 41 and the second camera 51 may be CCD (Charge-Coupled Device) cameras.

[0041] Specifically, when the light is emitted vertically at the light output end of the optical fiber 11, that is, the emission direction of the light is perpendicular to the central axis direction of the optical fiber 11, the first camera 41 captures and identifies the light that appears as detection light. When the light is emitted horizontally at the light output end of the optical fiber 11, that is, the emission direction of the light is parallel to the central axis direction of the optical fiber 11, the second camera 51 captures and identifies the light that appears as detection light.

[0042] It should be noted that the emission direction of the light at the light-emitting end of the optical fiber 11 is related to the shape of the light-emitting end of the optical fiber 11. When the end wall of the light-emitting end of the optical fiber 11 is a plane, the light is emitted horizontally at the light-emitting end of the optical fiber 11. When the end wall of the light-emitting end of the optical fiber 11 is a slope, the light is emitted vertically at the light-emitting end of the optical fiber 11.

[0043] The first camera 41, the second camera 51 and the light source are all connected to the controller for communication. The controller controls the light emission sequence of the multiple light sources according to a preset program, and is used to determine whether the optical fiber connector 1 is a good product based on the detection signal of the first camera 41 and the detection signal of the second camera 51.

[0044] In some specific embodiments, there are three optical fibers 11 and three light sources, the three optical fibers 11 are respectively the first optical fiber 11, the second optical fiber 11 and the third optical fiber 11, the three light sources are respectively the first light source, the second light source and the third light source, the light input end of the first optical fiber 11 is optically connected to the first light source, the light input end of the second optical fiber 11 is optically connected to the second light source, the first optical fiber 11 is the light located on the far left of the three optical fibers 11, the second optical fiber 11 is the optical fiber 11 located in the middle of the three optical fibers 11, and the third optical fiber 11 is the light located on the far right of the three optical fibers 11. Optical fiber 11, the light input end of the third optical fiber 11 is optically connected to the third light source, and the light output end of the first optical fiber 11, the light output end of the second optical fiber 11 and the light output end of the third optical fiber 11 are all manually arranged by the operator, that is, the light output end of the first optical fiber 11 may be located between the second optical fiber 11 and the third optical fiber 11, or the light output end of the first optical fiber 11 is located at the leftmost among the three optical fibers 11, or the light output end of the first optical fiber 11 is located at the rightmost among the three optical fibers 11, and the position of the light output end of the second optical fiber 11 is the same as the position of the light output end of the third optical fiber 11.

[0045] The controller controls the first light source, the second light source and the third light source to light up in sequence according to a preset program. When the first light source lights up and the leftmost light output end of the three optical fibers 11 lights up, the line sequence of the first optical fiber 11 is correct. When the first light source lights up and the middle or rightmost light output end of the three optical fibers 11 lights up, the line sequence of the first optical fiber 11 is incorrect.

[0046] When the second light source is on and the light output end in the middle of the three optical fibers 11 is on, the line sequence of the second optical fiber 11 is correct. When the second light source is on and the light output end on the far left or the far right of the three optical fibers 11 is on, the line sequence of the second optical fiber 11 is wrong.

[0047] When the third light source is on and the rightmost light output end among the three optical fibers 11 is on, the line sequence of the third optical fiber 11 is correct. When the third light source is on and the middle or leftmost light output end among the three optical fibers 11 is on, the line sequence of the third optical fiber 11 is wrong.

[0048] Thus, the multiple light sources on the light source board 3 light up in sequence and emit detection light to the corresponding optical fiber 11, and the first camera 41 and / or the second camera 51 capture and identify the light-emitting end of the optical fiber 11 where the detection light appears. When the lighting order of the light sources is consistent with the order of the light-emitting ends of the light where the detection light appears, the controller determines that the optical fiber connector 1 is a good product. When the lighting order of the light sources is inconsistent with the order of the light-emitting ends of the light where the detection light appears, the controller determines that the optical fiber connector 1 is a defective product. Compared with the existing technology, the inspection personnel do not need to look at the optical fiber 11, thereby avoiding eye fatigue of the inspection personnel and preventing the inspection personnel from misjudging the defective optical fiber connector 1 as a good product, thereby improving the inspection accuracy of the optical fiber connector 1.

[0049] Reference Figure 3-Figure 6 In some embodiments of the present application, a limiting mechanism 6 is provided in the box body 2, and the limiting mechanism 6 includes a limiting member 61, a first driving member 62, a second driving member 63 and a third driving member 64. Along the height direction of the box body 2, a limiting groove 611 is provided on the upper end wall of the limiting member 61. The optical fiber connector 1 is placed in the limiting groove 611 and is limited by the limiting groove 611. The height direction of the box body 2 can be referred to as Figure 3 The up and down directions in .

[0050] By limiting the cooperation between the optical fiber connector 1 and the limiting groove 611, the optical fiber connector 1 can be prevented from shaking or deviating from the preset detection position when the line sequence detection is performed on the optical fiber connector 1, and the first camera 41 and / or the second camera 51 can be prevented from being unable to identify the optical fiber 11 where the detection light appears, thereby improving the working reliability of the optical fiber connector line sequence detection device 100.

[0051] In some specific embodiments, the optical fiber connector 1 can be placed and positioned on a dedicated fixture, and then the dedicated fixture is placed in the limiting groove 611 .

[0052] The first driving member 62 is connected to the limiting member 61, the second driving member 63 is connected to the third driving member 64 and the first driving member 62, the first driving member 62 is used to drive the limiting member 61 to drive the optical fiber connector 1 to rotate, the second driving member 63 is used to drive the optical fiber connector 1 to move along the first direction of the box 2, and the third driving member 64 is used to drive the optical fiber connector 1 to move along the second direction of the box 2. The first direction of the box 2 can refer to Figure 3 The left and right directions in the box 2 can refer to the second direction of Figure 3 The front-to-back direction.

[0053] The optical fiber connector 1 is driven to rotate around the pivot axis of the first driving member 62 by the first driving member 62, so that the light-emitting end of the optical fiber 11 is opposite to the second camera 51, and the central axis of the optical fiber 11 is parallel to the central axis of the second camera 51. The optical fiber connector 1 is driven to move along the first direction of the box 2 by the second driving member 63, and the optical fiber connector 1 is driven to move along the second direction of the box 2 by the third driving member 64 to adjust the relative positions of the optical fiber connector 1 and the first camera 41 and the second camera 51, so that the light-emitting end of the optical fiber 11 is opposite to both the first camera 41 and the second camera 51, and the central axis of the optical fiber 11 is arranged perpendicular to the central axis of the first camera 41, thereby achieving the technical effect that the light-emitting end of the optical fiber 11 is opposite to both the first camera 41 and the second camera 51.

[0054] Reference Figure 4 and Figure 5 In some embodiments of the present application, the first driving member 62 includes a first pivot member 621, a first fixing member 622, a first adjusting rod 623 and a second adjusting rod 624. The first pivot member 621 is pivotally connected to the first fixing member 622, and the first pivot member 621 is connected and cooperated with the limiting member 61. Specifically, along the height direction of the box body 2, the limiting member 61 is located on the upper end wall of the first pivot member 621, and the first fixing member 622 is located on the lower end wall of the first pivot member 621.

[0055] It should be noted that the pivot axis of the first driving member 62 is the pivot axis between the first pivot member 621 and the first fixing member 622 .

[0056] In addition, the outer peripheral wall of the first fixing member 622 is provided with a first connecting portion 6221, the first connecting portion 6221 is provided with a first adjustment groove 6222, and the first adjustment groove 6222 is constructed as a through groove, and the inner peripheral wall of the first adjustment groove 6222 is provided with a first adjustment hole 6223 and a second adjustment hole 6224, the first adjustment hole 6223 and the second adjustment hole 6224 are both constructed as through holes, the first adjustment hole 6223 and the second adjustment hole 6224 are arranged opposite to each other along the second direction of the box body 2, one of the first adjustment rod 623 and the second adjustment rod 624 is arranged in the first adjustment hole 6223, and the other of the first adjustment rod 623 and the second adjustment rod 624 is arranged in the second adjustment hole 6224, and the adjusting rod is threadedly connected to the corresponding adjustment hole.

[0057] In some specific embodiments, the first adjustment rod 623 is disposed in the first adjustment hole 6223 , and the second adjustment rod 624 is disposed in the second adjustment hole 6224 .

[0058] In addition, a first driving portion 6211 is provided on the outer wall of the first pivot member 621. The first driving portion 6211 extends into the first adjustment slot 6222 and is clamped between the first adjustment rod 623 and the second adjustment rod 624. It is suitable for driving the first adjustment rod 623 and the second adjustment rod 624 to drive the first driving portion 6211 to drive the first pivot member 621 to rotate.

[0059] Specifically, by driving one of the first adjustment rod 623 and the second adjustment rod 624 to move away from the first driving part 6211, and then driving the other of the first adjustment rod 623 and the second adjustment rod 624 to move close to the first driving part 6211, the adjustment rod moving close to the first driving part 6211 drives the first driving part 6211 to rotate close to the adjustment rod moving away from the first driving part 6211, so that the first driving part 6211 drives the first pivot member 621 to drive the limit member 61 to rotate, thereby achieving the technical effect of using the first driving member 62 to drive the optical fiber connector 1 to rotate.

[0060] The inspector can adjust the spacing distance between the adjustment rod moving away from the first driving part 6211 and the first driving part 6211 according to the rotation angle of the first pivot member 621 relative to the first fixed member 622. When the adjustment rod moving close to the first driving part 6211 drives the first driving part 6211 to rotate close to the adjustment rod moving away from the first driving part 6211, when the first driving part 6211 and the adjustment rod moving away from the first driving part 6211 stop contacting each other, the first pivot member 621 stops rotating and the angle adjustment is completed.

[0061] Reference Figure 4 、 Figure 6 and Figure 7In some embodiments of the present application, the second driving member 63 includes a first moving member 631, a second fixed member 632 and a third adjusting rod 633. The first moving member 631 is slidably set on the second fixed member 632. The first moving member 631 is connected and cooperated with the first driving member 62. Along the height direction of the box body 2, the first moving member 631 is located above the second fixed member 632, and the first fixed member 622 is located above the first moving member 631. The first moving member 631 is connected and cooperated with the first fixed member 622.

[0062] The outer peripheral wall of the second fixed member 632 is provided with a second connecting portion 6321, the second connecting portion 6321 is provided with a third adjusting hole 6322, the third adjusting hole 6322 is constructed as a through hole, the third adjusting rod 633 is provided in the third adjusting hole 6322 and is threadedly connected to the third adjusting hole 6322, the outer peripheral wall of the first movable member 631 is provided with a second driving portion 6311, the second driving portion 6311 is opposite to the third adjusting rod 633, and is suitable for driving the second driving portion 6311 through the third adjusting rod 633 to drive the first movable member 631 to move along the first direction of the box body 2.

[0063] By twisting the third adjustment rod 633 to move closer to the second driving portion 6311, the third adjustment rod 633 abuts against the second driving portion 6311 and drives the second driving portion 6311 to move along the first direction of the housing 2. The second driving portion 6311 drives the first moving member 631 to drive the limiting member 61 to move along the second direction of the housing 2, thereby achieving the technical effect of using the second driving member 63 to drive the limiting member 61 to move along the first direction of the housing 2. In addition, this arrangement can accurately control the movement distance of the limiting member 61 driven by the second driving member 63 by the number of rotations of the third adjustment rod 63, thereby improving the movement accuracy of the limiting member 61 driven by the second driving member 63.

[0064] The first movable member 631 is provided with a first accommodating groove 6312 on the end wall near the second fixed member 632, and the second fixed member 632 is provided with a first stop portion 6323 on the end wall near the first movable member 631, and the first stop portion 6323 extends into the first accommodating groove 6312. The outer peripheral wall of the first movable member 631 is provided with a first positioning hole 6313, and the first positioning hole 6313 is constructed as a through hole, and the first positioning hole 6313 is opposite to the first stop portion 6323. The first fastener 634 is threadedly connected to the first positioning hole 6313, and the first fastener 634 is opposite to the first stop portion 6323, and is suitable for driving the first fastener 634 to stop with the first stop portion 6323 to fix the first movable member 631 and the second fixed member 632.

[0065] In some specific embodiments, the first fastener 634 is preferably a bolt.

[0066] When the third adjusting rod 633 drives the first movable member 631 to move to the preset position, by screwing the first fastener 634 to move close to the first stop portion 6323, the first fastener 634 and the first stop portion 6323 stop and cooperate, thereby achieving the technical effect of fixing the first movable member 631 and the second fixed member 632 to be fixedly connected by the first fastener 634, and preventing the limit member 61 from shaking or moving during the line sequence detection of the optical fiber 11, resulting in the optical fiber connector 1 being unable to be opposite to the first camera 41 and / or the second camera 51, thereby improving the working reliability of the optical fiber connector line sequence detection device 100.

[0067] Furthermore, by twisting the first fastener 634 to move the first stop portion 6323 , the first fastener 634 is separated from the first stop portion 6323 , thereby achieving the technical effect of unlocking the first movable member 631 and the second fixed member 632 .

[0068] Reference Figure 4 、 Figure 5 and Figure 8 In some embodiments of the present application, the third driving member 64 includes a second moving member 641, a third fixed member 642 and a fourth adjusting rod 643. The second moving member 641 is slidably set on the third fixed member 642. The second moving member 641 is connected and cooperated with the second driving member 63. Along the height direction of the box body 2, the second moving member 641 is located above the third fixed member 642, and the second fixed member 632 is located above the second moving member 641. The second moving member 641 is connected and cooperated with the second fixed member 632, and the third fixed member 642 is connected and cooperated with the box body 2.

[0069] In addition, a third connecting portion 6421 is provided on the outer peripheral wall of the third fixing member 642, the third connecting portion 6421 is provided with a fourth adjusting hole 6422, the fourth adjusting hole 6422 is constructed as a through hole, the fourth adjusting rod 643 is provided in the fourth adjusting hole 6422 and is threadedly connected to the fourth adjusting hole 6422, and a third driving portion 6411 is provided on the outer peripheral wall of the second movable member 641, the third driving portion 6411 is opposite to the fourth adjusting rod 643, and is suitable for driving the third driving portion 6411 through the fourth adjusting rod 643 to drive the second movable member 641 to move along the second direction of the box body 2.

[0070] By twisting the fourth adjustment rod 643 to move closer to the third driving portion 6411, the fourth adjustment rod 643 abuts against the third driving portion 6411 and drives the third driving portion 6411 to move along the second direction of the housing 2. The third driving portion 6411 drives the second moving member 641 to drive the limiting member 61 along the second direction of the housing 2, thereby achieving the technical effect of utilizing the third driving member 64 to drive the limiting member 61 to move along the second direction of the housing 2. Furthermore, this arrangement allows the third driving member 64 to precisely control the distance the limiting member 61 is moved by the third driving member 64 by the number of rotations of the fourth adjustment rod 643, thereby improving the movement accuracy of the limiting member 61 driven by the third driving member 64.

[0071] The second movable member 641 is provided with a second accommodating groove 6412 on the end wall near the third fixed member 642, and the third fixed member 642 is provided with a second stop portion 6423 on the end wall near the second movable member 641, and the second stop portion 6423 extends into the second accommodating groove 6412. The outer peripheral wall of the second movable member 641 is provided with a second positioning hole 6413, and the second positioning hole 6413 is constructed as a through hole, and the second positioning hole 6413 is opposite to the second stop portion 6423. The second fastener 644 is threadedly connected to the second positioning hole 6413, and the second fastener 644 is opposite to the second stop portion 6423, and is suitable for driving the second fastener 644 to stop with the second stop portion 6423 to fix the second movable member 641 and the third fixed member 642.

[0072] In some specific embodiments, the second fastener 644 is preferably a bolt.

[0073] When the fourth adjusting rod 643 drives the second movable member 641 to move to the preset position, by screwing the second fastener 644 to move close to the second stop portion 6423, the second fastener 644 and the second stop portion 6423 are stopped and cooperated, thereby achieving the technical effect of fixing the second movable member 641 and the third fixed member 642 to be fixedly connected by the second fastener 644, and preventing the limit member 61 from shaking or moving when performing the line sequence detection of the optical fiber 11, resulting in the optical fiber connector 1 being unable to be opposite to the first camera 41 and / or the second camera 51, thereby improving the working reliability of the optical fiber connector line sequence detection device 100.

[0074] Furthermore, by twisting the second fastener 644 to move the second stop portion 6423 , the second fastener 644 is separated from the second stop portion 6423 , thereby achieving the technical effect of unlocking the second movable member 641 and the third fixing member 642 .

[0075] Reference Figure 3 and Figure 9In some embodiments of the present application, the first detection mechanism 4 includes a fourth driving member 42, a fifth driving member 43 and a sixth driving member 44. The fourth driving member 42 is connected and cooperated with the first camera 41, the fifth driving member 43 is connected and cooperated with the sixth driving member 44 and the fourth driving member 42, the fourth driving member 42 is used to drive the first camera 41 to rotate, the fifth driving member 43 is used to drive the first camera 41 to move closer to or away from the optical fiber 11, and the sixth driving member 44 is used to drive the first camera 41 to move along the second direction of the box 2.

[0076] The first camera 41 is driven to rotate around the pivot axis of the fourth driving member 42 by the fourth driving member 42, so that the first camera 41 is opposite to the light-emitting end of the optical fiber 11, and the central axis of the first camera 41 is perpendicular to the central axis of the optical fiber 11. The first camera 41 is driven to move closer to or away from the optical fiber 11 by the fifth driving member 43, so that the focal length of the first camera 41 can be adjusted, so that the detection light of the optical fiber 11 can be clearly imaged within the detection range of the first camera 41, thereby improving the detection accuracy of the first camera 41, and the first camera 41 is driven to move along the second direction of the box 2 by the sixth driving member 44 to adjust the relative position between the first camera 41 and the first camera 41, so that the first camera 41 is opposite to the light-emitting end of the optical fiber 11, thereby achieving the technical effect of the first camera 41 being opposite to the light-emitting end of the optical fiber 11.

[0077] Reference Figure 9 and Figure 10 In some embodiments of the present application, the fourth driving member 42 includes a second pivot member 421, a fourth fixing member 422, a fifth adjusting rod 423 and a sixth adjusting rod 424, the second pivot member 421 is pivotally connected to the fourth fixing member 422, and the second pivot member 421 is connected and cooperated with the first camera 41. Specifically, along the first direction of the box body 2, the first camera 41 is located on the right side wall of the second pivot member 421, and the fourth fixing member 422 is located on the left side wall of the second pivot member 421.

[0078] It should be noted that the pivot axis of the fourth driving member 42 is the pivot axis between the second pivot member 421 and the fourth fixing member 422 .

[0079] In addition, the outer peripheral wall of the fourth fixing member 422 is provided with a fourth connecting portion 4221, the fourth connecting portion 4221 is provided with a second adjustment groove 4222, and the second adjustment groove 4222 is constructed as a through groove, and the inner peripheral wall of the second adjustment groove 4222 is provided with a fifth adjustment hole 4223 and a sixth adjustment hole 4224, the fifth adjustment hole 4223 and the sixth adjustment hole 4224 are both constructed as through holes, the fifth adjustment hole 4223 and the sixth adjustment hole 4224 are relatively arranged along the height direction of the box body 2, one of the fifth adjustment rod 423 and the sixth adjustment rod 424 is provided in the fifth adjustment hole 4223, and the other is provided in the sixth adjustment hole 4224, and the adjusting rod is threadedly connected to the corresponding adjustment hole.

[0080] In some specific embodiments, the fifth adjustment rod 423 is disposed in the fifth adjustment hole 4223 , and the sixth adjustment rod 424 is disposed in the sixth adjustment hole 4224 .

[0081] In addition, a fourth driving portion 4211 is provided on the outer peripheral wall of the second pivot member 421. The fourth driving portion 4211 extends into the second adjustment slot 4222 and is clamped between the fifth adjustment rod 423 and the sixth adjustment rod 424. It is suitable for driving the fifth adjustment rod 423 and the sixth adjustment rod 424 to drive the fourth driving portion 4211 to drive the second pivot member 421 to rotate.

[0082] Specifically, by driving one of the fifth adjusting rod 423 and the sixth adjusting rod 424 to move away from the fourth driving part 4211, and then driving the other of the fifth adjusting rod 423 and the sixth adjusting rod 424 to move close to the fourth driving part 4211, the adjusting rod moving close to the fourth driving part 4211 drives the fourth driving part 4211 to rotate close to the adjusting rod moving away from the fourth driving part 4211, so that the fourth driving part 4211 drives the second pivot member 421 to drive the first camera 41 to rotate, thereby achieving the technical effect of using the fourth driving member 42 to drive the first camera 41 to rotate.

[0083] The inspector can adjust the spacing distance between the adjustment rod moving away from the fourth driving part 4211 and the fourth driving part 4211 according to the rotation angle of the second pivot member 421 relative to the fourth fixing member 422. When the adjustment rod moving close to the fourth driving part 4211 drives the fourth driving part 4211 to rotate close to the adjustment rod moving away from the fourth driving part 4211, when the fourth driving part 4211 and the adjustment rod moving away from the fourth driving part 4211 stop contacting each other, the second pivot member 421 stops rotating and the angle adjustment is completed.

[0084] Reference Figures 9-11In some embodiments of the present application, the fifth driving member 43 includes a third moving member 431, a fifth fixed member 432 and a first screw 433. The third moving member 431 is slidably arranged on the fifth fixed member 432. The third moving member 431 is connected and cooperated with the fourth driving member 42. Specifically, along the first direction of the box body 2, the third moving member 431 is located on the left side of the fourth driving member 42, the third moving member 431 is connected and cooperated with the fourth fixed member 422, and the fifth fixed member 432 is located on the left side of the third moving member 431.

[0085] In addition, a third accommodating groove 4311 is provided on the end wall of the third movable member 431 near the fifth fixed member 432, and a first rack 4321 is provided on the end wall of the fifth fixed member 432 near the third movable member 431, the first rack 4321 extends into the third accommodating groove 4311, the first screw 433 passes through the outer peripheral wall of the third movable member 431 and extends into the third accommodating groove 4311, the first screw 433 is pivotally connected to the third movable member 431, and a first driving gear 4331 is provided at the end of the first screw 433 near the third accommodating groove 4311, the first driving gear 4331 is meshed with the first rack 4321, and the first camera 41 is driven to move closer to or away from the optical fiber 11 by rotating the first screw 433.

[0086] Specifically, by screwing the first screw 433, the first driving gear 4331 is driven to rotate, and the first driving gear 4331 is meshed with the first rack 4321 and moves along the first rack 4321 toward or away from the optical fiber 11. In the process of the first driving gear 4331 moving toward or away from the optical fiber 11 along the first rack 4321, the first screw 433 drives the third moving member 431 to move toward or away from the optical fiber 11, thereby achieving the technical effect of the fifth driving member 43 driving the first camera 41 to move toward or away from the optical fiber 11.

[0087] It should be noted that, by controlling the rotation direction of the first screw 433 , the first screw 433 can be controlled to drive the third moving member 431 to move closer to or away from the optical fiber 11 .

[0088] In some specific embodiments, when the first screw 433 rotates clockwise, the first screw 433 drives the third moving member 431 to move closer to the optical fiber 11, and when the first screw 433 rotates counterclockwise, the first screw 433 drives the third moving member 431 to move away from the optical fiber 11.

[0089] Reference Figure 9 and Figure 12In some embodiments of the present application, the sixth driving member 44 includes a fourth moving member 441, a sixth fixed member 442 and a second screw 443. The fourth moving member 441 is slidably arranged on the sixth fixed member 442, and the fourth moving member 441 is connected and cooperated with the fifth driving member 43. Specifically, along the height direction of the box body 2, the fourth moving member 441 is located below the fifth driving member 43, the fourth moving member 441 is connected and cooperated with the fifth fixed member 432, the sixth fixed member 442 is located below the fourth moving member 441, and the sixth fixed member 442 is connected and cooperated with the box body 2.

[0090] A fourth accommodating groove 4411 is provided on the end wall of the fourth movable member 441 near the sixth fixed member 442, and a second rack 4421 is provided on the end wall of the sixth fixed member 442 near the fourth movable member 441. The second rack 4421 extends into the fourth accommodating groove 4411, and the second screw 443 passes through the fourth movable member 441 and extends into the fourth accommodating groove 4411. The second screw 443 is pivotally connected to the fourth movable member 441, and a second driving gear 4431 is provided at the end of the second screw 443 near the fourth accommodating groove 4411. The second driving gear 4431 is meshed with the second rack 4421, and the first camera 41 is driven to move along the second direction of the box body 2 by rotating the second screw 443.

[0091] Specifically, by screwing the second screw 443, the second driving gear 4431 is driven to rotate, and the second driving gear 4431 is engaged with the second rack 4421 and moves along the second direction of the box body 2. In the process of the second driving gear 4431 moving along the second rack 4421 along the second direction of the box body 2, the second screw 443 drives the fourth moving member 441 to move along the second direction of the box body 2, thereby achieving the technical effect of the sixth driving member 44 driving the first camera 41 to move along the second direction of the box body 2.

[0092] It should be noted that, by controlling the rotation direction of the second screw 443 , the second screw 443 can be controlled to drive the third moving member 431 to move forward or backward along the second direction of the box body 2 .

[0093] In some specific embodiments, when the second screw 443 rotates clockwise, the second screw 443 drives the third moving member 431 to move forward along the second direction of the box body 2, and when the second screw 443 rotates counterclockwise, the second screw 443 drives the third moving member 431 to move backward along the second direction of the box body 2.

[0094] The above are all preferred embodiments of the present application, and are not intended to limit the scope of protection of the present application. Therefore, any equivalent changes made based on the structure, shape, and principle of the present application should be included in the scope of protection of the present application.

Claims

1. A fiber optic connector line sequence detection device, characterized in that: The optical fiber connector includes a plurality of optical fibers, which are arranged in sequence along a preset order. The optical fiber connector line sequence detection device includes: A box (2), the box (2) defines a detection space (21), an outer peripheral wall of the box (2) is provided with a communication hole (22) communicating with the detection space (21), and the optical fiber connector (1) is placed into the box (2) through the communication hole (22) and is limitedly engaged with the box (2); A light source board (3), the light source board (3) being arranged on the box (2), the light source board (3) being connected and matched with the optical fiber connector (1), the light source board (3) comprising a plurality of light sources, the plurality of light sources being arranged in a one-to-one correspondence with the plurality of optical fibers (11), the light sources being used to emit detection light to the corresponding optical fibers (11); a first detection mechanism (4), the first detection mechanism (4) comprising a first camera (41), the first camera (41) being opposite to the end of the optical fiber (11), the central axis of the first camera (41) being arranged perpendicular to the central axis of the optical fiber (11), the first camera (41) being used to identify the optical fiber (11) where the detection light appears; a second detection mechanism (5), the second detection mechanism (5) comprising a second camera (51), the second camera (51) being opposite to the end of the optical fiber (11), the central axis of the second camera (51) being arranged parallel to the central axis of the optical fiber (11), and the second camera (51) being used to identify the optical fiber (11) where the detection light appears; A controller, wherein the first camera (41), the second camera (51) and the light source are all connected to the controller for communication, and the controller controls the light emission sequence of the plurality of light sources according to a preset program, and is used to determine whether the optical fiber connector (1) is a good product based on the detection signal of the first camera (41) and the detection signal of the second camera (51).

2. The optical fiber connector line sequence detection device according to claim 1, characterized in that: A limiting mechanism (6) is provided in the box (2), and the limiting mechanism (6) includes a limiting member (61), a first driving member (62), a second driving member (63) and a third driving member (64). The limiting member (61) is provided with a limiting groove (611), and the optical fiber connector (1) is limitedly matched with the limiting groove (611). The first driving member (62) is connected and matched with the limiting member (61). The second driving member (63) is connected and matched with the third driving member (64) and the first driving member (62). The first driving member (62) is used to drive the limiting member (61) to drive the optical fiber connector (1) to rotate. The second driving member (63) is used to drive the optical fiber connector (1) to move along the first direction of the box (2). The third driving member (64) is used to drive the optical fiber connector (1) to move along the second direction of the box (2).

3. The optical fiber connector line sequence detection device according to claim 2, characterized in that: The first driving member (62) includes a first pivot member (621), a first fixing member (622), a first adjusting rod (623) and a second adjusting rod (624), wherein the first pivot member (621) is pivotally connected to the first fixing member (622), the first pivot member (621) is connected and matched with the limiting member (61), the outer peripheral wall of the first fixing member (622) is provided with a first connecting portion (6221), the first connecting portion (6221) is provided with a first adjusting groove (6222), the inner peripheral wall of the first adjusting groove (6222) is provided with a first adjusting hole (6223) and a second adjusting hole (6224), the first adjusting hole (6223) and the second adjusting hole (6224) are arranged along the outer peripheral wall of the box body (2 ) are arranged relative to each other in the second direction of the first adjusting rod (623) and the second adjusting rod (624), one of the first adjusting rod (623) and the second adjusting rod (624) is arranged in the first adjusting hole (6223), and the other is arranged in the second adjusting hole (6224), the adjusting rod is threadedly connected with the corresponding adjusting hole, and the outer peripheral wall of the first pivot member (621) is provided with a first driving part (6211), the first driving part (6211) extends into the first adjusting groove (6222) and is clamped between the first adjusting rod (623) and the second adjusting rod (624), and is suitable for driving the first adjusting rod (623) and the second adjusting rod (624) to drive the first driving part (6211) to drive the first pivot member (621) to rotate.

4. The optical fiber connector line sequence detection device according to claim 2, characterized in that: The second driving member (63) includes a first moving member (631), a second fixed member (632) and a third adjusting rod (633), the first moving member (631) is slidably arranged on the second fixed member (632), the first moving member (631) is connected and matched with the first driving member (62), the outer peripheral wall of the second fixed member (632) is provided with a second connecting portion (6321), the second connecting portion (6321) is provided with a third adjusting hole (6322), the third adjusting rod (633) is provided in the third adjusting hole (6322) and is threadedly connected to the third adjusting hole (6322), the outer peripheral wall of the first moving member (631) is provided with a second driving portion (6311), the second driving portion (6311) is opposite to the third adjusting rod (633), and is suitable for driving the second driving portion (6311) through the third adjusting rod (633) to drive the first moving member (631) to move along the first direction of the box body (2); The first movable member (631) is provided with a first accommodating groove (6312) on the end wall close to the second fixed member (632), and the second fixed member (632) is provided with a first stop portion (6323) on the end wall close to the first movable member (631). The first stop portion (6323) extends into the first accommodating groove (6312). The outer peripheral wall of the first movable member (631) is provided with a first positioning hole (6313). The first fastener (634) is threadedly connected to the first positioning hole (6313). The first fastener (634) is opposite to the first stop portion (6323) and is suitable for driving the first fastener (634) to stop with the first stop portion (6323) to fix the first movable member (631) and the second fixed member (632).

5. The optical fiber connector line sequence detection device according to claim 2, characterized in that: The third driving member (64) includes a second moving member (641), a third fixing member (642) and a fourth adjusting rod (643), the second moving member (641) is slidably arranged on the third fixing member (642), the second moving member (641) is connected and matched with the second driving member (63), the outer peripheral wall of the third fixing member (642) is provided with a third connecting portion (6421), the third connecting portion (6421) is provided with a fourth adjusting hole (6422), the fourth adjusting rod (643) is provided in the fourth adjusting hole (6422) and is threadedly connected to the fourth adjusting hole (6422), the outer peripheral wall of the second moving member (641) is provided with a third driving portion (6411), the third driving portion (6411) is opposite to the fourth adjusting rod (643), and is suitable for driving the third driving portion (6411) through the fourth adjusting rod (643) to drive the second moving member (641) to move along the second direction of the box body (2); The second movable member (641) is provided with a second accommodating groove (6412) on the end wall close to the third fixed member (642), and the third fixed member (642) is provided with a second stop portion (6423) on the end wall close to the second movable member (641). The second stop portion (6423) extends into the second accommodating groove (6412). The outer peripheral wall of the second movable member (641) is provided with a second positioning hole (6413). The second fastener (644) is threadedly connected to the second positioning hole (6413). The second fastener (644) is opposite to the second stop portion (6423) and is suitable for driving the second fastener (644) to stop with the second stop portion (6423) to fix the second movable member (641) and the third fixed member (642).

6. The optical fiber connector line sequence detection device according to claim 1, characterized in that: The first detection mechanism (4) includes a fourth driving member (42), a fifth driving member (43) and a sixth driving member (44); the fourth driving member (42) is connected and cooperated with the first camera (41); the fifth driving member (43) is connected and cooperated with the sixth driving member (44) and the fourth driving member (42); the fourth driving member (42) is used to drive the first camera (41) to rotate; the fifth driving member (43) is used to drive the first camera (41) to move closer to or away from the optical fiber (11); and the sixth driving member (44) is used to drive the first camera (41) to move along the second direction of the box (2).

7. The optical fiber connector line sequence detection device according to claim 6, characterized in that: The fourth driving member (42) includes a second pivot member (421), a fourth fixing member (422), a fifth adjusting rod (423) and a sixth adjusting rod (424), the second pivot member (421) is pivotally connected to the fourth fixing member (422), the second pivot member (421) is connected and matched with the first camera (41), the outer peripheral wall of the fourth fixing member (422) is provided with a fourth connecting portion (4221), the fourth connecting portion (4221) is provided with a second adjusting groove (4222), the inner peripheral wall of the second adjusting groove (4222) is provided with a fifth adjusting hole (4223) and a sixth adjusting hole (4224), the fifth adjusting hole (4223) and the sixth adjusting hole (4224) are arranged along the box body ( 2) are arranged relative to each other in the height direction, one of the fifth adjusting rod (423) and the sixth adjusting rod (424) is arranged in the fifth adjusting hole (4223), and the other is arranged in the sixth adjusting hole (4224), the adjusting rod is threadedly connected to the corresponding adjusting hole, and the outer peripheral wall of the second pivot member (421) is provided with a fourth driving part (4211), the fourth driving part (4211) extends into the second adjusting groove (4222) and is clamped between the fifth adjusting rod (423) and the sixth adjusting rod (424), and is suitable for driving the fifth adjusting rod (423) and the sixth adjusting rod (424) to drive the fourth driving part (4211) to drive the second pivot member (421) to rotate.

8. The optical fiber connector line sequence detection device according to claim 6, characterized in that: The fifth driving member (43) includes a third moving member (431), a fifth fixed member (432) and a first screw (433), the third moving member (431) is slidably arranged on the fifth fixed member (432), the third moving member (431) is connected and matched with the fourth driving member (42), the third moving member (431) is provided with a third accommodating groove (4311) on the end wall close to the fifth fixed member (432), the fifth fixed member (432) is provided with a first rack (4321) on the end wall close to the third moving member (431), and the first rack (4321) extends into the In the third accommodating groove (4311), the first screw rod (433) passes through the third movable member (431) and extends into the third accommodating groove (4311), the first screw rod (433) is pivotally connected to the third movable member (431), and a first driving gear (4331) is provided at the end of the first screw rod (433) close to the third accommodating groove (4311), and the first driving gear (4331) is meshedly connected with the first rack (4321), and the first camera (41) is driven to move closer to or away from the optical fiber (11) by rotating the first screw rod (433).

9. The optical fiber connector line sequence detection device according to claim 6, characterized in that: The sixth driving member (44) includes a fourth moving member (441), a sixth fixed member (442) and a second screw (443), the fourth moving member (441) is slidably arranged on the sixth fixed member (442), the fourth moving member (441) is connected and matched with the fifth driving member (43), the fourth moving member (441) is provided with a fourth accommodating groove (4411) on the end wall close to the sixth fixed member (442), the sixth fixed member (442) is provided with a second rack (4421) on the end wall close to the fourth moving member (441), and the second rack (4421) extends into the The fourth accommodating groove (4411) is provided with a second driving gear (4431) at the end of the second screw rod (443) close to the fourth accommodating groove (4411). The second driving gear (4431) is meshed with the second rack (4421). The second screw rod (443) is rotated to drive the first camera (41) to move along the second direction of the box body (2).

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