Server boosting structure

Abstract

The utility model relates to a servo boosting structure, which comprises a long fixed seat, one end of the long fixed seat is provided with a fixed part, and the fixed part is connected with a movable bracket of a servo; the long rotating piece is pivoted with the long fixed seat through a first rod, one end of the long rotating piece is provided with a braking part and at least one guide rail, and the other end of the long rotating piece is provided with a push-pull part; the unlocking piece is connected with the at least one guide rail in a relatively moving manner, and one end of the unlocking piece is provided with a clamping part for clamping the braking part; and one end of a boosting piece is pivoted with the long fixed seat through a first rod, and the other end of the boosting piece is connected with a first elastic piece and is pivoted with the long fixed seat through a second rod, so that the thrust is saved, and the operation is convenient.

Description

Technical Field

[0001] This utility model relates to a server booster structure, and more particularly to a server movable bracket that can effectively save the inward thrust of electronic devices and make operation more convenient. Background Technology

[0002] Servers provide a variety of cloud services required by internet users, and their applications cover diverse fields such as gaming, language processing, finance, biomedicine, search engines, e-commerce, and social media. To continuously improve service quality and internal management, operators often house multiple server hosts within a single server enclosure, making each host increasingly heavy. To facilitate easy movement and removal of server hosts during maintenance, server enclosures are typically designed to be sliding and equipped with handles. These handles allow operators to move the server host within the enclosure until it is fully pushed into the bottom of the enclosure. When the server's connectors press against the chip slots on the enclosure, the server is secured inside.

[0003] As shown in patent application CN115268580A, entitled "Handle Mechanism and Housing Component Including the Same," the handle mechanism is adapted to be mounted on a sliding plate and to allow the sliding plate to slide into a housing. The handle mechanism includes a handle and a latching protrusion. The handle is adapted to be pivotally disposed on the sliding plate and has an engaged position and an open position. The latching protrusion is slidably disposed on the handle and adapted to abut against the housing to allow the sliding plate to slide into the housing. The latching protrusion has a latching surface, and the latching surface has an end edge relatively away from a rotation axis of the handle. When the handle rotates from the open position to the engaged position, the distance from the end edge of the latching surface of the latching protrusion to the rotation axis of the handle decreases. In this design, the rotation axis is positioned closer to the push-abutment, increasing the ratio of the distance from the first latch to the rotation axis to the straight-line distance from the push-abutment's push surface to the rotation axis to over 10. When the handle is in the open position, the latching surface of the subsequent latching protrusion abuts against the abutment surface, and the distance between the latching protrusion and the rotation axis in the sliding direction of the latching protrusion increases. This causes the handle mechanism to drive the load, further increasing the sliding stroke into the housing to over 10 millimeters. This effectively improves the ease of assembly of the server host housing when it is pulled out or pushed in, and makes the operation of the carrier plate sliding out of the housing easier. However, it still cannot overcome the resistance generated when the carrier plate is fully pushed into the housing due to the connection of the server host's connector to the chip slot on the server host housing. Utility Model Content

[0004] In view of this, in order to provide a structure that is different from the existing technology and to improve the above-mentioned shortcomings, the inventor has accumulated many years of experience and continuous research and development, resulting in this utility model.

[0005] One objective of this utility model is to provide a server booster structure that solves the problems of complex overall structure of the handle mechanism in the existing CN115268580A patent, and the difficulty in operation due to resistance when the support plate is fully pushed into the housing. To achieve the above objective, the server booster structure of this utility model includes an elongated fixed base, an elongated rotating member, an unlocking member, and a booster member. The elongated fixed base has a fixed portion at one long end for connecting a movable bracket of a server; the elongated rotating member is pivotally connected to the elongated fixed base via a first rod, and one end of the elongated rotating member has a braking portion and at least one guide rail arranged in the long direction, while the other end of the elongated rotating member has a push-pull portion; the unlocking member is relatively movable and connected to at least one guide rail, and one end of the unlocking member has a locking portion for locking the braking portion; one end of the booster member is pivotally connected to the elongated fixed base via the first rod, and the other end of the booster member is connected to a first elastic member and pivotally connected to the elongated fixed base via a second rod.

[0006] In practice, the elongated fixing base has a pressing part on its short side for pressing the locking part of the unlocking member; one end of the pressing part has a stop part and a first lug and a second lug that are parallel to each other, and there is a first space between the first lug and the second lug for accommodating and pivotally connecting the braking part; the other end of the elongated fixing base has a first pivot hole for pivotally connecting the other end of the booster member.

[0007] In practice, one end of the elongated rotating component has a limiting part for connecting a fixed bracket to the servo.

[0008] In practice, the elongated rotating component has a braking component and an elongated handle. One end of the braking component has a braking part and a limiting part. The braking part passes through the first rod to pivotally connect to the elongated fixed seat. The elongated handle has at least one guide rail in its longitudinal direction, and one end of the elongated handle is connected to the other end of the braking component.

[0009] In practice, the unlocking component has a connecting rod and a locking component, and the connecting rod is connected to at least one guide rail for relative movement; the other end of the braking component passes through a third rod to pivotally connect to the locking component, one end of the locking component has a locking part, and the other end of the locking component is pivotally connected to one end of the connecting rod.

[0010] In practice, the other end of the actuator has a first convex plate and a second convex plate that are parallel to each other, and there is a second space between the first convex plate and the second convex plate for accommodating and pivotally connecting the latching member; the latching member has a first convex piece and a second convex piece that are parallel to each other, and there is a third space between the first convex piece and the second convex piece for accommodating a second elastic member; the third rod passes through the first convex plate, the first convex piece, the second elastic member, the second convex piece and the second convex plate in sequence.

[0011] In practice, the connecting rod has a first long groove, the elongated handle has a second long groove, a first bolt passes through the first long groove to connect the elongated handle for relative movement of the connecting rod, a second bolt passes through the second long groove to connect the elongated handle for relative movement of the connecting rod, and the two ends of a third elastic member are respectively connected to the first bolt and the second bolt.

[0012] In practice, the linkage has a first link and a second link, the first link being connected to at least one guide rail for relative movement; one end of the second link is pivotally connected to one end of the first link, and the other end of the second link is pivotally connected to the other end of the locking member.

[0013] In implementation, the first link has a first long plate and a second long plate that are parallel to each other, and the surface of the second long plate has a first long groove; the second link has a first long plate and a second long plate that are parallel to each other, and one end of the first long plate and one end of the second long plate are coaxially pivotally connected to one end of the first long plate and one end of the second long plate.

[0014] In practice, the booster has at least one first rotating plate, at least one second rotating plate, and at least one booster rod. The first rod is connected to the at least one first rotating plate and the second rod is connected to the at least one second rotating plate. The two ends of the at least one booster rod are respectively connected to the at least one first rotating plate and the at least one second rotating plate.

[0015] During implementation, the booster also has a positioning plate, a second rod that rotates synchronously with the positioning plate, a first positioning part on the periphery of the positioning plate for positioning one end of the first elastic member; and a second positioning part on the other end of the elongated fixed base for positioning the other end of the first elastic member.

[0016] The beneficial effects of this utility model are as follows: By pivoting an elongated rotating component, a pusher, and an unlocking component onto an elongated fixed base in a relatively movable manner, and by engaging the locking part of the unlocking component with the locking part of the braking part of the braking component, a movable bracket can be pulled outward in the locked state, while a first elastic component is pre-compressed. After unlocking, the first elastic component provides assistance for pushing the movable bracket, pushing the movable bracket inward to a fixed position. This not only simplifies the structure but also effectively saves thrust, making operation more convenient. Attached Figure Description

[0017] Figure 1 This is a three-dimensional appearance diagram of a preferred embodiment of the present invention.

[0018] Figure 2 This is an exploded view of some components of a preferred embodiment of the present invention.

[0019] Figure 3 This is an exploded view of the components of a preferred embodiment of the present invention.

[0020] Figure 4 This is a top view of the preferred embodiment of the present invention in the locked state.

[0021] Figure 5 This is a schematic diagram of the usage state during unlocking, representing a preferred embodiment of the present invention.

[0022] Figure 6 This is a top view of the preferred embodiment of the present invention when the movable bracket is fully pushed into the fixed bracket.

[0023] Figure 7 This is a three-dimensional view of the preferred embodiment of the present invention when the movable bracket is fully pushed into the fixed bracket.

[0024] Explanation of reference numerals in the attached figures:

[0025] 1: Server booster structure

[0026] 2: Long fixing base

[0027] 21: Fixing part

[0028] 22: Step section

[0029] 23: Pressing part

[0030] 24: Stop section

[0031] 25: First protruding ear

[0032] 26: Second protruding ear

[0033] 27: First Space

[0034] 28: Sector

[0035] 281: First pivot hole

[0036] 282: Second Positioning Unit

[0037] 3: Long rotating component

[0038] 31: Braking components

[0039] 311: Braking unit

[0040] 312: Shaft hole

[0041] 313: First shot

[0042] 314: Limiting part

[0043] 315: First convex plate

[0044] 316: Second convex plate

[0045] 317: The Second Space

[0046] 32: Long grip

[0047] 321: Straight section

[0048] 322: Bending section

[0049] 323: Push-pull section

[0050] 324: First guide groove

[0051] 325: Second guide groove

[0052] 326: Second Longest Slot

[0053] 4: Unlocking parts

[0054] 41: Connecting rod

[0055] 42: Card connector

[0056] 421: Connector

[0057] 422: First convex plate

[0058] 423: Second convex plate

[0059] 424: The Third Space

[0060] 425: Second elastic element

[0061] 426: Third shot

[0062] 43: First Link

[0063] 431: First Longest Board

[0064] 432: Second Longest Board

[0065] 433: First Long Slot

[0066] 434: First Pivot

[0067] 435: Second Pivot

[0068] 44: Second Link

[0069] 441: First Feature Film

[0070] 442: The Second Feature Film

[0071] 45: First bolt

[0072] 46: Second bolt

[0073] 47: Third elastic element

[0074] 5: Booster

[0075] 51,51': First rotating plate

[0076] 511, 511': First positioning hole

[0077] 52,52': Second rotating plate

[0078] 521, 521': Second positioning hole

[0079] 53: Positioning plate

[0080] 531: First Positioning Unit

[0081] 532: First elastic element

[0082] 533: Sleeve

[0083] 534: Second shot

[0084] 54, 54': Booster

[0085] 541: First upper convex post

[0086] 541': Second upper convex post

[0087] 542: First lower protruding post

[0088] 542': Second lower convex post

[0089] 91: Movable support

[0090] 92: Fixed bracket

[0091] 93: Positioning Department. Detailed Implementation

[0092] This utility model relates to a server booster structure, comprising an elongated fixed base with a fixing part at one end, the fixing part being connected to a movable bracket of a server; an elongated rotating member pivotally connected to the elongated fixed base via a first rod, the elongated rotating member having a braking part and at least one guide rail, a limiting part at one end of the elongated rotating member being connected to a fixed bracket of the server, and a push-pull part at the other end of the elongated rotating member; an unlocking member connected to at least one guide rail in a relatively movable manner, the unlocking member having a locking part at one end for locking the braking part; and a booster member with one end pivotally connected to the elongated fixed base via the first rod, the other end of the booster member being connected to a first elastic member and pivotally connected to the elongated fixed base via a second rod. In this way, the locking part can engage with the braking part to form a locked state, while the first elastic member is pre-compressed with torque. After the locking part and the braking part separate to form an unlocked state, the elastic force of the first elastic member can provide assistance when pushing the movable bracket, thereby pushing the movable bracket inward to a fixed position with less effort.

[0093] Please see Figures 1-4 As shown, this is a preferred embodiment of the server booster structure 1 of this utility model, mainly including an elongated fixed base 2, an elongated rotating component 3, an unlocking component 4, and a booster component 5. The elongated fixed base 2 is a long strip plate, and one end of the elongated fixed base 2 has a flat plate extending in the longitudinal direction. This flat plate serves as a fixing part 21, which is locked to one side of a movable support 91 of a server. In implementation, the movable support 91 is a housing, and at least one server host is disposed inside the housing. One end of the fixing part 21 has a stepped part 22, and one side of the stepped part 22 serves as a pressing part 23. In practice, the pressing part 23 is located on one side of the elongated fixing base 2 in the short direction. One end face of the stepped part 22 serves as a stop part 24. The stop part 24 has a first lug 25 and a second lug 26 that are parallel to each other. There is a first space 27 between the first lug 25 and the second lug 26. The other end of the elongated fixing base 2 in the long direction has a plate 28. The plate 28 has a first pivot hole 281 and a groove on its surface. The groove serves as a second positioning part 282.

[0094] The elongated rotating component 3 has a brake component 31 and an elongated handle 32. The brake component 31 is an elongated block, with a cylinder and an arc-shaped protrusion extending sequentially along its length at one end. The cylinder serves as the brake part 311, which has a shaft hole 312 extending vertically for positioning. The brake part 311 is accommodated within the first space 27 of the elongated fixed base 2. A first rod 313 coaxially passes through a first lug 25, a shaft hole 312, and a second lug 26, so that the first rod 313 rotates synchronously with the brake part 311, and the brake component 31 rotates relative to the elongated fixed base 2 about the brake part 311 as its axis. The arc-shaped protrusion serves as a limiting part 314 for connecting a fixed bracket 92 of the server. In implementation, the fixed bracket 92 is a main unit housing, and the movable bracket 91 is slidably accommodated within the main unit housing. One side of the main unit housing has a positioning part 93 for positioning and limiting the part 314. The other end of the actuator 31 in the long direction has a first convex plate 315 and a second convex plate 316 that are parallel to each other, and there is a second space 317 between the first convex plate 315 and the second convex plate 316, with one side of the second space 317 being open.

[0095] The elongated grip 32 is an elongated, bent plate, including a straight portion 321, a curved portion 322, and a push-pull portion 323 extending in sequence. One end of the elongated grip 32 is locked to the bottom surface of the other end of the brake member 31, so that the brake member 31 and the elongated grip 32 are arranged in a straight line. The elongated grip 32 has at least one guide rail in its longitudinal direction. In practice, the at least one guide rail includes a first guide groove 324 and a second guide groove 325. The plate surface of the straight portion 321 has the first guide groove 324 and the second long groove 326 arranged at intervals in the longitudinal direction. The push-pull portion 323 is a straight plate, and the plate surface of the push-pull portion 323 has an elongated second guide groove 325.

[0096] The unlocking component 4 has a connecting rod 41 and a snap-fit ​​component 42. The connecting rod 41 has a first connecting rod 43 and a second connecting rod 44. The first connecting rod 43 is an L-shaped plate assembly and has a first long plate 431 and a second long plate 432 that are parallel to each other. The surface of the second long plate 432 has a first long groove 433. The second connecting rod 44 has a first long piece 441 and a second long piece 442 that are parallel to each other. One end of the first long plate 431 and one end of the second long plate 432 are pivotally connected to one end of the first long piece 441 and one end of the second long piece 442 via a first pivot 434. The first pivot 434 passes through the first guide groove 324 to connect the elongated handle 32. The other ends of the first long plate 431 and the other ends of the second long plate 432 are connected via a second pivot 435. The second pivot 435 passes through the second guide groove 325 to connect the elongated handle 32, so that the first connecting rod 43 and the elongated handle 32 can move relative to each other on a fixed track. In addition, a first bolt 45 passes through the first long slot 433 to lock the straight portion 321 of the long grip 32, and a second bolt 46 passes through the second long slot 326 of the straight portion 321 to lock the second long plate 432, so that the connecting rod 41 is connected to the long grip 32 in a relatively movable manner; the two ends of a tension spring are respectively connected to the first bolt 45 and the second bolt 46, so that the connecting rod 41 and the long grip 32 can move stably together. In practice, the tension spring serves as the third elastic element 47.

[0097] The latching member 42 is an L-shaped block, and the latching member 42 is accommodated in the second space 317 of the actuating member 31. One end of the snap-fit ​​member 42 has an arc-shaped hook block, which serves as the snap-fit ​​part 421. The other end of the snap-fit ​​member 42 is coaxially pivotally connected to the other end of the first long piece 441 and the other end of the second long piece 442. The bent part of the snap-fit ​​member 42 has a first protrusion 422 and a second protrusion 423 that are parallel to each other. There is a third space 424 between the first protrusion 422 and the second protrusion 423. The third space 424 contains a torsion spring. One end of the torsion spring is positioned on the second protrusion 423, and the other end of the torsion spring is positioned in a positioning groove 318 on one side of the second space 317. In practice, the torsion spring serves as the second elastic member 425. A third rod 426 passes sequentially through the first protrusion 315, the first protrusion 422, the second elastic member 425, the second protrusion 423, and the second protrusion 316, so that the other end of the brake member 31 is pivotally connected to the snap-fit ​​member 42.

[0098] The booster 5 has two first rotating plates 51, 51', two second rotating plates 52, 52', a positioning plate 53, and two booster rods 54, 54'. One end of the booster 5 has two first rotating plates 51, 51' spaced apart vertically, and the periphery of each of the two first rotating plates 51, 51' is provided with two symmetrical first positioning holes 511, 511'. The top end of the first rod 313 passes through the two first rotating plates 51, 51' coaxially and is then locked with a nut to make the first rod 313 rotate synchronously with the two first rotating plates 51, 51' and to pivotally connect one end of the booster 5 to the elongated fixing seat 2. The other end of the booster 5 has two second rotating plates 52, 52' spaced apart vertically, and the periphery of each of the two second rotating plates 52, 52' is provided with two symmetrical second positioning holes 521, 521'.

[0099] A positioning plate 53 is stacked below the two second rotating plates 52, 52'. The periphery of the positioning plate 53 has a notch, which serves as the first positioning part 531. Below the positioning plate 53 is a torsion spring, which serves as the first elastic element 532. The first elastic element 532 is sleeved on a sleeve 533. One end of the first elastic element 532 is connected upwards and positioned on the first positioning part 531 of the positioning plate 53, and the other end of the first elastic element 532 is connected downwards and positioned in the second positioning part 282 of the elongated fixed base 2. A headed bolt passes from bottom to top through the first pivot hole 281, the sleeve 533, the positioning plate 53, and the two second rotating plates 52, 52', and is then locked and fixed with another nut, so that the positioning plate 53 rotates synchronously with the two second rotating plates 52, 52', and the other end of the pusher 5 is pivotally connected to the plate 28 at the other end of the elongated fixed base 2. In practice, the headed bolt serves as the second rod 534.

[0100] The two push rods 54 and 54' are two parallel elongated plates with identical shape and structure. One push rod 54 is connected to the same side of the two first rotating plates 51 and 51' and the two second rotating plates 52 and 52', while the other push rod 54' is connected to the other side of the two first rotating plates 51 and 51' and the two second rotating plates 52 and 52'. The following explanation uses one push rod 54 as an example: One end of the push rod 54 has a first upper protrusion 541 and a first lower protrusion 542 protruding in opposite directions, respectively, which are positioned within the two second positioning holes 521 of the two second rotating plates 52 and 52'. The other end of the push rod 54 has a second upper protrusion 541' and a second lower protrusion 542' protruding in opposite directions, respectively. The first rotating plates 51 and 52 are respectively positioned in the two first positioning holes 511 of the two first rotating plates 51 and 51'; one end of the other push rod 54' is connected to the two second positioning holes 521' of the two second rotating plates 52 and 52' respectively, and the other end of the other push rod 54' is connected to the two first positioning holes 511' of the two first rotating plates 51 and 51' respectively. By pulling the two push rods 54 and 54' in opposite directions, the two first rotating plates 51 and 51', the two second rotating plates 52 and 52' and the positioning plate 53 can rotate in the same direction.

[0101] Thus, when the user pulls the push-pull part 323 outward to rotate the elongated rotating part 3, on the one hand, the connecting rod 41 of the unlocking part 4 and the elongated handle 32 can move relative to each other, causing the connecting rod 41 to drive the locking part 42, thereby causing the locking part 42 to rotate, and the inner side of the locking part 421 hooks the braking part 311 of the braking part 31, while the outer side of the locking part 421 presses against the stop part 24 of the elongated fixed base 2 to form a locked state, positioning the elongated handle 32 and pulling out the movable bracket 91 of the server; on the other hand, when the elongated rotating part 3 rotates, through the synchronous rotation of the first rod 313 and the two first rotating plates 51, 51', and through the reverse pull of the two push rods 54, 54' on the two second rotating plates 52, 52' and the positioning plate 53, the first elastic member 532 can be driven to a state of torque pre-compression.

[0102] And such Figure 1 and Figures 4-7As shown, when the user pushes the push-pull part 323 inward until the limiting part 314 abuts against the groove of the positioning part 93, the second pivot 435 is pulled along the second guide groove 325, causing the connecting rod 41 and the elongated handle 32 of the unlocking member 4 to move relative to each other. This causes the connecting rod 41 to drive the locking member 42, causing the locking member 42 to rotate elastically about the third rod 426 as the axis, and causing the locking part 421 to separate from the braking part 311 to form an unlocked state. When the user continues to push the push-pull part 323 inward until the end of the locking part 421 can elastically press against the pressing part 23 on one side of the elongated fixing base 2, the user can continue to push the elongated rotating part inward. The component 3 and the movable bracket 91 are used. When the connector of the server host on the movable bracket 91 is inserted into the chip slot, the elongated rotating component 3 and the groove of the positioning part 93 form a lever principle to push the movable bracket 91 completely into the fixed bracket 92. At the same time, the limiting part 314 at one end of the elongated rotating component 3 is positioned in the groove of the positioning part 93 to prevent the movable bracket 91 from moving outward. In addition, when the end of the snap-fit ​​part 421 elastically presses against the pressing part 23, the pre-compression torque of the first elastic member 532 is released, which can provide assistance to push inward and push the movable bracket 91 to a fixed position to save thrust.

[0103] In summary, the main components of this utility model include an elongated fixed base, an elongated rotating component, an unlocking component, and a pushing component. The elongated rotating component and the pushing component are pivotally connected to the elongated fixed base. The unlocking component is connected to the elongated rotating component in a relatively movable manner. A locking portion of the unlocking component engages with the braking portion of a braking component of the elongated rotating component, allowing a movable bracket to be pulled outwards in the locked state and pushed inwards to a fixed position after unlocking. Its simple structure effectively reduces the number of components and makes operation more convenient. During unlocking and pushing, the pre-compression torque release of the first elastic component provides assistance for pushing inwards, pushing the movable bracket all the way in, saving the user's effort and improving work efficiency. Furthermore, a limiting portion is provided at one end of the elongated rotating component, which effectively increases the positioning effect after the movable bracket is pushed all the way in and the limiting portion is positioned within the groove of the positioning portion, preventing the movable bracket from moving outwards.

[0104] While this utility model discloses preferred embodiments to achieve the above objectives, it is not intended to limit the structural features of this utility model. Anyone skilled in the art should know that under the technical spirit of this utility model, any easily conceivable variations or modifications are possible and are all covered by the patent application scope of this utility model.

Claims

1. A server booster structure, characterized in that, include: A long fixed base, having a fixed part at one of its long ends for connecting a movable bracket of a server; An elongated rotating component is pivotally connected to an elongated fixed base via a first rod. One end of the elongated rotating component has a braking part arranged in the longitudinal direction and at least one guide rail, and the other end of the elongated rotating component has a push-pull part. An unlocking element, which is relatively movable to the at least one guide rail, has a latching portion at one end for latching the actuating portion; and A booster is provided, one end of which is pivotally connected to the elongated fixed base via the first rod, and the other end of which is connected to a first elastic member and pivotally connected to the elongated fixed base via a second rod.

2. The server booster structure as described in claim 1, characterized in that, The elongated fixing base has a pressing part on its short side for pressing the locking part of the unlocking member; one end of the pressing part has a stop part and a first lug and a second lug that are parallel to each other, and a first space is provided between the first lug and the second lug for accommodating and pivotally connecting the actuating part; the other end of the elongated fixing base has a first pivot hole for pivotally connecting the other end of the booster member.

3. The server booster structure as described in claim 1, characterized in that, One end of the elongated rotating component has a limiting part for connecting a fixed bracket to the server.

4. The server booster structure as described in claim 3, characterized in that, The elongated rotating member has a brake and an elongated handle. One end of the brake has a braking part and a limiting part. The braking part passes through the first rod to pivotally connect to the elongated fixed base. The elongated handle has at least one guide rail along its length. One end of the elongated handle is connected to the other end of the brake.

5. The server booster structure as described in claim 4, characterized in that, The unlocking component has a connecting rod and a latching component. The connecting rod is movably connected to the at least one guide rail. The other end of the braking component passes through a third rod to pivotally connect to the latching component. One end of the latching component has the latching portion, and the other end of the latching component is pivotally connected to one end of the connecting rod.

6. The server booster structure as described in claim 5, characterized in that, The other end of the actuator has a first protrusion and a second protrusion that are parallel to each other, and a second space between the first protrusion and the second protrusion is provided for accommodating and pivotally connecting the latching member; the latching member has a first protrusion and a second protrusion that are parallel to each other, and a third space between the first protrusion and the second protrusion is provided for accommodating a second elastic member; the third rod passes through the first protrusion, the first protrusion, the second elastic member, the second protrusion, and the second protrusion in sequence.

7. The server booster structure as described in claim 5, characterized in that, The connecting rod has a first long slot, the elongated handle has a second long slot, a first bolt passes through the first long slot to connect the connecting rod to the elongated handle for relative movement, a second bolt passes through the second long slot to connect the connecting rod to the elongated handle for relative movement, and the two ends of a third elastic member are respectively connected to the first bolt and the second bolt.

8. The server booster structure as described in claim 7, characterized in that, The linkage has a first link and a second link, the first link being movably connected to the at least one guide rail; one end of the second link is pivotally connected to one end of the first link, and the other end of the second link is pivotally connected to the other end of the snap-fit ​​member.

9. The server booster structure as described in claim 8, characterized in that, The first link has a first long plate and a second long plate that are parallel to each other, and the second long plate has the first long groove on its surface; the second link has a first long piece and a second long piece that are parallel to each other, and one end of the first long plate and one end of the second long plate are coaxially pivotally connected to one end of the first long piece and one end of the second long piece.

10. The server booster structure as described in claim 1, characterized in that, The booster has at least one first rotating plate, at least one second rotating plate, and at least one booster rod. The at least one first rotating plate is connected to the first rod in a synchronous rotation, and the at least one second rotating plate is connected to the second rod in a synchronous rotation. The two ends of the at least one booster rod are respectively connected to the at least one first rotating plate and the at least one second rotating plate.

11. The server booster structure as described in claim 10, characterized in that, The booster also has a positioning plate that is synchronously connected to the second rod. The periphery of the positioning plate has a first positioning part for positioning one end of the first elastic member. The other end of the elongated fixed seat has a second positioning part for positioning the other end of the first elastic member.

Images