An easy-to-swap SSD hard disk card opening fixture

Abstract

The present invention relates to the technical field of hard disk card opening, and in particular to an easy-to-plug SSD hard disk card opening fixture, comprising a card opening test frame body, on which at least one hard disk connection component is arranged, the hard disk connection component comprises a component shell, a locking structure slidably connected to the component shell, and two conductive terminal rows rotatably connected to the locking structure and symmetrically matched in front and back, the locking structure comprising a rotating connection structure rotatably connected to the lower positions on both sides of the two conductive terminal rows, a locking switch arranged on the rotating connection structure and slidably matched with the inside of the component shell, and a plugging table mounted on the locking switch and movably matched with the opening of the component shell; so that during the process of inserting and removing the SSD hard disk, its gold finger will not generate sliding friction with a first conductive pin, thereby not causing wear of the gold finger on the SSD hard disk, and only the reverse action force of the locking switch needs to be overcome during the plugging and unplugging process.

Description

Technical Field

[0001] The present invention relates to the technical field of hard disk card opening, and in particular to an easily pluggable SSD hard disk card opening jig. Background Art

[0002] After the hard disk has gone through the SMT process, it needs to undergo RDT testing, BIT testing, card activation and other operations. Hard disk card activation usually refers to the process of initializing and configuring the hard disk through specific software so that it can work normally and be recognized by the computer system.

[0003] Hard disk card opening is mostly done manually with the help of corresponding card opening jigs. It mainly connects the hard disk to a server or computer with corresponding card opening software tools to open the hard disk. The function of the card opening jig is to connect multiple hard disks at the same time, so that multiple hard disks can be opened at the same time, which will speed up the card opening efficiency. The hard disk is connected to the card opening jig mainly through the traditional SATA interface or PCIE interface to connect the hard disk. These traditional interfaces will generate greater friction during the connection process of the hard disk, which will cause certain wear and tear on the hard disk gold fingers. Employees need a certain amount of force to operate when plugging and unplugging the hard disk. After repeated batch operations, employees' hands are prone to soreness and fatigue. If the force is not controlled during the plugging and unplugging process, the hard disk may be damaged. In order to make the hard disk and the interface in the card opening process The electrical contact structure between them does not produce sliding friction. Some hard disk card opening fixtures are set to be similar to the hard disk connection structure in the computer host, mainly including an elastically rotatable wire pressing groove to connect the connection end of the hard disk, and also including a positioning structure to position the other end of the hard disk. During operation, the hard disk is tilted into the wire pressing groove, and then flipped to a horizontal position to fix the hard disk through the positioning structure. While fixing, the wire pressing groove simultaneously presses the gold finger of the hard disk down to contact with the pre-set pins on the test board, thereby achieving the purpose of connecting the hard disk; however, this operation is more troublesome, and after the hard disk is fixed, it is also necessary to operate the start switch like the painful hard disk card opening fixture, and it is not possible to synchronously start the test board at the same time as the hard disk connection is completed to perform a card opening test on the hard disk. In this regard, it is necessary to propose a new technical solution to solve the above-mentioned problems. Summary of the invention

[0004] In order to overcome the above-mentioned shortcomings, the present invention aims to provide a technical solution that can solve the above-mentioned problems.

[0005] An easy-to-plug SSD hard disk card opening fixture comprises a card opening test frame body, on which at least one hard disk connection component is arranged, the hard disk connection component comprises a component housing, a locking structure slidably connected to the component housing, and two conductive terminal rows rotatably connected to the locking structure and symmetrically matched in front and back, the locking structure comprises a rotating connection structure rotatably connected to the lower positions of both sides of the two conductive terminal rows, a locking switch arranged on the rotating connection structure and slidably matched with the inside of the component housing, and a plugging table mounted on the locking switch and movably matched with the opening of the component housing in a guided manner;

[0006] Among them, first guide holes are respectively arranged on both sides of the component housing corresponding to the conductive terminal rows, and first guide rods are respectively arranged at the upper positions on both sides of the conductive terminal rows to guide and cooperate with the first guide holes, so that the two conductive terminal rows can be opened or closed through the sliding cooperation between the first guide rods and the first guide holes. A row of first conductive pins connected to the hard disk are arranged on the opposite surfaces of the two conductive terminal rows, and the first conductive pins extend to the bottom of the conductive terminal rows. Second conductive pins distributed in a row and connected to the first conductive pins are arranged at the lower end of the component housing. The second conductive pins are elastically contacted and cooperated with the first conductive pins. The second conductive pins extend to the outside of the component housing and are electrically connected to the main body of the card opening test frame.

[0007] Preferably, the locking switch includes a buckle box body that is guided and slidably matched with the interior of the component housing, an elastic abutment structure arranged between the buckle box body and the bottom of the component housing, a transverse sliding block slidably connected to the buckle box body, and a first spring arranged inside the buckle box body for elastically abutting the transverse sliding block, a second guide rod is provided on the transverse sliding block, and an enclosing groove corresponding to the second guide rod is provided on the inner side of the component housing, the second guide rod can slide along the enclosing groove, and the enclosing groove is provided with a first commanding height and a second commanding height for limiting the upward movement of the second guide rod.

[0008] Preferably, the enclosed slide groove is also provided with a first low point for guiding the second guide rod to slide into the first commanding height and a second low point for guiding the second guide rod to slide into the second commanding height, the first guide hole has an upper inclined section and a lower vertical section, the height dimension between the second low point and the second commanding height and the height dimension between the second commanding height and the first low point are both consistent with the height dimension of the vertical section, so that the vertical section is used to transition the second guide rod to the first low point or the second low point, and the height dimension of the elastic deformation between the first conductive pin and the second conductive pin is greater than the height dimension of the vertical section.

[0009] Preferably, the buckle box body includes a shell body slidably connected to the inside of the component shell and a cover plate fixedly covered in front of the shell, a guide groove is arranged inside the shell, a transverse sliding block is slidably connected to the guide groove, connecting columns that dock with each other are arranged in the transverse sliding block and the guide groove, a first spring is sleeved on the connecting column, and the first spring abuts between the end portions of the transverse sliding block and the guide groove, and a second guide hole for the second guide rod to slide transversely is arranged on the cover plate.

[0010] Preferably, the elastic abutment structure includes a guide sleeve arranged at the bottom of the component housing, a guide column arranged at the lower end of the buckle box body and slidably docked with the guide sleeve, and a second spring sleeved on the outside of the guide column and the guide sleeve and abutting between the component housing and the buckle box body.

[0011] Preferably, two extension parts extend from the lower end of the buckle box body, the two extension parts are spaced apart from each other, an elastic abutment structure is arranged between the two extension parts, and the rotating connection structure has two symmetrical rotating shaft seats, which are respectively arranged at the lower ends of the two extension parts, and the two rotating shaft seats are respectively rotatably connected to the two conductive terminal rows.

[0012] Preferably, there is a first accommodating space between the two sides of the conductive terminal row and the inner wall of the component housing, the locking switch and the rotating connection structure are placed in the first accommodating space, and a limit portion for limiting the front and rear positions of the sliding switch is provided in the first accommodating space, so that the locking switch can slide up and down along the inside of the component housing, and there is also a second accommodating space between the conductive terminal row and the inner wall of the component housing, so that the conductive terminal row can rotate through the second accommodating space.

[0013] Preferably, the docking table includes a panel portion and connecting rods formed on both sides of the panel portion. The panel portion is mounted on the lock switch through the connecting rods. An insertion port for docking with the hard disk is opened on the panel portion, and a support block for supporting the hard disk is formed on the insertion port. The insertion port corresponds to the position directly above between the two conductive terminal rows.

[0014] Preferably, the conductive terminal row has a terminal shell and a terminal fixing block embedded in the terminal shell, the lower end of the terminal shell is an open structure, the terminal fixing block is embedded in the shell along the bottom of the terminal shell, and a window structure is provided on opposite sides of the two terminal shells. The first conductive pin is restricted between the terminal shell and the terminal fixing block, and the first conductive pin is exposed to the outside of the terminal shell along the window structure to correspond to the hard disk; both sides of the terminal shell have a rotating shaft docked with the rotating connection structure.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] By utilizing the operation mode of inserting and pressing down the SSD hard disk, the two conductive terminal rows on the hard disk connection component can be driven to close and press the SSD hard disk immediately after the SSD hard disk is inserted, so as to complete the connection between the SSD hard disk and the SSD hard disk card opening fixture. After the SSD hard disk card opening is completed, the lock switch is triggered to pop up by pressing the SSD hard disk again, so that the lock structure and the conductive terminal row complete the process of rising. The two conductive terminal rows are synchronously opened under the guidance of the first guide hole and the first guide rod, and the operator can easily take out the SSD hard disk. Through this structural setting, the gold finger of the SSD hard disk will not generate sliding friction with the first conductive pin during the insertion and removal process, thereby not causing wear of the gold finger on the SSD hard disk, and in the process of plugging and unplugging, only the reverse force of the lock switch needs to be overcome, and the force is small, and the operator does not need to use too much force, thereby effectively reducing the operator's work fatigue and improving the card opening efficiency to a certain extent.

[0017] Additional aspects and advantages of the present invention will be given in part in the following description and in part will be obvious from the following description, or will be learned through practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0019] Figure 1 It is a schematic diagram of the structure of the present invention;

[0020] Figure 2 It is a schematic diagram of the structure of the hard disk connection assembly in the present invention in a pressed state;

[0021] Figure 3 It is a schematic diagram of the structure of the hard disk connection component in the present invention when it is in a reset state;

[0022] Figure 4 It is a structural schematic diagram of a cross section of a hard disk connection component along the inner wall of the component housing in the present invention;

[0023] Figure 5 It is a structural schematic diagram of a cross section of a hard disk connection assembly along a lock switch in the present invention;

[0024] Figure 6 It is a structural schematic diagram of the disassembly of the lock switch in the present invention;

[0025] Figure 7It is a structural schematic diagram of the plug-in table in the present invention;

[0026] Figure 8 It is a schematic diagram of the split structure of the conductive terminal row in the present invention.

[0027] The reference numerals and names in the figures are as follows:

[0028] The card opening test frame body 10, the hard disk connection component 20, the component housing 30, the first guide hole 31, the inclined section 311, the vertical section 312, the second conductive pin 32, the enclosed slide groove 33, the first high point 331, the second high point 332, the first low point 333, the second low point 334, the limit portion 34, the lock structure 40, the rotation connection structure 41, the lock switch 42, the buckle box body 421, the elastic abutment structure 422, the guide sleeve 4221, the guide column 4 222, second spring 4223, lateral sliding block 423, first spring 424, second guide rod 425, guide slot 426, connecting column 427, extension portion 428, second guide hole 429, plug-in table 43, panel portion 431, connecting rod 432, insertion port 433, support block 434, conductive terminal row 50, first guide rod 51, first conductive pin 52, terminal housing 53, terminal fixing block 54, window structure 55, rotating shaft 56. DETAILED DESCRIPTION

[0029] The technical solutions in the embodiments of the present invention are described clearly and completely below. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0030] See also Figure 1-8 In an embodiment of the present invention, an easy-to-swap SSD hard disk card opening fixture includes a card opening test frame body 10, on which at least one hard disk connection component 20 is arranged, the hard disk connection component 20 has a component housing 30, a lock frame 40 slidably connected to the component housing 30, and two conductive terminal rows 50 rotatably connected to the lock frame 40 and symmetrically matched in front and back, the lock frame 40 has a rotating connection structure 41 that is rotatably connected to the lower positions on both sides of the two conductive terminal rows 50, a lock switch 42 arranged on the rotating connection structure 41 and slidably matched with the inside of the component housing 30, and a plug-in table 43 mounted on the lock switch 42 and matched with the opening of the component housing 30 in a guided and movable manner;

[0031] Among them, first guide holes 31 are respectively arranged on both sides of the component housing 30 corresponding to the conductive terminal rows 50, and first guide rods 51 that guide and cooperate with the first guide holes 31 are respectively arranged at the upper positions on both sides of the conductive terminal rows 50, so that the two conductive terminal rows 50 can be opened or closed through the sliding cooperation between the first guide rods 51 and the first guide holes 31, and a row of first conductive pins 52 that are connected to the hard disk are arranged on the opposite surfaces of the two conductive terminal rows 50, and the first conductive pins 52 extend to the bottom of the conductive terminal rows 50, and second conductive pins 32 that are distributed in a row and connected to the first conductive pins 52 are arranged at the lower end of the component housing 30, and the second conductive pins 32 are elastically contacted and cooperated with the first conductive pins 52, and the second conductive pins 32 extend to the outside of the component housing 30 and are electrically connected to the card opening test frame body 10.

[0032] In the above technical scheme, an SSD hard disk card opening fixture is provided to connect the SSD hard disk to a computer or server with a card opening software tool, and a card opening test frame body 10 is provided to connect the hard disk by at least one hard disk connection component 20 provided on the card opening test frame body 10. The card opening test frame body 10 mainly comprises a card opening test board, a PCIE interface provided on the card opening test board and connected to a computer or server, and a circuit part provided on the card opening test board. The hard disk connection component 20 is connected to the corresponding PCIE interface through the circuit part, thereby connecting to the computer or server, so as to open the card of the SSD hard disk connected to the hard disk connection component 20 through the computer or server.

[0033] The technical solution improves the hard disk connection component 20 by setting the hard disk connection component 20 to have three parts: a component shell 30, a locking structure 40 and a conductive terminal row 50. The component shell 30 plays a fixing role and can fix the hard disk connection component 20 at a specified position on the card opening test board. The locking structure 40 is slidably connected to the component shell 30, specifically, it can perform a telescopic action along the opening of the component shell 30, or slide back and forth within the opening of the component shell 30. Two conductive terminal rows 50 are provided, and the two conductive terminal rows 50 are provided as a structure that cooperates symmetrically with each other, specifically, by rotating the two conductive terminal rows 50 to be connected to the locking structure 40, and by setting the locking structure 40 to have a rotating shaft connection structure, The conductive terminal row 50 is restricted on the locking frame 40 and can rotate along the locking frame 40 by an axial connection mechanism. On this basis, a first guide rod 51 is provided on both sides of each conductive terminal row 50 and at the upper part of its rotation connection position. The first guide rod 51 can be located at the upper part of both sides of the conductive terminal row 50, and the rotation connection position of the conductive terminal row 50 is located at the lower part. On this basis, a first guide hole 31 connected to the first guide rod 51 is opened inside the component housing 30, and the rotation of the conductive terminal row 50 is guided by the first guide rod 51 sliding along the first guide hole 31. The above mentioned two conductive terminal rows 50 are symmetrically matched with each other, that is, by providing the first guide hole 31, through The first guide rod 51 is guided to enable the two conductive terminal rows 50 to be opened or closed, and the SSD hard disk is placed between the two conductive terminal rows 50. When the conductive terminal rows 50 are closed, the SSD hard disk can be clamped. Therefore, first conductive pins 52 corresponding to the SSD hard disk are arranged on the opposite surfaces of the two conductive terminal rows 50, and the first conductive pins 52 are used to dock with the SSD hard disk to realize the electrical connection of the SSD hard disk to the conductive terminal row 50. The docking of the SSD hard disk between the two conductive terminal rows 50 is realized by the plug-in table 43, that is, the SSD hard disk is first inserted into the space between the two conductive terminal rows 50 along the plug-in table 43, and then the two conductive terminal rows 50 are guided to close. , the first conductive pins 52 on the conductive terminal row 50 can be made to correspond one to one with the gold fingers on the SSD hard disk, so as to achieve the connection operation of the SSD hard disk. Based on how to control the SSD hard disk to be inserted along the plug-in table 43, the two conductive terminal rows 50 can be automatically driven to clamp the SSD hard disk. On this basis, the present technical solution further provides a lock switch 42, that is, the combined structure of the lock structure 40 and the conductive terminal row 50 can be controlled by the lock switch 42 provided on the lock structure 40. The control is achieved by a traditional structural method of pressing once to drop to a certain height and then pressing again to reset. That is, in a normal state, the lock switch 42 is popped up to keep the two conductive terminal rows 50 in an open state. When the SSD hard disk is inserted,The gold finger of the SSD hard disk corresponds to between the two conductive terminal rows 50. After insertion, the locking structure 40 and the conductive terminal row 50 are forced to drop synchronously. At this time, the two conductive terminal rows 50 will be closed through the guidance of the first guide hole 31 and the first guide rod 51, so that the first conductive pins 52 on the two conductive terminal rows 50 are connected with the gold fingers one by one, completing the electrical connection between the SSD hard disk and the conductive terminal row 50. During the rotation of the conductive terminal row 50, the first conductive pin 52 will press against the second conductive pin 32 to produce a certain elastic deformation, so that the first conductive pin 52 and the second conductive pin 32 are in close contact, and the second conductive pin 32 and the card opening test frame body 10 will connect the SSD hard disk with the card opening test frame body 10.

[0034] Therefore, through the above technical solution, by utilizing the operation mode of inserting and pressing down the SSD hard disk, the two conductive terminal rows 50 on the hard disk connection component 20 can be driven to close and press the SSD hard disk immediately after the SSD hard disk is inserted, so as to complete the connection between the SSD hard disk and the SSD hard disk card opening fixture. After the SSD hard disk card opening is completed, the lock switch 42 is triggered to pop up by pressing the SSD hard disk again, so that the lock structure 40 and the conductive terminal row 50 complete the process of rising. The two conductive terminal rows 50 are synchronously opened by the guidance of the first guide hole 31 and the first guide rod 51, and the operator can easily remove the SSD hard disk. Through this structural setting, the gold finger of the SSD hard disk will not generate sliding friction with the first conductive pin 52 during the insertion and removal process, thereby not causing the wear of the gold finger on the SSD hard disk, and in the process of plugging and unplugging, only the reverse force of the lock switch 42 needs to be overcome, and the force is small, and the operator does not need to use too much force, thereby effectively reducing the operator's work fatigue and improving the card opening efficiency to a certain extent.

[0035] See also Figure 4-6In this embodiment, the principle of the lock switch 42 is similar to that of the traditional structure. It is combined with the component housing 30. Specifically, the lock switch 42 includes a buckle box body 421 that is guided and slidably matched with the inside of the component housing 30, an elastic abutment structure 422 arranged between the buckle box body 421 and the bottom of the component housing 30, a transverse sliding block 423 slidably connected to the buckle box body 421, and a first spring 424 arranged inside the buckle box body 421 for elastically abutting the transverse sliding block 423. The transverse sliding block 423 has a second guide rod 425, and the inner side of the component housing 30 is provided with a spring corresponding to the second guide rod 425. The second guide rod 425 is capable of sliding along the enclosed slide groove 33, and the enclosed slide groove 33 is provided with a first commanding height 331 and a second commanding height 332 for limiting the upward movement of the second guide rod 425; the enclosed slide groove 33 is also provided with a first low point 333 for guiding the second guide rod 425 to slide into the first commanding height 331 and a second low point 334 for guiding the second guide rod 425 to slide into the second commanding height 332, the first guide hole 31 has an upper inclined section 311 and a lower vertical section 312, the height dimension between the second low point 334 and the second commanding height 332 and the height dimension between the second commanding height 332 and the second commanding height 334 are The height dimension between the first and second low points 333 is consistent with the height dimension of the vertical section 312, so that the vertical section 312 is used to transition the second guide rod 425 to move to the first low point 333 or the second low point 334, and the height dimension of the elastic deformation between the first conductive pin 52 and the second conductive pin 32 is greater than the height dimension of the vertical section 312; the second guide rod 425 can pass through the first high point 331, the second high point 332, the first low point 333 and the second low point 334 by sliding horizontally, and the way of passing is achieved by pressing and lifting. This setting is consistent with the first guide rod 51 and the first guide hole 3 1, and the first guide hole 31 is provided with a vertical section 312. Since it is necessary to press down a certain distance from the first commanding height 331 to the second commanding height 332 or from the second commanding height 332 to the first commanding height 331, the vertical section 312 is provided to ensure that the two conductive terminal rows 50 are firmly closed, and the height dimension of the vertical section 312 must be limited to the height dimension of the elastic deformation between the first conductive pin 52 and the second conductive pin 32, so as to ensure that when the second guide rod 425 moves to the second commanding height 332, the first conductive pin 52 and the second conductive pin 32 can also be closely matched;The buckle box body 421 includes a housing (not shown) slidably connected to the inside of the component housing 30 and a cover plate (not shown) fixedly covered in front of the housing. A guide slot 426 is provided inside the housing. The transverse sliding block 423 is slidably connected to the guide slot 426. Connecting columns 427 that are mutually docked and matched are provided in the transverse sliding block 423 and the guide slot 426. The first spring 424 is sleeved on the connecting column 427, and the first spring 424 abuts between the ends of the transverse sliding block 423 and the guide slot 426. The cover plate is provided with a second guide hole 429 for the second guide rod 425 to slide transversely, so that the whole is easy to produce and assemble. ;

[0036] See also Figure 6 In this embodiment, the elastic abutment structure 422 includes a guide sleeve 4221 arranged at the bottom of the component housing 30, a guide column 4222 arranged at the lower end of the buckle box body 421 and slidably docked with the guide sleeve 4221, and a second spring 4223 sleeved on the outside of the guide column 4222 and the guide sleeve 4221 and abutting between the component housing 30 and the buckle box body 421; through this setting, the pressing and rebounding effect of the locking structure 40 and the conductive terminal row 50 is achieved, the structural design is simple, and a compact setting can be achieved.

[0037] See also Figure 6 In this embodiment, two extensions 428 extend from the lower end of the buckle box body 421, and the spacing between the two extensions 428 is matched. The elastic abutment structure 422 is arranged between the two extensions 428, and the rotating connection structure 41 has two symmetrical rotating shaft seats (not marked in the figure). The two rotating shaft seats are respectively arranged at the lower ends of the two extensions 428, and the two rotating shaft seats are respectively rotatably connected to the two conductive terminal rows 50, so that the overall structure is firmly and compactly matched, thereby fully utilizing the internal space of the component housing 30.

[0038] See also Figure 5 In this embodiment, based on the internal space of the component housing 30, a first accommodating space (not shown in the figure) is provided between the two sides of the conductive terminal row 50 and the inner wall of the component housing 30, the lock switch 42 and the rotating connection structure 41 are placed in the first accommodating space, and a limit portion 34 for limiting the front and rear positions of the sliding switch is provided in the first accommodating space, so that the lock switch 42 can slide up and down along the inside of the component housing 30, and a second accommodating space (not shown in the figure) is provided between the conductive terminal row 50 and the inner wall of the component housing 30, so that the conductive terminal row 50 can rotate through the second accommodating space.

[0039] See also Figure 7In this embodiment, the plug-in table 43 includes a panel portion 431 and connecting rods 432 formed on both sides of the panel portion 431. The panel portion 431 is mounted on the lock switch 42 through the connecting rods 432. An insertion port 433 for docking with the hard disk is provided on the panel portion 431, and a support block 434 for carrying the hard disk is formed on the insertion port 433. The insertion port 433 corresponds to the position directly above the two conductive terminal rows 50. The support block 434 is set by utilizing the gap set between the two rows of gold fingers on the SSD hard disk. The support block 434 is pressed against the plug-in table 43 through the gap on the SSD hard disk, which fully utilizes the structural characteristics of the SSD hard disk itself, so that the overall structural design achieves an ingenious and compact setting.

[0040] See also Figure 8 In this embodiment, the conductive terminal row 50 has a terminal housing 53 and a terminal fixing block 54 embedded in the terminal housing 53. The lower end of the terminal housing 53 is an open structure. The terminal fixing block 54 is embedded in the housing along the bottom of the terminal housing 53. A window structure 55 is provided on the opposite sides of the two terminal housings 53. The first conductive pin 52 is restricted between the terminal housing 53 and the terminal fixing block 54, and the first conductive pin 52 is exposed to the outside of the terminal housing 53 along the window structure 55 to correspond to the hard disk; both sides of the terminal housing 53 have a rotating shaft 56 docked with the rotating connection structure 41 to realize the assembly and fixation of the first conductive pin 52.

[0041] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the present invention can be implemented in other specific forms without departing from the spirit or essential features of the present invention. Therefore, the embodiments should be considered exemplary and non-restrictive in all respects, and the scope of the present invention is defined by the appended claims rather than the above description, and it is intended that all changes falling within the meaning and scope of the equivalent elements of the claims be included in the present invention.

Claims

1. An easy-to-swap SSD hard disk card opening fixture, characterized in that: The card opening test frame comprises a main body, on which at least one hard disk connection component is arranged, the hard disk connection component comprises a component housing, a locking structure slidably connected to the component housing, and two conductive terminal rows rotatably connected to the locking structure and symmetrically matched in front and back, the locking structure comprises a rotating connection structure rotatably connected to the lower positions of both sides of the two conductive terminal rows, a locking switch arranged on the rotating connection structure and slidably matched with the inside of the component housing, and a plug-in table mounted on the locking switch and movably matched with the opening of the component housing in a guided manner; Among them, first guide holes are respectively arranged on both sides of the component housing corresponding to the conductive terminal rows, and first guide rods are respectively arranged at the upper positions on both sides of the conductive terminal rows to guide and cooperate with the first guide holes, so that the two conductive terminal rows can be opened or closed through the sliding cooperation between the first guide rods and the first guide holes. A row of first conductive pins connected to the hard disk are arranged on the opposite surfaces of the two conductive terminal rows, and the first conductive pins extend to the bottom of the conductive terminal rows. Second conductive pins distributed in a row and connected to the first conductive pins are arranged at the lower end of the component housing. The second conductive pins are elastically contacted and cooperated with the first conductive pins. The second conductive pins extend to the outside of the component housing and are electrically connected to the main body of the card opening test frame.

2. The easy-to-swap SSD hard disk card opening fixture according to claim 1, characterized in that: The locking switch includes a buckle box body that is guided and slidably matched with the interior of the component shell, an elastic abutment structure arranged between the buckle box body and the bottom of the component shell, a transverse sliding block slidably connected to the buckle box body, and a first spring arranged inside the buckle box body for elastically abutting the transverse sliding block. A second guide rod is provided on the transverse sliding block, and an enclosing slide groove corresponding to the second guide rod is provided on the inner side of the component shell. The second guide rod can slide along the enclosing slide groove, and the enclosing slide groove is provided with a first commanding height and a second commanding height for limiting the upward movement of the second guide rod.

3. The easy-to-swap SSD hard disk card opening fixture according to claim 2, characterized in that: The enclosed slide groove is also provided with a first low point for guiding the second guide rod to slide into the first commanding height and a second low point for guiding the second guide rod to slide into the second commanding height. The first guide hole has an upper inclined section and a lower vertical section. The height dimension between the second low point and the second commanding height and the height dimension between the second commanding height and the first low point are both consistent with the height dimension of the vertical section, so that the vertical section is used to transition the second guide rod to the first low point or the second low point, and the height dimension of the elastic deformation between the first conductive pin and the second conductive pin is greater than the height dimension of the vertical section.

4. The easy-to-swap SSD hard disk card opening fixture according to claim 2, characterized in that: The buckle box body includes a shell body slidably connected to the inside of the component shell and a cover plate fixedly covered in front of the shell body, a guide groove is arranged inside the shell body, a transverse sliding block is slidably connected to the guide groove, connecting columns that dock with each other are arranged in the transverse sliding block and the guide groove, a first spring is sleeved on the connecting column, and the first spring abuts between the end of the transverse sliding block and the guide groove, and a second guide hole for the second guide rod to slide transversely is arranged on the cover plate.

5. The easy-to-swap SSD hard disk card opening fixture according to claim 2, characterized in that: The elastic abutment structure includes a guide sleeve arranged at the bottom of the component shell, a guide column arranged at the lower end of the buckle box body and slidably docked with the guide sleeve, and a second spring sleeved outside the guide column and the guide sleeve and abutting between the component shell and the buckle box body.

6. The easy-to-swap SSD hard disk card opening fixture according to claim 2 or 5, characterized in that: Two extension parts extend from the lower end of the buckle box body, the spacing between the two extension parts is matched, the elastic abutment structure is arranged between the two extension parts, and the rotating connection structure has two symmetrical rotating shaft seats, the two rotating shaft seats are respectively arranged at the lower ends of the two extension parts, and the two rotating shaft seats are respectively rotatably connected to the two conductive terminal rows.

7. The easy-to-swap SSD hard disk card opening fixture according to claim 1, characterized in that: A first accommodating space is provided between the two sides of the conductive terminal row and the inner wall of the component housing, the locking switch and the rotating connection structure are placed in the first accommodating space, and a limiting portion is provided in the first accommodating space to limit the front and rear positions of the sliding switch, so that the locking switch can slide up and down along the inside of the component housing, and a second accommodating space is provided between the conductive terminal row and the inner wall of the component housing, so that the conductive terminal row can rotate through the second accommodating space.

8. The easy-to-swap SSD hard disk card opening fixture according to claim 1, characterized in that: The docking table includes a panel portion and connecting rods formed on both sides of the panel portion. The panel portion is mounted on the lock switch through the connecting rods. An insertion port for docking with the hard disk is opened on the panel portion, and a support block for carrying the hard disk is formed on the insertion port. The insertion port corresponds to the position directly above between the two conductive terminal rows.

9. The easy-to-swap SSD hard disk card opening fixture according to claim 1, characterized in that: The conductive terminal row comprises a terminal shell and a terminal fixing block embedded in the terminal shell. The lower end of the terminal shell is an open structure. The terminal fixing block is embedded in the shell along the bottom of the terminal shell. A window structure is provided on opposite sides of the two terminal shells. The first conductive pin is restricted between the terminal shell and the terminal fixing block, and the first conductive pin is exposed to the outside of the terminal shell along the window structure to correspond to the hard disk. Both sides of the terminal shell have a rotating shaft connected to the rotating connection structure.

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