Optical communication module capable of being moved out quickly

Abstract

The utility model provides an optical communication module capable of being moved out quickly, which belongs to the technical field of optical communication modules and comprises an optical communication module body, a slot is arranged on one side, close to the bottom, of the front side of the optical communication module body, a shifting slide block is movably arranged in the slot, and a first abutting spring is arranged between the shifting slide block and the optical communication module body. The buckle plate is detachably arranged on the side, close to the shifting sliding block, of the bottom of the optical communication module body, a hinge part is arranged on the side, close to the bottom, of the front side of the optical communication module body, the pull ring is hinged to the hinge part, and the pull ring rotates along the hinge part to apply extrusion force to the front side of the shifting sliding block. The first sliding grooves are symmetrically formed in the two sides of the optical communication module body, the two auxiliary pop-up mechanisms are symmetrically arranged at the two first sliding grooves, and the problem that in the prior art, due to the fact that the space reserved at the tail end is narrow, the module is inconvenient to move out, and consequently the interface and the optical communication module are damaged due to misoperation is solved.

Description

TECHNICAL FIELD

[0001] The utility model relates to optical communication module technical field, specifically, relate to a kind of optical communication module that can be quickly removed. BACKGROUND

[0002] As the core component of modern communication technology, optical communication module plays an important role in high-speed information transmission. They use optical signals to transmit data in optical fibers, which has higher bandwidth, lower attenuation and stronger anti-interference ability compared to traditional electrical signal transmission. Therefore, it is widely used in data centers, high-speed internet access and long-distance communication fields. With the acceleration of digitalization process, optical communication module has become an indispensable part of various digital devices, and its performance and maintainability directly affect the operation efficiency of the entire system.

[0003] However, in current digital device installation practice, due to design limitations, the tail end of many optical communication modules is closely attached to one side of the digital device, almost flush with the device plane. This design is beneficial to space saving, but when the module needs to be replaced, maintained or upgraded, due to the narrow reserved space, there is not enough operating space, and the module is inconvenient to remove. At the same time, improper operation may cause damage to the interface and optical communication module. SUMMARY

[0004] To make up for the above shortcomings, the utility model provides an optical communication module that can be quickly removed to solve the above problems.

[0005] The utility model is realized as follows:

[0006] An optical communication module that can be quickly removed includes an optical communication module body, a toggle slider, a buckle, a pull ring and an auxiliary ejection mechanism. A slot is formed on the front side of the optical communication module body near the bottom side. The toggle slider is movably arranged in the slot, and a first contact spring is arranged between the toggle slider and the optical communication module body. The first contact spring contacts the toggle slider outward of the slot. The buckle is detachably arranged on the bottom side of the optical communication module body near the toggle slider. A hinge part is arranged on the front side of the optical communication module body near the bottom side. The pull ring is hinged on the hinge part. The pull ring rotates along the hinge part to apply a pressing force to the front side of the toggle slider. First sliding grooves are symmetrically formed on both sides of the optical communication module body. The auxiliary ejection mechanism has two parts and is symmetrically arranged at the first sliding grooves.

[0007] In the embodiment of the utility model, the top of the slot is provided with a first guide groove, the rear side end of the first guide groove is provided with a first stopper, the top of the push slider is provided with a second guide groove, the front end of the second guide groove is provided with a third stopper, after the push slider is inserted into the slot, the first guide groove and the second guide groove form a cylindrical cavity, and the first contact spring is arranged in the cavity, and the two ends thereof respectively contact the first stopper and the third stopper.

[0008] In the embodiment of the utility model, the rear side of the push slider is provided with a rearward extending supporting leg near the two ends respectively, the top of the supporting leg is provided with a push block, the rear side of the push block is an inclined surface, and a second sliding groove is formed in the top wall of the slot along the forward and backward moving track of the push block.

[0009] In the embodiment of the utility model, the pull ring comprises a hinge shaft arranged on one side thereof, a protruding portion is arranged in the middle of the hinge shaft, a downward extending protruding plate is arranged on the front side of the push slider near the bottom side, the hinge shaft is hinged to the hinge portion, and the protruding portion contacts the front side of the push slider when the pull ring rotates.

[0010] In the embodiment of the utility model, the auxiliary pop-up mechanism comprises two connecting blocks arranged on the inner side of the optical communication module body near the two ends of the first sliding groove, a guide rod is arranged between the two connecting blocks, and a docking bin is arranged in the optical communication module body near the front side bottom of the guide rod.

[0011] In the embodiment of the utility model, the auxiliary pop-up mechanism further comprises an L-shaped plate, a connecting plate is arranged on the left side of the L-shaped plate, a plurality of hinge blocks are arranged on the left side of the connecting plate, the L-shaped plate is slidingly arranged on the side wall of the optical communication module body, the connecting plate is slidingly arranged in the first sliding groove, the plurality of hinge blocks are slidingly arranged on the guide rod, a second contact spring is arranged on the front side of the guide rod, and the two ends of the second contact spring are arranged between the hinge blocks and the connecting plate near the front side respectively.

[0012] In the embodiment of the utility model, a positioning rod is arranged on the left side of the L-shaped plate near the bottom side, one side of the positioning rod is connected to the bottom of any two hinge blocks, a positioning head is arranged at the front end of the positioning rod, and a spring tongue is arranged at the bottom of the positioning head.

[0013] In the embodiment of the utility model, the bottom of the positioning head is provided with an inner recess, the bottom edge of the inner recess is provided with a first limiting flange, the spring tongue comprises a latch, the top of the latch is provided with a movable hole, and the top outer edge thereof is provided with a second limiting flange, the latch is arranged in the inner recess, a third resisting spring is arranged in the movable hole, and the first limiting flange and the second limiting flange resist each other under the elastic force of the third resisting spring.

[0014] In the embodiment of the utility model, the rear side of the docking bin is provided with a docking hole, the inner side wall bottom side of the docking hole is provided with a pin hole, the positioning head is inserted into the docking hole and resists the end of the docking hole, and at this time the spring tongue is ejected from the pin hole.

[0015] In the embodiment of the utility model, the push block is located below the front side of the pin hole, when the push block moves backward, the inclined surface of the push block resists the bottom of the latch and exerts pressure on the same.

[0016] The utility model discloses the beneficial effect is: through the cooperation of push slider, pull ring and auxiliary ejection mechanism, the quick removal of optical communication module in the narrow space is realized, and the user only needs to rotate the pull ring simply, and the auxiliary ejection mechanism can be triggered, so that the optical communication module is automatically ejected under the elastic force, and specifically, the convex part on the pull ring is extruded to the front side of the push slider by rotating the pull ring, at this time, the push slider moves to the rear side of the insertion slot, the push block is extruded and resisted to the bottom end of the latch upwards, the inclined surface of the push block moves the latch upwards, and after the latch returns to the docking hole, the rear force of L-shaped plate is formed under the elastic force of the second resisting spring, that is, the optical communication module body is formed and is ejected, the operation process is greatly simplified, the second stopper is arranged on the top of the insertion slot, the problem that the push slider is extruded and resisted to the end of the second sliding groove and is deformed is effectively avoided, and the stability of the structure is increased. ACCURACY

[0017] In order to more clearly illustrate the technical scheme of the embodiment of the utility model, the following will briefly introduce the drawings needed to be used in the embodiment, and it should be understood that the following drawings only show some embodiments of the utility model, and should not be regarded as the limitation to the scope, and for the ordinary skilled person in the art, other related drawings can be obtained without the creative labor under the premise of the drawings.

[0018] Figure 1 The structural schematic diagram of the optical communication module that can be quickly removed provided by the embodiment of the utility model is shown in the figure.

[0019] Figure 2The partial explosion structure schematic view of the optical communication module provided by the utility model embodiment can quickly remove;

[0020] Figure 3 The cross section structure schematic view of the optical communication module body provided by the utility model embodiment;

[0021] Figure 4 The partial cross section structure schematic view of the auxiliary ejection mechanism provided by the utility model embodiment;

[0022] Figure 5 For Figure 4 The partial cross section structure schematic view of the auxiliary ejection mechanism provided by the utility model embodiment;

[0023] In the figure: 10, optical communication module body; 11, slot; 12, first sliding groove; 13, hinged part; 14, first guide groove; 15, first stop block; 16, second stop block; 17, second sliding groove; 20, push slider; 21, second guide groove; 22, third stop block; 23, push block; 24, first abutting spring; 30, buckle plate; 40, pull ring; 41, hinged shaft; 42, protruding part; 50, auxiliary ejection mechanism; 51, connecting block; 52, guide rod; 53, L-shaped plate; 5301, connecting plate; 5302, hinged block; 54, second abutting spring; 55, positioning rod; 56, positioning head; 5601, inner recess; 5602, first limiting flange; 57, spring tongue; 5701, bolt; 5702, second limiting flange; 5703, movable hole; 5704, third abutting spring; 58, docking bin; 5801, docking hole; 5802, pin hole. DETAILED DESCRIPTION

[0024] In order to make the purpose, technical scheme and advantages of the utility model embodiments clearer, the technical scheme in the utility model embodiments will be described clearly and completely below in combination with the drawings in the utility model embodiments. Obviously, the described embodiments are part of the embodiments of the utility model, rather than all the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the utility model.

[0025] Therefore, the following detailed description of the embodiments of the utility model provided in the drawings is not intended to limit the scope of the claimed utility model, but only represents selected embodiments of the utility model. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the utility model.

[0026] As Figures 1-3As shown in the utility model provides a kind of optical communication module that can be quickly removed, including optical communication module body 10, dial slider 20, buckle plate 30, pull ring 40 and auxiliary pop-up mechanism 50, the front side of optical communication module body 10 is close to the bottom side and is provided with slot 11, dial slider 20 is movably arranged in slot 11, and first contact spring 24 is arranged between dial slider 20 and optical communication module body 10, first contact spring 24 is contacted to the outside of slot 11 with dial slider 20, buckle plate 30 is detachably arranged in the bottom of optical communication module body 10 and is close to dial slider 20 side, the front side of optical communication module body 10 is close to the bottom side and is provided with hinged part 13, pull ring 40 is hinged on hinged part 13, and pull ring 40 rotates along hinged part 13, i.e. the front side of dial slider 20 is extruded, the two sides of optical communication module body 10 are symmetrically provided with first sliding groove 12, auxiliary pop-up mechanism 50 has two, and is symmetrically arranged at two first sliding grooves 12, and dial slider 20 cooperates with auxiliary pop-up mechanism 50 to form a trigger type pop-up function, when optical structure module body needs to be pulled out, the second contact spring 54 in auxiliary pop-up mechanism 50 is triggered by dial slider to pop up optical communication module body 10.

[0027] As Figure 3 Shown, the top of slot 11 is provided with first guide slot 14, and the rear side end of first guide slot 14 is provided with first stop block 15, the top of dial slider 20 is provided with second guide slot 21, and the front end of second guide slot 21 is provided with third stop block 22, after dial slider 20 is inserted into slot 11, first guide slot 14 and second guide slot 21 form a cylindrical cavity, and first contact spring 24 is arranged in the cavity, and the two ends thereof are respectively contacted with first stop block 15 and third stop block 22.

[0028] As Figure 2 Shown, the rear side of dial slider 20 is close to two ends and is respectively provided with rearwardly extending leg, the top of leg is provided with dial block 23, the rear side of dial block 23 is inclined surface, and second sliding groove 17 is formed on the top wall of slot 11 along the forward and backward moving track of dial block 23.

[0029] As a preferred embodiment, the top of slot 11 is provided with second stop block 16 once rearwardly, when dial slider 20 is extruded by external force and slides backward, in order to avoid the extrusion contact between dial block 23 and the end of second sliding groove 17, which causes deformation, when dial block 23 is close to the end of second sliding groove 17, the rear side of dial slider 20 is contacted with second stop block 16 and located between two legs, so as to avoid this problem.

[0030] In this embodiment, the pull ring 40 includes a hinge shaft 41 provided on one side thereof, the middle part of the hinge shaft 41 is provided with a protruding part 42, the front side of the push slider 20 is provided with a downwardly extending protruding plate near the bottom side, the hinge shaft 41 is hinged to the hinge part 13, when the pull ring 40 rotates, the protruding part 42 is in contact with the front side of the push slider 20.

[0031] As shown in Figures 4-5 , the auxiliary ejection mechanism 50 includes two connecting blocks 51 provided on the inner side of the optical communication module body 10 near the two end parts of the first sliding groove 12, a guide rod 52 is provided between the two connecting blocks 51, a docking bin 58 is provided inside the optical communication module body 10 near the front side bottom of the guide rod 52.

[0032] Further, the auxiliary ejection mechanism 50 further includes an L-shaped plate 53, the left side of the L-shaped plate 53 is provided with a connecting plate 5301, a plurality of hinge blocks 5302 are provided on the left side of the connecting plate 5301, the L-shaped plate 53 is slidingly provided on the side wall of the optical communication module body 10, and the connecting plate 5301 is slidingly provided in the first sliding groove 12, the plurality of hinge blocks 5302 are slidingly provided on the guide rod 52, a second contact spring 54 is provided on the front side of the guide rod 52, and the two ends of the second contact spring 54 are respectively provided between the hinge blocks 5302 and the connecting plate 5301 near the front side.

[0033] Further, the left side of the L-shaped plate 53 is provided with a positioning rod 55 near the bottom side, one side of the positioning rod 55 is connected to the bottom of any two hinge blocks 5302, the front end of the positioning rod 55 is provided with a positioning head 56, and the bottom of the positioning head 56 is provided with a spring tongue 57.

[0034] As shown in Figure 5 , the bottom of the positioning head 56 is provided with an inner recess 5601, the bottom edge of the inner recess 5601 is provided with a first limiting flange 5602, the spring tongue 57 includes a plug 5701, the top of the plug 5701 is provided with a movable hole 5703, and the top outer edge thereof is provided with a second limiting flange 5702, the plug 5701 is provided in the inner recess 5601, the movable hole 5703 is provided with a third contact spring 5704, and the first limiting flange 5602 and the second limiting flange 5702 are in contact with each other under the elastic force of the third contact spring 5704.

[0035] Further, the rear side of the docking bin 58 is provided with a docking hole 5801, and the inner side wall bottom side of the docking hole 5801 is provided with a pin hole 5802, the positioning head 56 is inserted into the docking hole 5801 and contacts the end part of the docking hole 5801, at this time the spring tongue 57 is ejected from the pin hole 5802.

[0036] Further, the push block 23 is located below the front side of the pin hole 5802, when the sliding block 20 is moved backward, the inclined surface of the push block 23 is in contact with the bottom of the plug 5701, and pressure is applied to the plug 5701.

[0037] It should be noted that the entrance of the docking hole 5801 and the top edge of the pin hole 5802 are chamfered, which facilitates the smooth movement of the plug and the plug 5701 during the movement of the docking cavity 58, and avoids the situation that the plug is stuck.

[0038] Specifically, the working principle of the optical communication module capable of being quickly removed is as follows: when the optical communication module body 10 is inserted into the digital device, the short plate side of the L-shaped plate 53 is in contact with the edge of the port of the digital device, so that the L-shaped plate 53 slides in the first sliding groove 12, and then the second contact spring 54 is extruded, at this time, the positioning head 56 is inserted into the docking hole 5801 to the end, and the spring tongue 57 at the bottom of the positioning head 56 is popped out from the pin hole 5802 to form a limit, that is, the optical communication module body 10 is also installed at this time, when it is needed to be pulled out, the convex part 42 on the pull ring 40 extrudes the front side of the sliding block 20, at this time, the sliding block 20 moves to the rear side of the insertion slot 11, the push block 23 extrudes the bottom end of the plug 5701 upward, and the inclined surface of the push block 23 moves the plug 5701 upward, after the plug 5701 returns to the docking hole 5801, the second contact spring 54 is in contact with the L-shaped plate 53, and the L-shaped plate 53 is in contact with the optical communication module body 10, and the L-shaped plate 53 is in contact with the optical communication module body 10.

[0039] The above describes the utility model with specific embodiments, but it should be understood that the specific description here should not be understood as limiting the essence and scope of the utility model, and various modifications of the above embodiments made by ordinary skilled persons in the art after reading the specification are within the scope of the utility model.

Claims

1. A removable optical communication module, characterized in that, Including optical communication module body (10), dial slider (20), buckle plate (30), pull ring (40) and auxiliary pop-up mechanism (50), the front side of the optical communication module body (10) is provided with a slot (11) near the bottom side, the dial slider (20) is movably arranged in the slot (11), and the dial slider (20) and the optical communication module body (10) are provided with a first resisting spring (24), the first resisting spring (24) is in contact with the dial slider (20) to the outside of the slot (11), the buckle plate (30) is detachably arranged on the bottom side of the optical communication module body (10) near the dial slider (20), the front side of the optical communication module body (10) is provided with a hinge part (13) near the bottom side, the pull ring (40) is hinged on the hinge part (13), the pull ring (40) rotates along the hinge part (13), that is, the front side of the dial slider (20) is subjected to extrusion force, the two sides of the optical communication module body (10) are symmetrically provided with a first sliding groove (12), and the auxiliary pop-up mechanism (50) has two, which are symmetrically arranged at the two first sliding grooves (12).

2. The optical communication module of claim 1, wherein, The top of the slot (11) is provided with a first guide groove (14), the first guide groove (14) is provided with a first stop block (15) at the rear side end, the top of the dial slider (20) is provided with a second guide groove (21), the second guide groove (21) is provided with a third stop block (22) at the front end, after the dial slider (20) is inserted into the slot (11), the first guide groove (14) and the second guide groove (21) form a cylindrical cavity, and the first resisting spring (24) is arranged in the cavity, and the two ends thereof are respectively in contact with the first stop block (15) and the third stop block (22).

3. The optical communication module that can be quickly removed according to claim 2, characterized in that, The rear side of the dial slider (20) is provided with a rearward extending supporting leg near the two ends, respectively, the top of the supporting leg is provided with a dial block (23), the rear side of the dial block (23) is an inclined surface, and the top wall of the slot (11) is provided with a second sliding groove (17) along the forward and backward movement track of the dial block (23).

4. The optical communication module of claim 2, wherein the module is configured to be removed from the optical communication module by a user in less than 5 seconds. The pull ring (40) comprises a hinge shaft (41) arranged on one side thereof, the middle part of the hinge shaft (41) is provided with a protruding part (42), the front side of the dial slider (20) is provided with a downward extending protruding plate near the bottom side, the hinge shaft (41) is hinged on the hinge part (13), and when the pull ring (40) rotates, the protruding part (42) is in contact with the front side of the dial slider (20).

5. The optical communication module that can be quickly removed according to claim 3, characterized in that, The auxiliary pop-up mechanism (50) comprises two connecting blocks (51) arranged on the inner side of the optical communication module body (10) near the two ends of the first sliding groove (12), a guide rod (52) is arranged between the two connecting blocks (51), and a docking bin (58) is arranged on the inner side of the optical communication module body (10) near the front side bottom of the guide rod (52).

6. The optical communication module of claim 5, wherein the module is configured to be removed from the optical communication module by pulling the module in a direction substantially parallel to the longitudinal axis of the module. The auxiliary ejection mechanism (50) further comprises an L-shaped plate (53), the left side of the L-shaped plate (53) is provided with a connecting plate (5301), the left side of the connecting plate (5301) is provided with a plurality of hinged blocks (5302), the L-shaped plate (53) is slidingly arranged on the side wall of the optical communication module body (10), and the connecting plate (5301) is slidingly arranged in the first sliding groove (12), a plurality of the hinged blocks (5302) are slidingly arranged on the guide rod (52), and the front side of the guide rod (52) is provided with a second abutting spring (54), both ends of the second abutting spring (54) are arranged between the hinged blocks (5302) and the connecting plate (5301) close to the front side.

7. The optical communication module of claim 6, wherein the module is configured to be removed from the optical communication module by pulling the module in a direction substantially parallel to the longitudinal axis of the module. The left side of the L-shaped plate (53) is provided with a positioning rod (55) close to the bottom side, one side of the positioning rod (55) is connected to the bottom of any two hinged blocks (5302), and the front end of the positioning rod (55) is provided with a positioning head (56), and the bottom of the positioning head (56) is provided with a spring tongue (57).

8. The optical communication module of claim 7, wherein the module is configured to be removed from the optical communication module by pulling the module in a direction substantially parallel to the longitudinal axis of the module. The bottom of the positioning head (56) is provided with an inner recess (5601), the bottom edge of the inner recess (5601) is provided with a first limiting flange (5602), the spring tongue (57) comprises a bolt (5701), the top of the bolt (5701) is provided with a movable hole (5703), and the top outer side edge thereof is provided with a second limiting flange (5702), the bolt (5701) is arranged in the inner recess (5601), the movable hole (5703) is provided with a third abutting spring (5704), and the first limiting flange (5602) and the second limiting flange (5702) abut each other under the elastic force of the third abutting spring (5704).

9. The optical communication module of claim 8, wherein the module is configured to be removed from the optical communication module by pulling the module in a direction substantially parallel to the longitudinal axis of the module. The rear side of the docking bin (58) is provided with a docking hole (5801), and the inner side wall bottom side of the docking hole (5801) is provided with a pin hole (5802), the positioning head (56) is inserted into the docking hole (5801) and abuts against the end of the docking hole (5801), and at this time the spring tongue (57) is ejected from the pin hole (5802).

10. The optical communication module of claim 9, wherein the module is configured to be removed from the optical communication module by pulling the module in a direction substantially parallel to the longitudinal axis of the module. The push block (23) is located below the front side of the pin hole (5802), and when the sliding block (20) moves backward, the inclined surface of the push block (23) abuts against the bottom of the bolt (5701) and exerts pressure thereon.

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