A device for detecting the uniformity of adaptability of a 200G optical module

Abstract

The present invention belongs to the technical field of optical module detection, and discloses a 200G optical module adaptability uniformity detection device, including a device body, a control panel is installed on the upper end of the device body, an observation window is opened in the middle of the box door of the device body, a plurality of detection mechanisms are fixedly connected inside the device body, and an optical module body is movably connected inside the detection mechanism. The present invention facilitates fixing or releasing the optical module body and synchronously measuring the temperature of the optical module body by setting the cooperation of structures such as a driving component and a fixed temperature measurement component, and cuts off the power to an abnormal optical module body and isolates it separately by setting the cooperation of structures such as a pull-out mechanism and a moving push block, and pushes the sliding frame to move by a second telescopic rod, so that the sliding frame pulls the optical module body out of the detection socket through a flip baffle and a hook.

Description

Technical Field

[0001] The present invention belongs to the technical field of optical module detection, and in particular is a 200G optical module adaptability uniformity detection device. Background Art

[0002] An optical module is a device that integrates optical and electronic components and is used to transmit, receive or convert optical signals. Its quality and performance are crucial to the reliability and transmission efficiency of communication networks. In order to ensure that the optical module operates stably and efficiently, it is necessary to test the operation of the optical module in various environments and conditions. The optical module may need to operate in various complex environments, such as high temperature, low temperature, high humidity, etc.

[0003] When performing high and low temperature environment detection on optical modules, in order to ensure the accuracy of the detection, multiple optical modules are generally tested for timed live operation in the oven at the same time. If there are defects inside the optical module or the electronic circuit cannot withstand the high temperature during operation, the optical module may explode or spontaneously combust. High temperature environment detection generally takes a long time, ranging from several days to several weeks. During this period, if an optical module explodes or spontaneously combusts, it will affect the detection of other optical modules and even cause equipment damage. Therefore, a 200G optical module adaptability uniformity detection device is proposed. Summary of the invention

[0004] In order to solve the problem of explosion or spontaneous combustion during optical module detection proposed in the above background technology, the present invention provides a 200G optical module adaptability uniformity detection device.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: a 200G optical module adaptability uniformity detection device, comprising a device body, a control panel is installed on the upper end of the device body, an observation window is opened in the middle of the box door of the device body, a plurality of detection mechanisms are fixedly connected inside the device body, an optical module body is movably connected inside the detection mechanism, a handle is fixedly connected at one end of the optical module body, a fixed temperature measurement mechanism is arranged at the upper end of the detection mechanism, a pull-out mechanism is slidably connected at the lower end of the detection mechanism, and an optical fiber assembly is inserted into one end of the optical module body;

[0006] The detection mechanism includes a support body, a detection socket is linearly distributed in the middle of the support body, a slide rail is fixedly connected to the top of the support body, and a first slide groove is opened at the bottom of the support body.

[0007] The fixed temperature measuring mechanism includes a driving component and a fixed temperature measuring component. The driving component is used to push the fixed temperature measuring component to flip and push the optical fiber component to move. The fixed temperature measuring component is used to fix the optical module body and measure the temperature of the optical module body at the same time.

[0008] Preferably, the supporting body is fixedly connected to the device body, the optical module body is inserted into the detection socket, the slide rail and the first slide groove both correspond to the position of the detection socket, the slide rail is used to support and limit the fixed temperature measuring mechanism, and the first slide groove is slidably connected with a pull-out mechanism.

[0009] Preferably, the driving assembly includes a moving seat, a pair of push rods are hinged at one end of the moving seat, and moving push blocks are respectively hinged at the ends of the push rods away from the moving seat, one end of the moving push blocks is fixedly connected with a locking protrusion, the ends of the moving push blocks away from each other are both abutted with elastic limiting push plates, and a first telescopic rod is fixedly connected to the middle of the moving seat.

[0010] Preferably, the fixed temperature measuring component includes a fixed pressure plate, a second slide groove is opened in the middle of the fixed pressure plate, a sliding block is slidably connected inside the second slide groove, a temperature measuring module is fixedly connected to the middle of the sliding block, a signal transmitter is fixedly connected to the top of the temperature measuring module, and a limiting frame is fixedly connected to the top of the fixed pressure plate.

[0011] Preferably, the movable seat is slidably connected to the slide rail, the movable seat is located at the top of the supporting body, the movable push block is slidably connected to the inside of the limit frame, one end of the movable push block extends to the side of the fixed pressure plate away from the movable seat, the locking protrusion is in contact with the optical fiber assembly, the elastic limit push plate is located inside the limit frame, one end of the elastic limit push plate away from the movable push block is fixedly connected to the limit frame, and the first telescopic rod is fixedly connected to the device body.

[0012] Preferably, the fixed pressure plate is rotatably connected to the supporting body, the fixed pressure plate corresponds to the position of the detection socket, the fixed pressure plate is in conflict with the optical module body, the second slide groove is located on the side of the fixed pressure plate away from the optical module body, the sliding block is in conflict with the optical module body, the temperature measurement module sends data to the control panel in real time through the signal transmitter, and the limit frame is located at one end of the fixed pressure plate away from the hinge with the supporting body.

[0013] Preferably, the extraction mechanism comprises a sliding frame, one end of the sliding frame is hinged with a flip baffle, the middle of the flip baffle is hinged with a hook, and the lower end of the sliding frame is fixedly connected with a second telescopic rod;

[0014] The sliding frame is slidably connected to the inside of the first sliding groove, the flip baffle is located at one end of the sliding frame located outside the first sliding groove, the top of the hook is hooked and connected to the handle, the second telescopic rod is located inside the first sliding groove, and the second telescopic rod is fixedly connected to the supporting body, and the control panel is connected to the first telescopic rod and the second telescopic rod through a power transmission line.

[0015] Preferably, the optical fiber assembly comprises an optical fiber line, one end of the optical fiber line is fixedly connected with an optical fiber connector, and the top of the optical fiber connector is fixedly connected with a buckle protrusion;

[0016] The optical fiber connector is inserted into the optical module body, and the buckle protrusion is engaged with the locking protrusion.

[0017] Preferably, after the control panel receives the signal transmitted by the signal transmitter, it first starts to extend the first telescopic rod at the corresponding position, so that the first telescopic rod pushes the movable seat and the push rod to move, and the push rod pushes the buckle protrusion through the movable push block and the locking protrusion, so that the buckle protrusion drives the optical fiber connector to be pulled out from the inside of the optical module body, and then the first telescopic rod contracts, and the movable seat pulls the fixed pressure plate through the push rod and the movable push block to flip upward, so that the fixed pressure plate releases the fixation of the optical module body.

[0018] Preferably, after the second telescopic rod receives the signal transmitted by the control panel, the second telescopic rod first extends to push the sliding frame to move to the outside of the first sliding groove, and the sliding frame pulls the handle through the flip baffle and the hook to pull the optical module body out of the detection socket, so that the optical module body falls into the sliding frame, and at the same time drives the hook to flip into the sliding frame, and then the second telescopic rod contracts to pull the sliding frame to drive the optical module body to move into the first sliding groove.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] The present invention facilitates fixing or releasing the optical module body and synchronously measuring the temperature of the optical module body by providing the cooperation of structures such as the driving component and the fixed temperature measuring component. The optical module body is fixed by the fixed pressing plate, which can be pulled by the driving component to flip and release the optical module body. The optical module body can be fixed and released, and a single optical module body can be released and taken out conveniently when testing.

[0021] The present invention cooperates with structures such as a pull-out mechanism and a movable push block, thereby powering off the abnormal optical module body and isolating it separately, and pushing the sliding frame to move by the second telescopic rod, so that the sliding frame pulls the optical module body from the detection socket through the flip baffle and the hook and falls into the inside of the sliding frame, and then the second telescopic rod pulls the sliding frame to reset, and the abnormal optical module body is sealed to prevent it from spontaneous combustion or explosion, which affects other tested optical module bodies;

[0022] The present invention facilitates the pulling out of the optical fiber connector from the interior of the optical module body by providing the cooperation of structures such as the locking protrusion and the snap protrusion. The optical fiber connector can be fixed by the locking engagement of the locking protrusion and the snap protrusion. Then, the moving push block pushes the locking protrusion to drive the snap protrusion to move, and the optical fiber connector can be pulled out from the interior of the optical module body, so that the optical module body will not carry the optical fiber when entering the interior of the sliding frame. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0024] Figure 2 It is an overall schematic diagram of the detection mechanism of the present invention;

[0025] Figure 3 It is a schematic diagram of the partial connection of the detection mechanism of the present invention;

[0026] Figure 4 This is a schematic diagram of the optical module body of the present invention in the inserted state;

[0027] Figure 5 This is a disassembly schematic diagram of the fixed temperature measuring mechanism of the present invention;

[0028] Figure 6 for Figure 5 The enlarged schematic diagram at A in the middle;

[0029] Figure 7 This is a schematic diagram of the insertion and removal of the optical module body of the present invention;

[0030] Figure 8 for Figure 7 Enlarged schematic diagram of point B in the middle.

[0031] In the figure: 1. device body; 2. control panel; 3. observation window; 4. detection mechanism; 41. support body; 42. detection socket; 43. slide rail; 44. first slide groove; 5. optical module body; 6. handle; 7. fixed temperature measurement mechanism; 71. drive assembly; 711. moving seat; 712. push rod; 713. moving push block; 714. positioning protrusion; 715. elastic limiting push plate; 716. first telescopic rod; 72. fixed temperature measurement assembly; 721. fixed pressure plate; 722. second slide groove; 723. sliding block; 724. temperature measurement module; 725. signal transmitter; 726. limiting frame; 8. extraction mechanism; 81. sliding frame; 82. flip baffle; 83. hook; 84. second telescopic rod; 9. optical fiber assembly; 91. optical fiber line; 92. optical fiber connector; 93. snap-on protrusion. DETAILED DESCRIPTION

[0032] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the accompanying drawings in the embodiments of the present invention.

[0033] like Figures 1 to 8 As shown, the present invention provides a 200G optical module adaptability uniformity detection device, including a device body 1, a control panel 2 is installed on the upper end of the device body 1, an observation window 3 is opened in the middle of the box door of the device body 1, multiple groups of detection mechanisms 4 are fixedly connected inside the device body 1, an optical module body 5 is movably connected inside the detection mechanism 4, a handle 6 is fixedly connected at one end of the optical module body 5, a fixed temperature measuring mechanism 7 is arranged at the upper end of the detection mechanism 4, a pull-out mechanism 8 is slidably connected at the lower end of the detection mechanism 4, and an optical fiber assembly 9 is inserted at one end of the optical module body 5;

[0034] The detection mechanism 4 includes a support body 41, a detection socket 42 is linearly distributed in the middle of the support body 41, a slide rail 43 is fixedly connected to the top of the support body 41, and a first slide groove 44 is opened at the bottom of the support body 41.

[0035] The fixed temperature measuring mechanism 7 includes a driving component 71 and a fixed temperature measuring component 72. The driving component 71 is used to push the fixed temperature measuring component 72 to flip and push the optical fiber component 9 to move. The fixed temperature measuring component 72 is used to fix the optical module body 5 and measure the temperature of the optical module body 5 at the same time.

[0036] The above scheme is adopted: the first telescopic rod 716 pushes the movable seat 711, the push rod 712 and the movable push block 713 to move, and the movable push block 713 pushes the buckle protrusion 93 to the side away from the optical module body 5, and the buckle protrusion 93 drives the optical fiber connector 92 to move and disconnect the optical module body 5, so that the optical module body 5 stops running, and then the first telescopic rod 716 shrinks, and the fixed pressure plate 721 is pulled to flip by the movable seat 711, the push rod 712 and the movable push block 713, so as to release the fixation of the optical module body 5, so as to prevent the optical module body 5 from continuing to run and causing the temperature to continue to rise, resulting in explosion or spontaneous combustion, and then the optical module body 5 can be pulled out from the inside of the detection socket 42 by the pull-out mechanism 8, and isolated separately, so that the adjacent optical module body 5 can continue to run the test without being affected.

[0037] like Figure 3 , Figure 4 , Figure 5 and Figure 7 As shown, the support body 41 is fixedly connected to the device body 1, the optical module body 5 is inserted into the detection socket 42, the slide rail 43 and the first slide groove 44 correspond to the position of the detection socket 42, the slide rail 43 is used to support and limit the fixed temperature measuring mechanism 7, and the first slide groove 44 is slidably connected with the pull-out mechanism 8.

[0038] The above scheme is adopted: by setting up a detection mechanism 4, inserting the optical module body 5 into the detection socket 42, and then fixing and measuring the temperature of the optical module body 5 through the fixed temperature measuring mechanism 7 set on the slide rail 43, and at the same time, through the pull-out mechanism 8 slidably connected inside the first slide groove 44, the optical module body 5 with abnormal temperature is pulled out and stored, and waits for the test to be completed before taking it out to detect the cause of damage.

[0039] like Figures 4 to 8 As shown, the driving assembly 71 includes a moving seat 711, one end of the moving seat 711 is hinged with a pair of push rods 712, the ends of the push rods 712 away from the moving seat 711 are respectively hinged with moving push blocks 713, one end of the moving push blocks 713 is fixedly connected with a positioning protrusion 714, the ends of the moving push blocks 713 away from each other are abutted with elastic limiting push plates 715, the middle part of the moving seat 711 is fixedly connected with a first telescopic rod 716, the moving seat 711 is slidably connected to the slide rail 43, and the moving The seat 711 is located at the top of the support body 41, the movable push block 713 is slidably connected to the inside of the limiting frame 726, one end of the movable push block 713 extends to the side of the fixed pressure plate 721 away from the movable seat 711, the locking protrusion 714 is in conflict with the optical fiber assembly 9, the elastic limiting push plate 715 is located inside the limiting frame 726, the end of the elastic limiting push plate 715 away from the movable push block 713 is fixedly connected to the limiting frame 726, and the first telescopic rod 716 is fixedly connected to the device body 1.

[0040] The above scheme is adopted: the driving component 71 and the fixed temperature measuring component 72 are provided to fix the optical module body 5 and measure the temperature of the optical module body 5 at the same time, the first telescopic rod 716 pushes the movable seat 711 and the push rod 712 to move, and the push rod 712 pushes the movable push block 713 to move, so that the fixed temperature measuring component 72 is flipped and covered on the top of the optical module body 5 to fix the optical module body 5, and then the sliding block 723 is manually pushed to slide out from the inside of the second slide groove 722, and contacts with the optical module body 5, so that the temperature measuring module 724 detects the temperature of the optical module body 5, and at the same time, the positioning protrusion 714 is engaged with the buckle protrusion 93;

[0041] After the temperature measurement module 724 measures the temperature abnormality, the signal transmitter 725 transmits it to the control panel 2, and the control panel 2 controls the first telescopic rod 716 to continue to extend, so that the movable push block 713 and the locking protrusion 714 push the buckle protrusion 93 to fall off from the inside of the optical module body 5, and then the first telescopic rod 716 contracts, pulling the movable seat 711 to move, and the movable seat 711 pulls the fixed pressure plate 721 to flip upward through the push rod 712 and the movable push block 713, so that the fixed pressure plate 721 releases the fixation of the optical module body 5.

[0042] like Figures 4 to 8As shown, a fixed pressing plate 721 is provided with a second sliding groove 722 in the middle of the fixed pressing plate 721, a sliding block 723 is slidably connected inside the second sliding groove 722, a temperature measuring module 724 is fixedly connected in the middle of the sliding block 723, a signal transmitter 725 is fixedly connected to the top of the temperature measuring module 724, a limiting frame 726 is fixedly connected to the top of the fixed pressing plate 721, the fixed pressing plate 721 is rotatably connected to the supporting body 41, the fixed pressing plate 721 corresponds to the position of the detection socket 42, the fixed pressing plate 721 conflicts with the optical module body 5, the second sliding groove 722 is located on the side of the fixed pressing plate 721 away from the optical module body 5, the sliding block 723 conflicts with the optical module body 5, the temperature measuring module 724 sends data to the control panel 2 in real time through the signal transmitter 725, and the limiting frame 726 is located at one end of the fixed pressing plate 721 away from the hinge with the supporting body 41.

[0043] The above scheme is adopted: by setting a fixed pressure plate 721, the fixed pressure plate 721 squeezes the optical module body 5 to fix it, and at the same time, the sliding block 723 slidably connected to the fixed pressure plate 721 contacts the optical module body 5, so that the temperature measurement module 724 contacts the optical module body 5 to monitor the temperature of the optical module body 5. The setting of the signal transmitter 725 can transmit the temperature change of the optical module body 5 to the control panel 2 in real time, and the limit frame 726 fixedly connected to the top of the fixed pressure plate 721 is used to limit the movable push block 713.

[0044] like Figure 5 , Figure 7 and Figure 8 As shown, the extraction mechanism 8 includes a sliding frame 81, one end of the sliding frame 81 is hinged with a flip baffle 82, the middle of the flip baffle 82 is hinged with a hook 83, and the lower end of the sliding frame 81 is fixedly connected to a second telescopic rod 84;

[0045] The sliding frame 81 is slidably connected inside the first sliding groove 44, the flip baffle 82 is located at one end of the sliding frame 81 outside the first sliding groove 44, the top of the hook 83 is hooked and connected with the handle 6, the second telescopic rod 84 is located inside the first sliding groove 44, and the second telescopic rod 84 is fixedly connected to the support body 41, and the control panel 2 is connected to the first telescopic rod 716 and the second telescopic rod 84 through a power transmission line.

[0046] The above scheme is adopted: by setting the extraction mechanism 8, the hook 83 is hooked and connected to the handle 6, and then the second telescopic rod 84 is extended to push the sliding frame 81 to drive the flip baffle 82 and the hook 83 to move, so that the hook 83 pulls the handle 6, and the optical module body 5 is pulled out from the inside of the detection socket 42, so that the optical module body 5 and the handle 6 fall into the inside of the sliding frame 81, and then the second telescopic rod 84 is retracted to pull the sliding frame 81 to move, driving the optical module body 5 to enter the inside of the first slide groove 44 for sealing;

[0047] By setting the flip baffle 82 and the hook 83, the flip baffle 82 and the hook 83 can be flipped downward when not in use, so that the flip baffle 82 and the hook 83 automatically hang down under the action of gravity. When used next time, they can be flipped upward directly so that the hook 83 is directly hooked and connected to the handle 6, which is convenient for installation.

[0048] like Figures 3 to 6 As shown, the optical fiber assembly 9 includes an optical fiber line 91, one end of the optical fiber line 91 is fixedly connected to an optical fiber connector 92, and the top of the optical fiber connector 92 is fixedly connected to a buckle protrusion 93;

[0049] The optical fiber connector 92 is inserted into the optical module body 5 , and the buckle protrusion 93 is engaged with the locking protrusion 714 .

[0050] The above-mentioned scheme is adopted: by setting up an optical fiber assembly 9, the optical fiber connector 92 is connected to the optical module body 5, so that the optical module body 5 can be tested for operation, and the snap protrusion 93 set on the top of the optical fiber connector 92 is snapped with the locking protrusion 714, so that the locking protrusion 714 pushes the snap protrusion 93 to drive the optical fiber connector 92 to fall off from the inside of the optical module body 5.

[0051] like Figures 1 to 8 As shown, after the control panel 2 receives the signal transmitted by the signal transmitter 725, the first telescopic rod 716 at the corresponding position is activated to extend, so that the first telescopic rod 716 pushes the moving seat 711 and the push rod 712 to move, and the push rod 712 pushes the buckle protrusion 93 through the moving push block 713 and the locking protrusion 714, so that the buckle protrusion 93 drives the optical fiber connector 92 to be pulled out from the inside of the optical module body 5, and then the first telescopic rod 716 is retracted, and the moving seat 711 pulls the fixed pressure plate 721 to flip upward through the push rod 712 and the moving push block 713, so that the fixed pressure plate 72 1 The fixation of the optical module body 5 is released. After the second telescopic rod 84 receives the signal transmitted by the control panel 2, the second telescopic rod 84 first extends to push the sliding frame 81 to move to the outside of the first sliding groove 44. The sliding frame 81 pulls the handle 6 through the flip baffle 82 and the hook 83, and then the optical module body 5 is pulled out from the inside of the detection socket 42, so that the optical module body 5 falls into the inside of the sliding frame 81, and at the same time drives the hook 83 to flip and enter the inside of the sliding frame 81. Then, the second telescopic rod 84 contracts to pull the sliding frame 81 to drive the optical module body 5 to move to the inside of the first sliding groove 44.

[0052] The above scheme is adopted: after the control panel 2 receives the signal transmitted by the signal transmitter 725, if the optical module body 5 has an abnormal temperature, the first telescopic rod 716 at the corresponding position will be activated first, so that the first telescopic rod 716 pushes the movable seat 711 and the push rod 712 to move, so that the push rod 712 moves through the movable push block 713, and the movable push block 713 and the locking protrusion 714 cooperate to push the buckle protrusion 93 to pull the optical fiber connector 92 out of the optical module body 5, and then control the first telescopic rod 716 to shrink, pull the fixed pressure plate 721 to flip upward, and release the fixation of the optical module body 5. Then, the second telescopic rod 84 is controlled to extend and push the sliding frame 81 to move toward the outside of the first sliding groove 44, so that the sliding frame 81 can move synchronously by flipping the baffle 82 and the hook 83 to pull the handle 6, and the optical module body 5 is pulled out from the inside of the detection socket 42, so that the optical module body 5 falls into the sliding frame 81, and at the same time, the hook 83 is driven to flip and enter the sliding frame 81, and then the second telescopic rod 84 is contracted to pull the sliding frame 81 to drive the optical module body 5 to move into the first sliding groove 44, and the optical module body 5 is powered off and sealed to prevent the abnormal optical module body 5 from continuing to operate and exploding or spontaneously combusting.

[0053] The working principle and use process of the present invention are as follows: during operation, when the optical module body 5 under detection has an abnormal temperature, the temperature measurement module 724 detects it, and then transmits it to the control panel 2 through the signal transmitter 725. After the control panel 2 processes it, the first telescopic rod 716 corresponding to the position of the optical module body 5 with the abnormality is started, and the first telescopic rod 716 pushes the movable seat 711 to move, so that the movable seat 711 pushes the movable push block 713 to move through the push rod 712, so that the movable push block 713 pushes the buckle protrusion 93 to move, so that the buckle protrusion 93 drives the optical fiber connector 92 to move, so that the optical fiber connector 92 is disconnected from the optical module body 5, and then the first telescopic rod 716 is contracted to pull the movable seat 711 to reset, so that the movable seat 711 is turned upward by the push rod 712 and the push rod 712 pulls the fixed pressure plate 721 to release the fixation of the optical module body 5, so that the optical module body 5 can be pulled out from the inside of the detection socket 42;

[0054] After the optical module body 5 is released from fixation, the control panel 2 controls the second telescopic rod 84 to extend and push the sliding frame 81 to move, so that the sliding frame 81 drives the flip baffle 82 and the hook 83 to move, and the optical module body 5 is pulled off from the detection socket 42 by the hook 83, and then the optical module body 5 falls into the sliding frame 81 under the action of gravity, and then the second telescopic rod 84 pulls the sliding frame 81 to reset, so that the sliding frame 81 drives the optical module body 5 to enter the first sliding groove 44, and the abnormal optical module body 5 is sealed to prevent it from spontaneous combustion or explosion, which affects the optical module body 5 of other tests.

Claims

1. A 200G optical module adaptability uniformity detection device, comprising a device body (1), characterized in that: A control panel (2) is installed at the upper end of the device body (1); an observation window (3) is provided in the middle of the door of the device body (1); a plurality of detection mechanisms (4) are fixedly connected inside the device body (1); an optical module body (5) is movably connected inside the detection mechanism (4); a handle (6) is fixedly connected to one end of the optical module body (5); a fixed temperature measuring mechanism (7) is provided at the upper end of the detection mechanism (4); a pull-out mechanism (8) is slidably connected to the lower end of the detection mechanism (4); and an optical fiber assembly (9) is inserted into one end of the optical module body (5); The detection mechanism (4) comprises a support body (41), a detection socket (42) is linearly distributed in the middle of the support body (41), a slide rail (43) is fixedly connected to the top of the support body (41), and a first slide groove (44) is provided at the bottom of the support body (41). The fixed temperature measuring mechanism (7) comprises a driving component (71) and a fixed temperature measuring component (72); the driving component (71) is used to push the fixed temperature measuring component (72) to flip and push the optical fiber component (9) to move; the fixed temperature measuring component (72) is used to fix the optical module body (5) and measure the temperature of the optical module body (5) at the same time.

2. The 200G optical module adaptability uniformity detection device according to claim 1 is characterized in that: The supporting body (41) is fixedly connected to the device body (1); an optical module body (5) is inserted into the detection socket (42); the slide rail (43) and the first slide groove (44) both correspond to the position of the detection socket (42); the slide rail (43) is used to support and limit the fixed temperature measuring mechanism (7); and a pull-out mechanism (8) is slidably connected inside the first slide groove (44).

3. The 200G optical module adaptability uniformity detection device according to claim 1 is characterized in that: The driving assembly (71) comprises a moving seat (711), one end of the moving seat (711) is hinged with a pair of push rods (712), one end of the push rods (712) away from the moving seat (711) is hinged with a moving push block (713), one end of the moving push block (713) is fixedly connected with a locking protrusion (714), the ends of the moving push blocks (713) away from each other are both abutted with an elastic limiting push plate (715), and the middle part of the moving seat (711) is fixedly connected with a first telescopic rod (716).

4. The 200G optical module adaptability uniformity detection device according to claim 1 is characterized in that: The fixed temperature measuring component (72) comprises a fixed pressing plate (721), a second sliding groove (722) is provided in the middle of the fixed pressing plate (721), a sliding block (723) is slidably connected inside the second sliding groove (722), a temperature measuring module (724) is fixedly connected in the middle of the sliding block (723), a signal transmitter (725) is fixedly connected to the top of the temperature measuring module (724), and a limiting frame (726) is fixedly connected to the top of the fixed pressing plate (721).

5. The 200G optical module adaptability uniformity detection device according to claim 3 is characterized in that: The movable seat (711) is slidably connected to the slide rail (43); the movable seat (711) is located at the top of the supporting body (41); the movable push block (713) is slidably connected to the inside of the limiting frame (726); one end of the movable push block (713) extends to the side of the fixed pressure plate (721) away from the movable seat (711); the locking protrusion (714) contacts the optical fiber assembly (9); the elastic limiting push plate (715) is located inside the limiting frame (726); one end of the elastic limiting push plate (715) away from the movable push block (713) is fixedly connected to the limiting frame (726); and the first telescopic rod (716) is fixedly connected to the device body (1).

6. The 200G optical module adaptability uniformity detection device according to claim 4, characterized in that: The fixed pressure plate (721) is rotatably connected to the supporting body (41); the fixed pressure plate (721) corresponds to the position of the detection socket (42); the fixed pressure plate (721) is in contact with the optical module body (5); the second slide groove (722) is located on the side of the fixed pressure plate (721) away from the optical module body (5); the sliding block (723) is in contact with the optical module body (5); the temperature measurement module (724) sends data to the control panel (2) in real time through the signal transmitter (725); and the limit frame (726) is located at one end of the fixed pressure plate (721) away from the hinge with the supporting body (41).

7. The 200G optical module adaptability uniformity detection device according to claim 1, characterized in that: The pulling mechanism (8) comprises a sliding frame (81), one end of the sliding frame (81) is hinged with a flip baffle (82), the middle of the flip baffle (82) is hinged with a hook (83), and the lower end of the sliding frame (81) is fixedly connected with a second telescopic rod (84); The sliding frame (81) is slidably connected inside the first sliding groove (44), the flip baffle (82) is located at one end of the sliding frame (81) located outside the first sliding groove (44), the top of the hook (83) is hooked and connected with the handle (6), the second telescopic rod (84) is located inside the first sliding groove (44), and the second telescopic rod (84) is fixedly connected to the supporting body (41), and the control panel (2) is connected to the first telescopic rod (716) and the second telescopic rod (84) through a power transmission line.

8. The 200G optical module adaptability uniformity detection device according to claim 1, characterized in that: The optical fiber assembly (9) comprises an optical fiber line (91), one end of the optical fiber line (91) is fixedly connected to an optical fiber connector (92), and the top of the optical fiber connector (92) is fixedly connected to a buckle protrusion (93); The optical fiber connector (92) is inserted into the optical module body (5), and the snap-on protrusion (93) is snap-fitted with the locking protrusion (714).

9. The 200G optical module adaptability uniformity detection device according to claim 1, characterized in that: After the control panel (2) receives the signal transmitted by the signal transmitter (725), it first starts to extend the first telescopic rod (716) at the corresponding position, so that the first telescopic rod (716) pushes the movable seat (711) and the push rod (712) to move, and the push rod (712) pushes the buckle protrusion (93) through the movable push block (713) and the locking protrusion (714), so that the buckle protrusion (93) drives the optical fiber connector (92) to be pulled out from the inside of the optical module body (5), and then the first telescopic rod (716) contracts, and the movable seat (711) pulls the fixed pressure plate (721) through the push rod (712) and the movable push block (713) to flip upward, so that the fixed pressure plate (721) releases the fixation of the optical module body (5).

10. The 200G optical module adaptability uniformity detection device according to claim 7, characterized in that: After the second telescopic rod (84) receives the signal transmitted by the control panel (2), the second telescopic rod (84) first extends to push the sliding frame (81) to move to the outside of the first sliding groove (44), and the sliding frame (81) pulls the handle (6) through the flip baffle (82) and the hook (83), thereby pulling the optical module body (5) out of the detection socket (42), so that the optical module body (5) falls into the sliding frame (81), and at the same time drives the hook (83) to flip and enter the sliding frame (81), and then the second telescopic rod (84) contracts to pull the sliding frame (81) to drive the optical module body (5) to move to the inside of the first sliding groove (44).

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