An integrated multi-port adaptive fiber optic transceiver

Abstract

This utility model belongs to the field of fiber optic transceiver technology and discloses an integrated multi-port adaptive fiber optic transceiver, including: a fiber optic transceiver body, with a clamping assembly and a synchronization assembly at the rear of the fiber optic transceiver body; the clamping assembly includes: a clamping plate, with a first clamping ring fixedly connected below the clamping plate via a connecting plate; and a second clamping ring symmetrically arranged below the first clamping ring. Compared with the prior art, this utility model has the following advantages: through the design of the coordinated operation of the synchronization assembly and the clamping assembly, the synchronization assembly drives three sets of rotating rods to rotate synchronously. When the rotating rods rotate, the matching screw sleeves immediately drive the clamping plate to move smoothly downwards. This brings the first clamping ring closer to the second clamping ring, clamping the fiber optic connector cable between them. During this clamping process, under the linkage of the synchronization mechanism, the two convergence rings move closer to each other synchronously, so that the cable behind is orderly gathered within the space defined by the two, effectively preventing the cable from spreading out haphazardly.

Description

Technical Field

[0001] This utility model belongs to the field of fiber optic transceiver technology, and specifically relates to an adaptive fiber optic transceiver with integrated multi-port optical ports. Background Technology

[0002] A fiber optic transceiver is an Ethernet transmission media conversion unit that converts short-distance twisted-pair electrical signals to long-distance optical signals; it is also known as an optoelectronic converter in many places. Fiber optic transceivers feature integrated multi-port optical capabilities, automatically adapting to different network transmission rates and duplex modes. They are compatible with ST and SC interfaces, and can also perform online video transmission. They can automatically switch fiber optic input interfaces as needed, and have a simple structure and high integration.

[0003] However, in daily use, the fiber optic connector cables often remain loose due to the lack of effective securing measures. During routine maintenance in the computer room, the cables are pulled when the equipment is moved or shaken. This pulling gradually loosens the connection between the fiber optic plug and the fiber optic interface, leading to attenuation or even interruption of optical signal transmission. Furthermore, if the fiber optic transceiver is accidentally dropped during routine maintenance, the pulling force on the cable will increase instantly. This could cause the fiber optic plug to detach completely from the interface, resulting in an immediate interruption of network connectivity and affecting daily use.

[0004] To address the aforementioned issues, this application proposes an integrated multi-port adaptive fiber optic transceiver. Utility Model Content

[0005] To address the shortcomings of existing technologies, the purpose of this utility model is to provide an integrated multi-port adaptive fiber optic transceiver. By designing a clamping assembly, the fiber optic connector can be clamped and fixed, making it less likely for the connector to loosen or fall off due to the pulling of the cable when the device is moved or shaken, thus solving the problems mentioned in the background technology.

[0006] To achieve the above objectives, this application specifically adopts the following technical solution:

[0007] An integrated multi-port adaptive fiber optic transceiver includes: a fiber optic transceiver body, with a clamping assembly and a synchronization assembly located at the rear of the body; the clamping assembly includes: a clamping plate, with a first clamping ring fixedly connected to the lower part of the clamping plate via a connecting plate; a second clamping ring symmetrically located below the first clamping ring; a threaded sleeve with internal threads fixedly connected to the clamping plate, a rotating rod installed inside the threaded sleeve, the upper outer wall of the rotating rod having threads, and the rotating rod and the threaded sleeve being rotatably connected via threads; the synchronization assembly is located in a drive box below the clamping plate, with a bidirectional screw movably installed inside the drive box; a sliding groove is opened on the back of the drive box, with two moving rods located in the sliding groove; a semi-circular gathering ring is fixedly connected to the rear end of each moving rod, and threaded holes are opened at the rear ends of both moving rods, with the moving rods being rotatably connected to the bidirectional screw through the threaded holes.

[0008] Through the above technical solution, the drive rocker arm can drive the driven bevel gear to rotate via the active bevel gear. At this time, the upper end of the rocker arm rotates within the screw sleeve, causing the screw sleeve to move the clamping plate downwards. The clamping plate, with the help of the connecting plate, drives the first clamping ring to descend, gradually approaching the second clamping ring, until the cable is tightly clamped and fixed between the two. This avoids the situation where the fiber optic interface becomes loose due to pulling.

[0009] In a preferred embodiment, the bidirectional screw has its threads on both sides arranged in opposite directions with the center as the boundary. A drive rocker is installed inside the drive box. The drive box is fixedly connected to the main body of the fiber optic transceiver. A transmission wheel is installed at one end of the drive rocker. A synchronous wheel is movably installed on the bidirectional screw. The transmission wheel and the synchronous wheel are connected by a transmission belt.

[0010] The above technical solution enables the drive rocker arm to rotate while simultaneously driving the transmission wheel to rotate. During the rotation of the transmission wheel, the synchronous wheel is driven to rotate via the transmission belt, and the synchronous wheel is driven to rotate the bidirectional screw.

[0011] In a preferred embodiment, a driving bevel gear is fixedly mounted on the driving rocker arm, a driven bevel gear is meshed above the driving bevel gear, the lower end of the rotating rod extends into the driving box and is fixedly connected to the driven bevel gear, a third bearing is installed on each side of the driving box, and the two ends of the bidirectional screw are respectively connected to the inner side of the third bearing.

[0012] With the above technical solution, when the bidirectional screw rotates, it can drive the inner side of the third bearing to rotate. At the same time, the bidirectional screw can rotate in the two threaded holes, thereby driving the two moving rods to slide towards each other in the sliding groove. In turn, the moving rods can drive the two gathering rings to move closer to each other.

[0013] In a preferred embodiment, both the first clamping ring and the second clamping ring are semi-circular structures, and the first clamping ring and the second clamping ring are mirror images of each other. The second clamping ring is fixedly connected to the upper surface of the drive box via a connecting plate.

[0014] Through the above technical solutions

[0015] In a preferred embodiment, the screw sleeve, rotating rod, driving bevel gear, and driven bevel gear are each provided in three sets. A first bearing is installed on one side of the drive box, and one end of the drive rocker is fixedly connected to the inner side of the first bearing.

[0016] The above technical solution enables the first bearing to rotate during the rotation of the drive rocker arm.

[0017] In a preferred embodiment, a knob is provided on the side of the drive box away from the first bearing, one end of the drive rocker arm passes through the drive box and is fixedly connected to the knob, and the end of the knob away from the drive box has a flat structure.

[0018] Through the above technical solution, the flat structure design of the knob is easier to pinch with fingers, which makes it easier for users to grasp the knob when operating.

[0019] In a preferred embodiment, the drive box is provided with a second bearing, which has three sets, each corresponding to one of the three sets of rotating rods. The inner wall of the second bearing is fixed to the outer wall of the rotating rod, and both sides of the second bearing are fixedly connected to the inner wall of the drive box through fixing plates.

[0020] Through the above technical solution, the second bearing can position the rotating rod, enabling it to rotate stably inside the rotating rod and avoiding irregular friction caused by the shaking of the rotating rod.

[0021] In a preferred embodiment, the upper surface of the fiber optic transceiver body has multiple sets of heat dissipation holes; the rear surface of the fiber optic transceiver body has multiple sets of optical ports, the positions of which correspond to the positions between the first clamping ring and the second clamping ring.

[0022] Through the above technical solution, heat can be discharged through the heat dissipation holes, keeping the equipment within a suitable operating temperature range, ensuring its high-performance operation, and reducing performance fluctuations caused by temperature factors.

[0023] As a preferred embodiment, the device further includes a wire sleeve mechanism, which includes a corrugated telescopic sleeve. A quick-connect ring with an internal thread is fixedly installed at the front end of the corrugated telescopic sleeve, and a screw-connect ring with an external thread is fixedly installed at the rear end of the corrugated telescopic sleeve. The inner wall of the gathering ring is provided with an internal thread.

[0024] By using the above technical solution, the wires can be collected in the corrugated telescopic sleeve, which can effectively avoid the wires being placed haphazardly. Furthermore, multiple sets of wire sleeve mechanisms can be used according to the actual length of the wires, so that the rotary coupling ring at the front wire sleeve mechanism and the quick coupling ring at the rear can be connected by threaded rotation, thereby realizing the combined connection of multiple sets of wire sleeve mechanisms.

[0025] After adopting the above technical solution, the beneficial effects of this utility model are:

[0026] 1. The design utilizes the coordinated operation of a synchronization component and a clamping component. The synchronization component drives three sets of rotating rods to rotate synchronously. As the rods rotate, the matching screw sleeves cause the clamping plates to move smoothly downwards. This brings the first clamping ring closer to the second clamping ring, clamping the fiber optic connector cable between them. During this clamping process, the synchronization mechanism causes the two clamping rings to move closer to each other synchronously, ensuring that the cable is orderly gathered within the space defined by the two rings, effectively preventing the cable from spreading out haphazardly. This design avoids the cable exerting a pulling force on the fiber optic connector due to external forces, thus eliminating the potential for loosening of the fiber optic interface caused by pulling.

[0027] 2. The cable sleeve mechanism allows for the orderly collection and containment of cables within the corrugated telescopic sleeve, effectively preventing excessively long cables from being scattered haphazardly and facilitating cable management. Furthermore, the use of threaded quick-connect and screw-in couplings allows for the combination and extension of multiple identical cable sleeve mechanisms. When the length of a single cable sleeve mechanism is insufficient to meet actual needs, users can easily add a new cable sleeve mechanism by simply threading the quick-connect and screw-in couplings together, thus freely expanding the overall length according to specific application scenarios. Attached Figure Description

[0028] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0029] Figure 1 This is a schematic diagram of the overall structure of an adaptive fiber optic transceiver with integrated multi-port according to this utility model.

[0030] Figure 2 This is a schematic diagram of the structure of an adaptive fiber optic transceiver with integrated multi-port according to this utility model from another perspective.

[0031] Figure 3 This is a schematic diagram of the internal structure of the driver box in an integrated multi-port adaptive fiber optic transceiver according to this utility model.

[0032] Figure 4 for Figure 2 Enlarged schematic diagram of part A.

[0033] Figure 5 for Figure 3 Enlarged schematic diagram of part B.

[0034] In the diagram, 1. Fiber optic transceiver body; 2. Heat dissipation hole; 4. Cable clamping assembly; 41. Clamping plate; 42. Rotating rod; 43. First clamping ring; 44. Second clamping ring; 45. Screw sleeve; 46. Connecting plate; 5. Synchronization assembly; 51. Drive box; 52. Drive rocker arm; 53. Knob; 54. First bearing; 55. Driving bevel gear; 56. Driven bevel gear; 57. Second bearing; 58. Fixing plate; 59. Moving rod; 510. Gathering ring; 511. Sliding groove; 512. Third bearing; 513. Bidirectional screw; 514. Transmission wheel; 515. Synchronization wheel; 516. Transmission belt; 6. Optical port; 71. Swivel joint ring; 72. Corrugated telescopic sleeve; 73. Quick-connect ring. Detailed Implementation

[0035] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0036] Please see Figures 1 to 5 An integrated multi-port adaptive fiber optic transceiver includes: a fiber optic transceiver body 1, with a clamping assembly 4 and a synchronization assembly 5 located at the rear of the fiber optic transceiver body 1.

[0037] The wire clamping assembly 4 includes: a clamping plate 41, a first clamping ring 43 fixedly connected to the lower part of the clamping plate 41 via a connecting plate 46; a second clamping ring 44 symmetrically arranged below the first clamping ring 43; a threaded sleeve 45 with internal threads fixedly connected to the clamping plate 41; a rotating rod 42 installed inside the threaded sleeve 45; the upper outer wall of the rotating rod 42 is threaded; the rotating rod 42 and the threaded sleeve 45 are rotatably connected by the thread.

[0038] The synchronization component 5 is located in the drive box 51 below the clamping plate 41. A bidirectional screw 513 is movably installed in the drive box 51. The bidirectional screw 513 has opposite thread directions on both sides with the center as the boundary. A sliding groove 511 is provided on the back of the drive box 51. Two moving rods 59 are provided in the sliding groove 511. A semi-circular gathering ring 510 is fixedly connected to the rear end of each moving rod 59. Threaded holes are provided at the rear ends of both moving rods 59. The moving rods 59 are rotatably connected to the bidirectional screw 513 through the threaded holes.

[0039] The drive rocker arm 52 can drive the driven bevel gear 56 to rotate via the active bevel gear 55. At this time, the upper end of the rotating rod 42 rotates within the screw sleeve 45, causing the screw sleeve 45 to move the clamping plate 41 downward. The clamping plate 41, with the help of the connecting plate 46, drives the first clamping ring 43 to descend, gradually approaching the second clamping ring 44, until the cable is tightly clamped and fixed between the two. This avoids the fiber optic interface from becoming loose due to pulling.

[0040] The bidirectional screw 513 has its threads on both sides arranged in opposite directions with the center as the boundary. A drive rocker arm 52 is installed inside the drive box 51. The drive box 51 is fixedly connected to the main body 1 of the fiber optic transceiver. A transmission wheel 514 is installed at one end of the drive rocker arm 52. A synchronous wheel 515 is movably installed on the bidirectional screw 513. The transmission wheel 514 and the synchronous wheel 515 are connected by a transmission belt 516.

[0041] When the drive rocker arm 52 rotates, it can drive the transmission wheel 514 to rotate. During the rotation of the transmission wheel 514, it drives the synchronous wheel 515 to rotate through the transmission belt 516. The synchronous wheel 515 can drive the bidirectional screw 513 to rotate.

[0042] A drive bevel gear 55 is fixedly installed on the drive rocker arm 52. A driven bevel gear 56 is meshed above the drive bevel gear 55. The lower end of the rotating rod 42 extends into the drive box 51 and is fixedly connected to the driven bevel gear 56. A third bearing 512 is installed on each side of the drive box 51. Both ends of the bidirectional screw 513 are connected to the inner side of the third bearing 512.

[0043] When the bidirectional screw 513 rotates, it can drive the inner side of the third bearing 512 to rotate. At the same time, the bidirectional screw 513 can rotate in the two threaded holes, thereby driving the two moving rods 59 to slide towards each other in the sliding groove 511. In turn, the moving rods 59 can drive the two gathering rings 510 to move closer to each other.

[0044] Both the first clamping ring 43 and the second clamping ring 44 are semi-circular structures, and the first clamping ring 43 and the second clamping ring 44 are mirror images of each other. The second clamping ring 44 is fixedly connected to the upper surface of the drive box 51 through the connecting plate 46.

[0045] The screw sleeve 45, the rotating rod 42, the driving bevel gear 55 and the driven bevel gear 56 are each provided in three sets. The first bearing 54 is installed on one side of the drive box 51, and one end of the drive rocker arm 52 is fixedly connected to the inner side of the first bearing 54.

[0046] During the rotation of the drive rocker arm 52, the first bearing 54 can be rotated.

[0047] A knob 53 is provided on the side of the drive box 51 away from the first bearing 54. One end of the drive rocker arm 52 passes through the drive box 51 and is fixedly connected to the knob 53. The end of the knob 53 away from the drive box 51 has a flat structure.

[0048] The flat design of the knob 53 makes it easier to pinch with your fingers, which makes it easier for users to grip the knob 53 when operating it.

[0049] The drive box 51 is equipped with a second bearing 57. There are three sets of the second bearing 57, which correspond to the positions of the three sets of rotating rods 42 respectively. The inner wall of the second bearing 57 is fixed to the outer wall of the rotating rod 42. The two sides of the second bearing 57 are fixedly connected to the inner wall of the drive box 51 through fixing plates 58 respectively.

[0050] The second bearing 57 can position the rotating rod 42, enabling it to rotate stably inside the rotating rod 42 and avoiding irregular friction caused by the shaking of the rotating rod 42.

[0051] Multiple sets of heat dissipation holes 2 are opened on the upper surface of the fiber optic transceiver body 1; multiple sets of optical ports 6 are opened on the rear surface of the fiber optic transceiver body 1, and the positions of the optical ports 6 correspond to the positions between the first clamping ring 43 and the second clamping ring 44.

[0052] The fiber optic transceiver body 1 generates heat during operation. If this heat cannot be dissipated in time, excessively high internal temperatures may degrade the performance of electronic components, leading to increased bit error rate and reduced optical power, thus affecting the accuracy and stability of data transmission. However, by dissipating the heat through the heat dissipation holes 2, the device can be maintained within a suitable operating temperature range, ensuring high-performance operation and reducing performance fluctuations caused by temperature factors.

[0053] It also includes a wire sleeve mechanism, which includes a corrugated telescopic sleeve 72. A quick-connect ring 73 with internal threads is fixedly installed at the front end of the corrugated telescopic sleeve 72, and a screw ring 71 with external threads is fixedly installed at the rear end of the corrugated telescopic sleeve 72. The inner wall of the gathering ring 510 is provided with internal threads.

[0054] Collecting the cable within the corrugated telescopic sleeve 72 effectively prevents the cable from being placed haphazardly. Furthermore, multiple sets of cable sleeve mechanisms can be used according to the actual length of the cable. The screw ring 71 at the front cable sleeve mechanism and the quick-connect ring 73 at the rear are connected by a threaded rotation, thereby enabling the combined connection of multiple sets of cable sleeve mechanisms.

[0055] In practical use, the working principle of this utility model is as follows:

[0056] In use, the knob 53 is operated to rotate the drive rocker arm 52 clockwise. The drive rocker arm 52 then drives the three driven bevel gears 56 to rotate synchronously through the three sets of driving bevel gears 55 connected to it. The rotation of the driven bevel gears 56 causes the rotating rod 42 to rotate within the screw sleeve 45. Since the upper outer wall of the rotating rod 42 is threaded and is connected to the screw sleeve 45 by the thread, the screw sleeve 45 can drive the clamping plate 41 to move upward during the rotation of the three sets of rotating rods 42, thanks to the principle of thread transmission. The clamping plate 41 further drives the first clamping ring 43 to rise through the connecting plate 46, creating sufficient space between it and the second clamping ring 44 so that the fiber optic connector can be smoothly passed between them and inserted into the optical port 6. During this insertion process, the wire connected to the fiber optic connector is located in the space reserved between the first clamping ring 43 and the second clamping ring 44.

[0057] After all fiber optic connectors are installed, the knob 53 is operated in the opposite direction to rotate counterclockwise, thereby causing the drive rocker arm 52 to reverse. Following the aforementioned transmission path, the drive rocker arm 52 again drives the driven bevel gear 56 to rotate via the active bevel gear 55. At this time, the rotation direction of the upper end of the rotating rod 42 within the screw sleeve 45 changes, causing the screw sleeve 45 to move the clamping plate 41 downwards. The clamping plate 41, with the help of the connecting plate 46, causes the first clamping ring 43 to descend, gradually approaching the second clamping ring 44, until the cable is tightly clamped and fixed between the two. In everyday practical applications, the fiber optic transceiver body 1 may experience movement due to routine maintenance, minor adjustments to the equipment room layout, or slight shaking caused by vibrations from the surrounding environment. This design effectively prevents the cable from exerting a pulling force on the fiber optic connector, thus avoiding loosening of the fiber optic interface due to pulling. While driving the rocker arm 52 to rotate, it can drive the transmission wheel 514 to rotate. During the rotation of the transmission wheel 514, it drives the synchronous wheel 515 to rotate through the transmission belt 516. The synchronous wheel 515 can drive the bidirectional screw 513 to rotate. The bidirectional screw 513 can rotate in the two threaded holes, thereby driving the two moving rods 59 to slide towards each other in the sliding groove 511. In turn, the moving rods 59 can drive the two gathering rings 510 to move closer to each other, so that the rear end of the multi-strand fixed line is gathered between the two gathering rings 510, preventing the rear line from scattering.

[0058] In addition, the cable can be threaded into the corrugated telescopic sleeve 72. By stretching and bending the corrugated telescopic sleeve 72, its length and curvature can be adjusted. The cable is collected in the corrugated telescopic sleeve 72, effectively preventing the cable from being placed haphazardly. Then, the quick-connect ring 73 and the gathering ring 510 are connected by a threaded rotation, realizing the connection between the cable sleeve mechanism and the gathering ring 510. Multiple sets of cable sleeve mechanisms can be used according to the actual length of the cable. The screw ring 71 at the front cable sleeve mechanism is connected to the quick-connect ring 73 at the rear by a threaded rotation, thereby realizing the combination connection of multiple sets of cable sleeve mechanisms, so as to freely expand the overall length according to the specific application scenario.

[0059] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. An integrated multi-lan e adaptive fiber transceiver, comprising: The fiber optic transceiver body (1) is characterized in that: a wire clamping assembly (4) and a synchronization assembly (5) are provided at the rear of the fiber optic transceiver body (1). The wire clamping assembly (4) includes: a clamping plate (41), a first clamping ring (43) is fixedly connected to the lower part of the clamping plate (41) via a connecting plate (46); a second clamping ring (44) is symmetrically arranged below the first clamping ring (43); a threaded sleeve (45) with internal threads is fixedly connected to the clamping plate (41); a rotating rod (42) is installed inside the threaded sleeve (45); the upper outer wall of the rotating rod (42) is threaded; the rotating rod (42) and the threaded sleeve (45) are rotatably connected by the thread. The synchronization component (5) is located in the drive box (51) below the clamping plate (41). A bidirectional screw (513) is movably installed in the drive box (51). A sliding groove (511) is provided on the back of the drive box (51). Two moving rods (59) are provided in the sliding groove (511). A semi-circular gathering ring (510) is fixedly connected to the rear end of each moving rod (59). Threaded holes are provided at the rear ends of both moving rods (59). The moving rods (59) are rotatably connected to the bidirectional screw (513) through the threaded holes.

2. The integrated multi-fiber small form-factor pluggable (MSFP) transceiver of claim 1, wherein: the MSFP transceiver is configured to receive a plurality of optical signals from a plurality of optical fibers; and the MSFP transceiver is configured to transmit a plurality of optical signals to a plurality of optical fibers. The bidirectional screw (513) has its threads on both sides arranged in opposite directions with the center as the boundary. A drive rocker arm (52) is installed inside the drive box (51). The drive box (51) is fixedly connected to the main body (1) of the fiber optic transceiver. A transmission wheel (514) is installed at one end of the drive rocker arm (52). A synchronous wheel (515) is movably installed on the bidirectional screw (513). The transmission wheel (514) and the synchronous wheel (515) are connected by a transmission belt (516).

3. The adaptive fiber optic transceiver with integrated multi-port as described in claim 2, characterized in that: A drive bevel gear (55) is fixedly installed on the drive rocker (52). A driven bevel gear (56) is meshed above the drive bevel gear (55). The lower end of the rotating rod (42) extends into the drive box (51) and is fixedly connected to the driven bevel gear (56). A third bearing (512) is installed on each side of the drive box (51). Both ends of the bidirectional screw (513) are connected to the inner side of the third bearing (512).

4. The adaptive fiber optic transceiver with integrated multi-port as described in claim 3, characterized in that: Both the first clamping ring (43) and the second clamping ring (44) are semi-circular structures, and the first clamping ring (43) and the second clamping ring (44) are mirror images of each other. The second clamping ring (44) is fixedly connected to the upper surface of the drive box (51) via a connecting plate (46).

5. The adaptive fiber optic transceiver with integrated multi-port as described in claim 4, characterized in that: The screw sleeve (45), rotating rod (42), driving bevel gear (55) and driven bevel gear (56) are each provided in three sets. The first bearing (54) is installed on one side of the drive box (51), and one end of the drive rocker arm (52) is fixedly connected to the inner side of the first bearing (54).

6. The adaptive fiber optic transceiver with integrated multi-port as described in claim 5, characterized in that: A knob (53) is provided on the side of the drive box (51) away from the first bearing (54). One end of the drive rocker (52) passes through the drive box (51) and is fixedly connected to the knob (53). The end of the knob (53) away from the drive box (51) has a flat structure.

7. The adaptive fiber optic transceiver with integrated multi-port as described in claim 6, characterized in that: The drive box (51) is provided with a second bearing (57). The second bearing (57) has three sets, which correspond to the positions of the three sets of rotating rods (42). The inner wall of the second bearing (57) is fixed to the outer wall of the rotating rod (42). The two sides of the second bearing (57) are fixedly connected to the inner wall of the drive box (51) through fixing plates (58).

8. The adaptive fiber optic transceiver with integrated multi-port as described in claim 1, characterized in that: The fiber optic transceiver body (1) has multiple sets of heat dissipation holes (2) on its upper surface; the fiber optic transceiver body (1) has multiple sets of optical ports (6) on its rear surface, and the position of the optical ports (6) corresponds to the position between the first clamping ring (43) and the second clamping ring (44).

9. The adaptive fiber optic transceiver with integrated multi-port as described in claim 1, characterized in that: It also includes a wire sleeve mechanism, which includes a corrugated telescopic sleeve (72), a quick-connect ring (73) with internal threads is fixedly installed at the front end of the corrugated telescopic sleeve (72), a screw ring (71) with external threads is fixedly installed at the rear end of the corrugated telescopic sleeve (72), and the inner wall of the gathering ring (510) is provided with internal threads.

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