A high-density integrated electronic component storage device

Abstract

The application relates to the technical field of storage devices, and discloses a high-density integrated electronic component storage device which comprises a movable storage mechanism and a plurality of screw rotation type driving mechanisms, is internally provided with a top longitudinal rotating shaft capable of rotating with a bottom longitudinal rotating shaft and supporting a storage box, is provided with a longitudinal screw rod on the top of the top longitudinal rotating shaft and capable of rotating with the top longitudinal rotating shaft, is provided with a screw sleeve in a threaded structure and mounted on the periphery of the longitudinal screw rod and capable of driving the longitudinal movement of a top cover plate, and is provided with a brake rubber drum capable of controlling the maximum driven torque between the screw sleeve and the top cover plate. The high-density integrated electronic component storage device can store a plurality of electronic components in a storage box, thereby improving the effective storage rate of the electronic components, and the device can elastically clamp the bottom and the top of the electronic components between sponge pads, thereby ensuring the control stability of the electronic components.

Description

Technical Field

[0001] This invention relates to the field of storage device technology, specifically to a high-density integrated electronic component storage device. Background Technology

[0002] Power electronic components are the components of electronic parts and small machines and instruments. They are often composed of several parts and can be used interchangeably in similar products. They often refer to certain parts in the electrical, radio, and instrument industries, such as capacitors, transistors, hairsprings, and mainsprings. Due to their small size and wide variety, power electronic components are often stacked together during assembly or placed in resealable bags, making it extremely inconvenient to retrieve and find them. Existing electronic component storage devices cannot classify and store multiple components, making it difficult to find components and providing poor protection against collisions. When multiple components are stacked together, they collide and rub against each other during impacts or vibrations, which can easily damage the electronic components.

[0003] To this end, Chinese Patent No. CN218369030U discloses "A storage device for power electronic components". Its main structure includes a storage box with an opening on one side and a switch door for covering the opening of the storage box. A mounting frame is slidably provided inside the storage box. The mounting frame is detachably provided with multiple placement boxes with top openings. The placement boxes are provided with a shelf, and the side wall of the shelf is provided with multiple storage slots. This power electronic component storage device can classify and store power electronic components, making it easy to find them when needed. Moreover, it can separate the power electronic components from each other, reducing the risk of damage to the electronic components due to collisions and friction between the components.

[0004] It is evident that the aforementioned power electronic component storage device separates the components by setting up multiple storage slots, with each slot capable of holding only one electronic component. This reduces the risk of damage caused by collisions and friction between the components. However, in reality, the arrangement of multiple storage slots leads to excessive space occupation within the storage box, potentially reducing the effective placement rate of electronic components. Furthermore, individual electronic components can still move within the storage slots, resulting in collisions with the inner walls of the storage slots and friction. Consequently, the aforementioned power electronic component storage device exhibits relatively poor stability in controlling the electronic components during operation. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a high-density integrated electronic component storage device that allows multiple electronic components to be stored together in a single storage box, thereby improving the effective storage rate of electronic components. Furthermore, this device allows the bottom and top of electronic components to be elastically clamped between sponge pads, thus ensuring the stability of control over the electronic components and solving the aforementioned technical problems.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a high-density integrated electronic component storage device, comprising a movable storage mechanism, which internally includes two rotatable bottom longitudinal shafts, a drive motor capable of synchronously rotating the bottom longitudinal shafts, a storage box capable of storing electronic components, a top cover capable of closing the storage box, and a lower and upper sponge pad capable of elastically clamping the electronic components; and multiple threaded rotation drive mechanisms, which internally include a top longitudinal shaft capable of rotating with the bottom longitudinal shafts and supporting the storage box, a longitudinal threaded rod located at the top of the top longitudinal shaft and capable of rotating with it, a threaded sleeve installed with a threaded structure around the longitudinal threaded rod and capable of driving the top cover to move longitudinally, and a brake rubber drum capable of controlling the maximum driven torque between the threaded sleeve and the top cover.

[0007] Preferably, the mobile storage mechanism includes a bottom mounting base. A drive motor is fixedly mounted on the bottom of the bottom mounting base via a motor mounting housing. A double-groove pulley is fixedly mounted on the rotor end of the drive motor. A concave rod fixing groove is provided on each side of the upper surface of the bottom mounting base. Two symmetrical bottom shaft mounting holes are provided on the inner side of the rod fixing grooves on the bottom mounting base. A rotatable bottom longitudinal shaft is mounted on the bottom mounting base through bearings inside each bottom shaft mounting hole. A single-groove pulley is fixedly mounted on the shaft of each bottom longitudinal shaft. The single-groove pulley and the double-groove pulley are linked by a belt. A connecting plate is fixedly installed at the top of the bottom longitudinal pivot. The storage box is located directly above the connecting plate. The storage box has an open-top storage cavity for storing electronic components. A lower sponge pad is fixedly installed at the bottom of the storage cavity. A lower mounting sleeve with an integral structure is provided on both sides of the storage box. The lower mounting sleeve is located directly above the connecting plate. The top cover is located directly above the storage box. An upper sponge pad that can extend into the storage cavity is embedded at the bottom of the top cover. An upper mounting sleeve with an integral structure is provided on both sides of the top cover. The upper mounting sleeve is located directly above the lower mounting sleeve.

[0008] Preferably, both the lower and upper sponge pads are flat structures made of breathable sponge.

[0009] Preferably, the belt is a synchronous belt and can synchronously drive the two bottom longitudinal shafts to rotate.

[0010] Preferably, the threaded rotary drive mechanism includes a rotating sleeve, a limiting ring structure integrally formed with the top longitudinal rotating shaft, a longitudinal threaded rod integrally formed with the upper surface of the limiting ring structure, a second connecting plate integrally formed with the bottom of the top longitudinal rotating shaft and capable of being fixedly connected to the first connecting plate, a third connecting plate integrally formed with the top of the longitudinal threaded rod, the outer circumferential surface of the rotating sleeve being fixedly installed inside the upper mounting sleeve, the lower mounting sleeve being installed at the shaft of the top longitudinal rotating shaft via a bearing, a sleeve release cavity with open ends being provided at the center of the rotating sleeve, the center of the sleeve release cavity being installed on the outer circumferential surface of the threaded sleeve via a bearing, an outwardly expanding annular component mounting cavity being provided in the middle region of the sleeve release cavity, a brake rubber drum being fixedly embedded inside the annular component mounting cavity of the rotating sleeve, and an internal threaded hole installed on the longitudinal threaded rod via a threaded structure at the center of the threaded sleeve.

[0011] Preferably, the inner circumferential wall of the brake rubber drum abuts against the outer circumferential wall of the threaded sleeve, and the maximum static friction between the brake rubber drum and the threaded sleeve is sufficient to keep the threaded sleeve in a non-rotating state when the longitudinal threaded rod rotates, and when the torque caused by the contact pressure between the lower sponge pad and the upper sponge pad is greater than the above-mentioned maximum static friction, the threaded sleeve can rotate with the rotation of the longitudinal threaded rod.

[0012] Preferably, the thread structure includes an internal thread structure disposed on the inner wall of the internal thread hole and an external thread structure disposed on the longitudinal thread rod body, and the internal thread structure matches the external thread structure.

[0013] Preferably, it also includes a universal support mechanism, which has an inner ring body that can suspend the bottom mounting base plate and an outer ring body that can provide high support for the inner ring body and allow the inner ring body to rotate freely inside it.

[0014] Preferably, the universal support mechanism includes multiple mounting ear structures integrally disposed on the outer circumferential surface of the outer ring, each mounting ear structure having a support leg fixedly mounted at its bottom, the outer ring having a spherical mounting cavity at its center, the outer circumferential surface of the inner ring being placed inside the spherical mounting cavity, the inner ring having a weight-reducing annular cavity inside, and two longitudinal connecting rods fixedly mounted at the bottom of the inner ring, the bottom ends of the longitudinal connecting rods being fixedly mounted inside the rod fixing groove.

[0015] Preferably, the structural radius of the arc-shaped inner surface of the spherical mounting cavity matches the structural radius of the arc-shaped outer surface of the inner ring body, and the diameter of the top opening and the bottom opening of the spherical mounting cavity are both greater than the structural radius of the arc-shaped outer surface of the inner ring body and smaller than the structural diameter of the arc-shaped outer surface of the inner ring body.

[0016] Compared with the prior art, the present invention provides a high-density integrated electronic component storage device, which has the following beneficial effects:

[0017] This device allows multiple electronic components to be stored together in one storage box, thereby improving the effective storage rate of electronic components. In addition, the bottom and top of the electronic components are elastically clamped between the foam pads, thus ensuring the stability of the control of the electronic components. Attached Figure Description

[0018] Figure 1 This is a perspective view of the present invention;

[0019] Figure 2 This is a three-dimensional cross-sectional view of the present invention;

[0020] Figure 3 This is a perspective view of the movable storage mechanism in this invention;

[0021] Figure 4 This is a perspective cross-sectional view of the movable storage mechanism in this invention;

[0022] Figure 5 This is a perspective view of the threaded rotary drive mechanism in this invention;

[0023] Figure 6 This is a three-dimensional cross-sectional view of the threaded rotary drive mechanism in this invention;

[0024] Figure 7 This is a perspective view of the universal support mechanism in this invention;

[0025] Figure 8 This is a three-dimensional cross-sectional view of the universal support mechanism in this invention.

[0026] The components include: 1. Mobile storage mechanism; 11. Bottom mounting base; 12. Rod fixing groove; 13. Motor fixing housing; 14. Drive motor; 15. Double groove pulley; 16. Bottom longitudinal rotating shaft; 17. Bottom shaft mounting hole; 18. Single groove pulley; 19. Belt; 110. Storage box; 111. Lower mounting sleeve; 112. Lower sponge pad; 113. Top cover plate; 114. Upper mounting sleeve; 115. Upper sponge pad; 116. No. 1 connecting plate; 2. Threaded rotary drive motor. 21. Top longitudinal pivot; 22. Second connecting plate; 23. Limiting ring structure; 24. Longitudinal threaded rod; 25. Third connecting plate; 26. Rotating sleeve; 27. Emptying cavity; 28. Annular component mounting cavity; 29. ​​Brake rubber drum; 210. Threaded sleeve; 211. Internal threaded hole; 3. Universal support mechanism; 31. Outer ring body; 32. Mounting ear structure; 33. Support leg; 34. Spherical mounting cavity; 35. Inner ring body; 36. Weight-reducing annular cavity; 37. Longitudinal connecting rod. Detailed Implementation

[0027] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0028] Please see Figure 1 and Figure 2 A high-density integrated electronic component storage device, firstly, selects a suitable brake rubber drum 29, which needs to ensure that the maximum static friction between the brake rubber drum 29 and the threaded sleeve 210 is sufficient to keep the threaded sleeve 210 in a non-rotating state when the longitudinal threaded rod 24 is rotating, and when the torque caused by the contact pressure between the lower sponge pad 112 and the upper sponge pad 115 is greater than the above-mentioned maximum static friction, the threaded sleeve 210 can rotate with the rotation of the longitudinal threaded rod 24.

[0029] To achieve buffered clamping storage of electronic components, please refer to [link / reference]. Figure 1 , Figure 2 , Figure 3 and Figure 4A mobile storage mechanism 1 is required, which includes two rotatable bottom longitudinal shafts 16, a drive motor 14 that drives the bottom longitudinal shafts 16 to rotate synchronously, a storage box 110 for storing electronic components, a top cover 113 that closes the storage box 110, and a lower sponge pad 112 and an upper sponge pad 115 that elastically clamp the electronic components. When the drive motor 14 is started and its rotor direction is controlled, the double-groove pulley 15 drives the two bottom longitudinal shafts 16 to rotate synchronously via the belt 19. First, the storage box 110 and the top cover 113 are separated. Then, the electronic components are placed on the upper surface of the lower sponge pad 112. Note that there needs to be a certain gap between the two electronic components. Then, the rotor of the drive motor 14 is rotated in the opposite direction. Similarly, the top cover 113 closes onto the top of the storage box 110, and the lower sponge pad 112 and the upper sponge pad 115 clamp the electronic components between them, thus achieving a buffered clamping storage of the electronic components.

[0030] For details regarding the specific structure of the mobile storage mechanism 1, please refer to [link / reference]. Figure 3 and Figure 4The system includes a bottom mounting base 11, on which a drive motor 14 is fixedly mounted via a motor mounting housing 13. A double-groove pulley 15 is fixedly mounted on the rotor end of the drive motor 14. A concave rod fixing groove 12 is provided on each side of the upper surface of the bottom mounting base 11. Two symmetrical bottom shaft mounting holes 17 are provided inside the rod fixing grooves 12. A rotatable bottom longitudinal shaft 16 is mounted on the bottom mounting base 11 via bearings inside each bottom shaft mounting hole 17. A single-groove pulley 18 is fixedly mounted on the shaft of the bottom longitudinal shaft 16. The single-groove pulley 18 and the double-groove pulley 15 are linked by a belt 19. A first connecting plate 116 is fixedly mounted on the top of the bottom longitudinal shaft 16. The storage box 110 is located directly above the first connecting plate 116. The storage box 110 has an open-top storage cavity for storing electronic components. A lower sponge pad 112 is fixedly installed at the bottom of the storage cavity. A lower mounting sleeve 111 with an integral structure is provided on both sides of the storage box 110, and the lower mounting sleeve 111 is located directly above the first connecting plate 116. The top cover 113 is located directly above the storage box 110. An upper sponge pad 115 that can extend into the storage cavity is embedded at the bottom of the top cover 113. An upper mounting sleeve 114 with an integral structure is provided on both sides of the top cover 113, and the upper mounting sleeve 114 is located directly above the lower mounting sleeve 111. Both the lower sponge pad 112 and the upper sponge pad 115 are flat structures made of breathable sponge. The belt 19 is a synchronous belt and can synchronously drive the two bottom longitudinal rotating shafts 16 to rotate.

[0031] To enable the opening and closing of the multiple storage boxes 110 and the top cover 113, please refer to [link / reference needed]. Figure 1 , Figure 2 , Figure 5 and Figure 6Multiple threaded rotary drive mechanisms 2 are required. Each mechanism includes a top longitudinal rotating shaft 21 that rotates with the bottom longitudinal rotating shaft 16 and supports the storage box 110; a longitudinal threaded rod 24 located on top of the top longitudinal rotating shaft 21 and rotating with it; a threaded sleeve 210 threadedly mounted on the periphery of the longitudinal threaded rod 24 and capable of driving the top cover plate 113 longitudinally; and a brake rubber drum 29 that controls the maximum driven torque between the threaded sleeve 210 and the top cover plate 113. When the bottom longitudinal rotating shaft 16 rotates, the top longitudinal rotating shaft 210... 1 drives the longitudinal threaded rod 24 to rotate. Due to the threaded structure connection and the threaded sleeve 210 being unable to rotate, the rotation of the longitudinal threaded rod 24 will cause the threaded sleeve 210 to move longitudinally, thereby enabling the opening and closing of multiple storage boxes 110 and the top cover 113. When the threaded sleeve 210 moves to a restricted position, the frictional braking force of the brake rubber drum 29 on the threaded sleeve 210 is insufficient to keep the threaded sleeve 210 from rotating, and the threaded sleeve 210 will rotate with the longitudinal threaded rod 24, thereby preventing the drive motor 14 from jamming.

[0032] For the specific structure of the threaded rotary drive mechanism 2, please refer to [link / reference]. Figure 5 and Figure 6The system includes a rotating sleeve 26. A limiting ring structure 23, integrally formed with the top longitudinal rotating shaft 21, is provided at its top end. A longitudinal threaded rod 24, integrally formed with the upper surface of the limiting ring structure 23, is provided at the bottom of the top longitudinal rotating shaft 21. A second connecting plate 22, integrally formed with the top longitudinal rotating shaft 21 and capable of being fixedly connected to a first connecting plate 116, is provided at the top end of the longitudinal threaded rod 24. A third connecting plate 25, integrally formed with the top longitudinal threaded rod, is provided at its top end. The outer circumferential surface of the rotating sleeve 26 is fixedly installed inside the upper mounting sleeve 114. The lower mounting sleeve 111 is mounted on the shaft of the top longitudinal rotating shaft 21 via bearings. The center of the rotating sleeve 26 has a sleeve-opening cavity 27. The center of the sleeve-opening cavity 27 is mounted on the outer circumferential surface of the threaded sleeve 210 via bearings. The rotating sleeve 26 has an outwardly expanding ring located in the middle region of the sleeve-opening cavity 27. The annular component mounting cavity 28 has a rotating sleeve 26 that has a brake rubber drum 29 fixedly embedded inside it. The threaded sleeve 210 has an internal threaded hole 211 at its center, which is installed on the longitudinal threaded rod 24 via a threaded structure. The inner circumferential wall of the brake rubber drum 29 abuts against the outer circumferential wall of the threaded sleeve 210. The maximum static friction between the brake rubber drum 29 and the threaded sleeve 210 is sufficient to keep the threaded sleeve 210 from rotating when the longitudinal threaded rod 24 rotates. When the torque caused by the contact pressure between the lower sponge pad 112 and the upper sponge pad 115 is greater than the maximum static friction, the threaded sleeve 210 can rotate with the longitudinal threaded rod 24. The threaded structure includes an internal thread structure provided on the inner circumferential wall of the internal threaded hole 211 and an external thread structure provided on the longitudinal threaded rod 24, and the internal thread structure matches the external thread structure.

[0033] To ensure that electronic components are always placed horizontally, please refer to [link / reference]. Figure 1 , Figure 2 , Figure 7 and Figure 8 A universal support mechanism 3 needs to be set up, which has an inner ring 35 that can suspend the bottom mounting base 11 and an outer ring 31 that can provide high support for the inner ring 35 and allow the inner ring 35 to rotate freely inside it. During the movement, when the device tilts, the inner ring 35 will undergo an adaptive angle change inside the outer ring 31 under the action of gravity. At this time, the storage box 110 can always be kept in a horizontal position, so that the electronic components are always placed in a horizontal state.

[0034] For details regarding the specific structure of the universal support mechanism 3, please refer to [link / reference]. Figure 7 and Figure 8The device includes multiple mounting ear structures 32 integrally disposed on the outer circumferential surface of the outer ring body 31. Each mounting ear structure 32 has a support leg 33 fixedly installed at its bottom. The outer ring body 31 has a spherical mounting cavity 34 at its center. The outer circumferential surface of the inner ring body 35 is placed inside the spherical mounting cavity 34. The inner ring body 35 has a weight-reducing annular cavity 36 inside. Two longitudinal connecting rods 37 are fixedly installed at the bottom of the inner ring body 35. The bottom end of the longitudinal connecting rods 37 is fixedly installed inside the rod fixing groove 12. The structural radius of the arc-shaped inner surface of the spherical mounting cavity 34 matches the structural radius of the arc-shaped outer surface of the inner ring body 35. The diameter of the top opening and the bottom opening of the spherical mounting cavity 34 are both greater than the structural radius of the arc-shaped outer surface of the inner ring body 35 and smaller than the structural diameter of the arc-shaped outer surface of the inner ring body 35.

[0035] In use, the drive motor 14 is started and its rotor direction is controlled. The double-groove pulley 15 will drive the two bottom longitudinal shafts 16 to rotate synchronously through the belt 19. When the bottom longitudinal shafts 16 rotate, they will drive the longitudinal threaded rod 24 to rotate through the top longitudinal shaft 21. Due to the threaded connection and the threaded sleeve 210 being unable to rotate, the rotation of the longitudinal threaded rod 24 will cause the threaded sleeve 210 to move longitudinally, thereby opening and closing the multiple storage boxes 110 and the top cover 113. First, the storage box 110 and the top cover 113 are separated. Then, the electronic components are placed on the upper surface of the lower sponge pad 112. Note that there needs to be a certain gap between the two electronic components. Then, the rotor of the drive motor 14 is rotated in the opposite direction. Similarly, the top cover 113 will close on the top of the storage box 110, and the lower sponge pad 112 and the upper sponge pad 115 will hold the electronic components between them, thereby achieving a buffered clamping storage of the electronic components.

[0036] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high-density integrated electronic component storage device, characterized in that: include, The mobile storage mechanism has two rotatable bottom longitudinal shafts, a drive motor that can drive the bottom longitudinal shafts to rotate synchronously, a storage box for storing electronic components, a top cover for closing the storage box, and a lower and upper sponge pads for elastically clamping the electronic components. The top cover has an integrated upper mounting sleeve on each side, and the storage box has an integrated lower mounting sleeve on each side. And multiple threaded rotary drive mechanisms, which are internally provided with a top longitudinal shaft that can rotate with the bottom longitudinal shaft and support the storage box, a longitudinal threaded rod that is set on the top of the top longitudinal shaft and can rotate with it, a threaded sleeve that is installed on the periphery of the longitudinal threaded rod with a threaded structure and can drive the top cover plate to move longitudinally, and a brake rubber drum that can control the maximum driven torque between the threaded sleeve and the top cover plate. The inner circumferential wall of the brake rubber drum abuts against the outer circumferential wall of the threaded sleeve, and the maximum static friction between the brake rubber drum and the threaded sleeve is sufficient to keep the threaded sleeve from rotating when the longitudinal threaded rod rotates. When the torque caused by the contact pressure between the lower and upper sponge pads is greater than the above-mentioned maximum static friction, the threaded sleeve can rotate with the rotation of the longitudinal threaded rod. The threaded rotary drive mechanism includes a rotating sleeve. The outer circumferential surface of the rotating sleeve is fixedly installed inside the upper mounting sleeve. The lower mounting sleeve is installed on the shaft of the top longitudinal rotating shaft through a bearing. The center of the rotating sleeve is provided with a sleeve release cavity with both ends open. The center of the sleeve release cavity of the rotating sleeve is installed on the outer circumferential surface of the threaded sleeve through a bearing. The rotating sleeve is provided with an outwardly expanding annular component mounting cavity in the middle region of the sleeve release cavity. A brake rubber drum is fixedly embedded inside the rotating sleeve in the annular component mounting cavity. The center of the threaded sleeve is provided with an internal threaded hole that is installed on the longitudinal threaded rod through a threaded structure.

2. The high-density integrated electronic component storage device according to claim 1, characterized in that: The mobile storage mechanism includes a bottom mounting base. A drive motor is fixedly mounted on the bottom of the bottom mounting base via a motor mounting housing. A double-groove pulley is fixedly mounted on the rotor end of the drive motor. A concave rod fixing groove is provided on each side of the upper surface of the bottom mounting base. Two symmetrical bottom shaft mounting holes are provided inside the rod fixing grooves on the bottom mounting base. A rotatable bottom longitudinal shaft is mounted on the bottom mounting base through bearings inside each bottom shaft mounting hole. A single... The grooved pulley, single-groove pulley and double-groove pulley are linked by a belt. A first connecting plate is fixedly installed at the top of the bottom longitudinal rotating shaft. The storage box is located directly above the first connecting plate. The storage box has a storage cavity with an open top for storing electronic components. A lower sponge pad is fixedly installed at the bottom of the storage cavity. The lower mounting sleeve is located directly above the first connecting plate. The top cover is located directly above the storage box. An upper sponge pad that can extend into the storage cavity is embedded at the bottom of the top cover. The upper mounting sleeve is located directly above the lower mounting sleeve.

3. The high-density integrated electronic component storage device according to claim 2, characterized in that: Both the lower and upper sponge pads are flat structures made of breathable sponge.

4. The high-density integrated electronic component storage device according to claim 3, characterized in that: The belt is a synchronous belt and can synchronously drive the two bottom longitudinal shafts to rotate.

5. The high-density integrated electronic component storage device according to claim 4, characterized in that: The top of the top longitudinal rotating shaft is provided with a limiting ring structure integrated with it. The upper surface of the limiting ring structure is provided with a longitudinal threaded rod integrated with it. The bottom of the top longitudinal rotating shaft is provided with a second connecting plate integrated with it and capable of being fixedly connected to the first connecting plate. The top of the longitudinal threaded rod is provided with a third connecting plate integrated with it.

6. The high-density integrated electronic component storage device according to claim 5, characterized in that: The threaded structure includes an internal thread structure located on the inner wall of the internal threaded hole and an external thread structure located on the longitudinal threaded rod body, wherein the internal thread structure matches the external thread structure.

7. A high-density integrated electronic component storage device according to any one of claims 2-6, characterized in that: It also includes a universal support mechanism, which has an inner ring that can suspend the bottom mounting base plate and an outer ring that can provide high support for the inner ring and allow the inner ring to rotate freely inside it.

8. The high-density integrated electronic component storage device according to claim 7, characterized in that: The universal support mechanism includes multiple mounting ear structures integrally set on the outer circumferential surface of the outer ring. Each mounting ear structure has a support leg fixedly installed at its bottom. The outer ring has a spherical mounting cavity at its center. The outer circumferential surface of the inner ring is placed inside the spherical mounting cavity. The inner ring has a weight-reducing annular cavity. Two longitudinal connecting rods are fixedly installed at the bottom of the inner ring. The bottom ends of the longitudinal connecting rods are fixedly installed inside the rod fixing groove.

9. A high-density integrated electronic component storage device according to claim 8, characterized in that: The structural radius of the arc-shaped inner surface of the spherical mounting cavity matches the structural radius of the arc-shaped outer surface of the inner ring body. Furthermore, the diameter of the top opening and the bottom opening of the spherical mounting cavity are both greater than the structural radius of the arc-shaped outer surface of the inner ring body and smaller than the structural diameter of the arc-shaped outer surface of the inner ring body.

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