Data storage device for computer network security

Abstract

The invention discloses a data storage device for computer network security, and belongs to the technical field of computer data storage, the data storage device comprises a lower shell and an upper shell fixed on the lower shell through bolts, the upper surface of the upper shell and the outer side surface of the lower shell are both provided with concave through grooves, and the concave through grooves are communicated with the lower shell. Concave through grooves are formed in the upper shell body and the lower shell body, strip-shaped air holes used for heat dissipation are formed in the concave through grooves in the upper shell body and the lower shell body, the corresponding strip-shaped air holes penetrate through the upper shell body and the lower shell body, energy absorption mechanisms are arranged on the lower surface of the upper shell body and the inner side of the lower shell body, and each energy absorption mechanism comprises a roller shaft used for energy absorption. By decomposing and converting impact force, rapid and effective energy absorption is achieved, then it can be guaranteed that the storage body is not damaged, in addition, when the temperature of the storage body is high, the heat dissipation efficiency and effect of the storage body are improved, the possibility that dust enters the storage body can be reduced at the normal temperature, the dust is prevented from affecting the performance of the storage body, and when the temperature is high, the heat dissipation efficiency is improved. And the use performance is ensured by improving the heat dissipation efficiency and effect.

Description

Technical Field

[0001] This invention relates to the field of computer network data storage technology, specifically to a data storage device for computer network security. Background Technology

[0002] Computer data storage devices are primarily hard drives, which generally have large capacities and can store a significant amount of data. During use, they need to be securely installed inside the computer case to prevent accidental movement and damage, which could lead to the loss of stored data. Existing computer hard drives are generally flat and rectangular, facilitating their installation. However, some technical issues remain during use. For example, CN112612330B discloses a cloud computing-based computer storage device, which includes a first housing and a storage hard drive. The left end of the first housing has an inlet slot, with inlet ports fixedly connected to its upper, lower, left, and right inner walls. The right inner wall of the first housing has a hard drive connector plug fixedly connected. The top of the first housing has an installation slot. Two processors are fixedly connected to the right inner wall of the first housing. Each processor has a set of first telescopic rods fixedly connected to its right end. Springs are fitted around the circumference of each set of first telescopic rods, and contact springs are fixedly connected to the right ends of each set of first telescopic rods. The first housing has a protective mechanism on the upper side of its lower inner wall. The storage hard drive is snapped into the hard drive connector. A heat dissipation mechanism is located above the protective mechanism, and a transmission mechanism is located below it. The transmission mechanism is fixedly connected to the upper and lower inner walls of the first housing. A fixing mechanism is located on the left side of the protective mechanism. The hard drive connector on the fixing mechanism facilitates the connection with the storage hard drive, which is convenient for data storage. The contact plate facilitates pressure transmission. The protective mechanism protects the storage hard drive and extends its lifespan. The heat dissipation mechanism dissipates heat from the device, ensuring stable operation. The fixing mechanism secures the lower and upper fixed shells, ensuring a stable connection between the storage hard drive and the hard drive connector. The transmission mechanism facilitates the connection between the storage hard drive and the hard drive connector, making operation convenient and easy to use. The dust filter helps filter dust from the air, preventing dust accumulation inside the first housing and ensuring good contact between the storage hard drive and the hard drive connector, which is beneficial for data storage. However, when in use, the protective mechanism and contact plate are not very effective at absorbing impact energy. This is because it relies on springs to absorb energy, but springs alone cannot completely absorb the impact force. As a result, if the impact force exceeds a certain level, it can still damage the storage hard drive. In addition, when the heat dissipation mechanism dissipates heat, if the heat dissipation holes are too large, a lot of dust will accumulate inside the storage hard drive, which will affect its performance. If the heat dissipation holes are too small, heat dissipation cannot be effectively carried out, which will also affect its performance during use. Therefore, a data storage device for computer network security is needed to solve the above problems. Summary of the Invention

[0003] The purpose of this invention is to provide a data storage device for computer network security, in order to solve the problems mentioned in the background art, such as the poor energy absorption effect and the inability to guarantee the performance of existing data storage devices for computer network security.

[0004] To achieve the above objectives, the present invention provides the following technical solution: A data storage device for computer network security includes a lower housing and an upper housing fixed thereto by bolts. The upper surface of the upper housing and the outer surface of the lower housing are provided with recessed grooves, and each recessed groove on the upper and lower housings contains a strip-shaped air hole for heat dissipation. The upper and lower housings are both penetrated by corresponding strip-shaped air holes. The lower surface of the upper housing and the inner surface of the lower housing are provided with energy-absorbing mechanisms, each including a roller for energy absorption. A temperature-sensitive deformation mechanism for controlling the opening and closing of the strip-shaped air holes is installed between the energy-absorbing mechanisms. A storage body is installed between the roller on the lower surface of the upper housing and the inner surface of the lower housing. A transmission connector is provided on the storage body. An embedding block is provided on the side of the upper housing, corresponding to the transmission connector, and the embedding block has a slot that matches the transmission connector.

[0005] Preferably, the temperature-sensitive deformation mechanism includes a sliding frame disposed on the lower surface of the upper shell and the inner side of the lower shell. The sliding frame is parallel to the corresponding strip-shaped air hole. The sliding frame is provided with a sliding groove that runs through its inner and outer sides, and a slider is slidably connected to the sliding groove. A block is engaged with the inner side of the sliding frame, and a slider is provided on both sides of the corresponding block.

[0006] Preferably, the blocking block is provided in a one-to-one correspondence with the strip-shaped air hole, and the two have the same cross-section. The blocking block is used to block the strip-shaped air hole.

[0007] Preferably, the temperature-sensitive deformation mechanism further includes a shape memory alloy connecting two blocks within the same sliding frame.

[0008] Preferably, the width of the shape memory alloy is smaller than the inner width of the sliding frame, and the inner width of the strip-shaped pores is larger than the width of the shape memory alloy.

[0009] Preferably, the sliding frame is evenly distributed on the lower surface of the lower housing and the inner bottom surface of the lower housing.

[0010] Preferably, the energy absorption mechanism includes a support arm that is axially connected to each block, and the roller shaft is symmetrically connected to the end of each support arm. The support arm is inclined to the corresponding block. One end of shape memory alloy II is installed on the lower surface of the upper shell and the inner side of the lower shell, and the other end of shape memory alloy II is connected to one side of the corresponding support arm. Shape memory alloy II is disposed through the corresponding sliding frame.

[0011] Preferably, both shape memory alloy one and shape memory alloy two are arched structures, with the inner side of the arched shape memory alloy one facing the storage body and the outer side of the shape memory alloy two facing the corresponding block.

[0012] Preferably, the outer side of the roller is wrapped with elastic rubber.

[0013] Compared with existing technologies, the beneficial effects of this invention are: This data storage device for computer network security achieves rapid and effective energy absorption by decomposing and converting impact force, thereby ensuring the storage unit is not damaged. Furthermore, when the storage unit temperature is high, it increases the efficiency and effectiveness of heat dissipation, thus reducing the possibility of dust entering its interior at room temperature and preventing dust from affecting its performance. And at high temperatures, the increased heat dissipation efficiency and effectiveness ensure its performance during use. 1. By using shape memory alloy and rollers, the impact force can be decomposed and part of it can be converted into the kinetic energy of the rollers rolling. It can also be absorbed by the elastic rubber on the outside of the rollers, which can greatly reduce the damage to the storage body. This avoids the situation where large impacts cannot be effectively and quickly absorbed when using springs, thus preventing the storage body from being greatly affected. 2. By using shape memory alloy II and shape memory alloy I, when the temperature of the storage body is high, the block can be pushed to slide on the sliding frame, so that the block can gradually stop blocking the strip vent. This can improve the efficiency and effect of heat exchange between the storage body and the external air. Not only can it prevent dust from entering and affecting the performance of the storage body at low temperatures, but it can also prevent high temperatures from affecting the performance of the storage body by increasing the efficiency and effect of heat exchange at high temperatures. 3. By setting multiple temperature-sensitive deformation mechanisms, the temperature-sensitive deformation mechanisms corresponding to the higher temperature positions on the storage body can undergo greater deformation. This results in only the gap between the strip-shaped air hole and the block corresponding to the higher temperature position on the storage body being increased, so as to increase the efficiency and effect of heat exchange at a specific point and avoid the gap between the strip-shaped air hole and the block in multiple positions increasing simultaneously, which would cause dust to enter from other positions. 4. When the temperature of the storage body is high, it is generally in working condition. At this time, the temperature-sensitive deformation mechanism can not only improve the efficiency and effect of its heat exchange, but also reduce the compression of the storage body by the roller through the deformation of shape memory alloy 2 and shape memory alloy 1. This can increase the upper limit of its energy absorption under impact force and help improve its anti-interference ability in working condition. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the main structure of the present invention; Figure 2This is a schematic diagram of the separate structure of the lower shell and the upper shell of the present invention; Figure 3 This is a bottom view of the upper shell structure of the present invention; Figure 4 For the present invention Figure 3 Enlarged structural diagram of point A in the middle; Figure 5 This is a partial cross-sectional view of the upper shell structure of the present invention; Figure 6 For the present invention Figure 5 Enlarged structural diagram of point C; Figure 7 This is a top view of the lower shell structure of the present invention; Figure 8 For the present invention Figure 7 A magnified structural diagram of point B in the middle.

[0015] In the diagram: 1. Lower housing; 2. Upper housing; 3. Recessed groove; 4. Strip-shaped air hole; 5. Embedded block; 6. Storage body; 7. Transmission connector; 8. Sliding frame; 9. Shape memory alloy one; 10. Roller; 11. Slide groove; 12. Slider; 13. Block; 14. Support arm; 15. Shape memory alloy two. Detailed Implementation

[0016] 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.

[0017] Please see Figures 1-8 The present invention provides the following technical solution: Example 1: To address the problem that previous computer data storage devices could not guarantee their performance, the following technical solution is provided: a data storage device for computer network security, comprising a lower housing 1 and an upper housing 2 fixed thereto by bolts. The upper surface of the upper housing 2 and the outer surface of the lower housing 1 are provided with recessed grooves 3, and each of the recessed grooves 3 on the upper housing 2 and the lower housing 1 is provided with a strip-shaped air hole 4 for heat dissipation. The upper housing 2 and the lower housing 1 are both penetrated by the corresponding strip-shaped air hole 4. A temperature-sensitive deformation mechanism for controlling the opening and closing of the strip-shaped air hole 4 is installed between the energy absorption mechanisms. A storage body 6 is installed between the lower surface of the upper housing 2 and the inner side of the lower housing 1 on the roller shaft 10. A transmission connector 7 is provided on the storage body 6. An embedded block 5 is provided on the side of the upper housing 2, and the embedded block 5 is correspondingly provided with the transmission connector 7. The embedded block 5 has a slot that matches the transmission connector 7.

[0018] By setting the embedded block 5, the transmission connector 7 can be prevented from being damaged, thereby avoiding a significant increase in the difficulty and cost of repairing the storage body 6 due to damage to the transmission connector 7.

[0019] The temperature-sensitive deformation mechanism includes a sliding frame 8 disposed on the lower surface of the upper shell 2 and the inner side of the lower shell 1. The sliding frame 8 is parallel to the corresponding strip-shaped air hole 4. The sliding frame 8 is provided with a groove 11 that runs through its inner and outer sides, and a slider 12 is slidably connected to the groove 11. A blocking block 13 is engaged with the inner side of the sliding frame 8, and the slider 12 is provided on both sides of the corresponding blocking block 13. The blocking block 13 is provided one-to-one with the strip-shaped air hole 4, and the two have the same cross-section. The blocking block 13 is used to block the strip-shaped air hole 4. The temperature-sensitive deformation mechanism also includes a shape memory alloy 9 connecting the two blocking blocks 13 in the same sliding frame 8. The width of the shape memory alloy 9 is smaller than the inner width of the sliding frame 8, and the inner width of the strip-shaped air hole 4 is larger than the width of the shape memory alloy 9. The sliding frames 8 are evenly distributed on the lower surface of the lower shell 1 and the inner bottom surface of the lower shell 1.

[0020] according to Figures 3-6 When the storage unit 6 is not in use, its temperature angle is controlled by the block 13 blocking the strip-shaped air hole 4 to prevent external dust from entering the space formed by the lower shell 1 and the upper shell 2, thereby preventing dust from affecting the performance of the storage unit 6. When the storage body 6 is in use, local high temperatures may be generated. The shape memory alloy 9 near the high temperature position gradually deforms, which causes the block 13 at both ends to move closer to each other. This allows the block 13 and the strip-shaped air hole 4 to gradually form a larger gap, which allows the outside air to exchange heat with the space formed by the lower shell 1 and the upper shell 2, so as to facilitate heat dissipation. Since the storage body 6 does not stay at a high temperature all the time, it can avoid the gap between the block 13 and the strip-shaped air hole 4 from being too large all the time, thus preventing a lot of dust from entering during long-term use. The temperature-sensitive deformation mechanism not only creates a large gap between the block 13 and the strip-shaped vent 4 only at the location where the storage body 6 generates high temperature, but also ensures that the block 13 can block the strip-shaped vent 4 when the storage body 6 is not in a high-temperature working state. This reduces the possibility of dust entering the space formed by the lower shell 1 and the upper shell 2, and ensures effective heat dissipation, thereby ensuring the performance of the storage body 6.

[0021] Example 2: To solve the problem that conventional computer data storage devices cannot quickly and effectively absorb impact force, the following technical solution is provided: energy absorption mechanisms are provided on the lower surface of the upper housing 2 and the inner side of the lower housing 1, and the energy absorption mechanism includes a roller 10 for energy absorption.

[0022] The energy absorption mechanism includes a support arm 14 that is axially connected to each block 13, and a roller 10 is symmetrically connected to the end of each support arm 14. The support arm 14 is inclined to the corresponding block 13. One end of the memory alloy 15 is installed on the lower surface of the upper shell 2 and the inner side of the lower shell 1, and the other end of the memory alloy 15 is connected to one side of the corresponding support arm 14. The memory alloy 15 passes through the corresponding sliding frame 8. Both the memory alloy 9 and the memory alloy 15 are arched structures. The inner side of the arched memory alloy 9 faces the storage body 6, and the outer side of the memory alloy 15 faces the corresponding block 13. The outer side of the roller 10 is wrapped with elastic rubber.

[0023] according to Figures 3-8 When the upper shell 2 or the lower shell 1 is impacted, the impact force will act on the memory alloy 15, causing the memory alloy 15 to bend more, which can absorb a certain impact force. During the bending process, the roller 10 will roll on the surface of the storage body 6, which can convert the impact force into the kinetic energy of the roller 10 rolling. In addition, the elastic rubber on the surface of the roller 10 will also absorb the impact force, thereby quickly absorbing the impact force and greatly reducing the impact of the impact force on the storage body 6. When the storage body 6 is in operation, the high temperature it generates causes shape memory alloy 1 9 and shape memory alloy 2 15 to deform, thereby reducing the squeezing pressure of the roller 10 on them. This increases the upper limit of energy absorption by the energy absorption mechanism, thereby increasing the anti-interference ability of the storage body 6 during operation and preventing it from being affected by impacts when transmitting data.

[0024] The contents not described in detail in this specification are existing technologies known to those skilled in the art.

[0025] 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 data storage device for computer network security, comprising a lower housing (1) and an upper housing (2) bolted thereto, characterized in that: The upper surface of the upper shell (2) and the outer side of the lower shell (1) are provided with recessed grooves (3), and the recessed grooves (3) on the upper shell (2) and the lower shell (1) are provided with strip-shaped air holes (4) for heat dissipation. The upper shell (2) and the lower shell (1) are both penetrated by the corresponding strip-shaped air holes (4). The lower surface of the upper shell (2) and the inner side of the lower shell (1) are provided with energy absorption mechanisms, and the energy absorption mechanisms include rollers (10) for energy absorption. A temperature-sensitive deformation mechanism for controlling the opening and closing of the strip-shaped air holes (4) is installed between the energy absorption mechanisms. A storage body (6) is installed between the rollers (10) on the lower surface of the upper shell (2) and the inner side of the lower shell (1). A transmission connector (7) is provided on the storage body (6). An embedded block (5) is provided on the side of the upper shell (2), and the embedded block (5) is correspondingly provided with the transmission connector (7). A slot hole that matches the transmission connector (7) is opened on the embedded block (5).

2. A data storage device for computer network security according to claim 1, characterized in that: The temperature-sensitive deformation mechanism includes a sliding frame (8) disposed on the lower surface of the upper shell (2) and the inner side of the lower shell (1). The sliding frame (8) is parallel to the corresponding strip-shaped air hole (4). The sliding frame (8) is provided with a sliding groove (11) that runs through its inner and outer sides. A slider (12) is slidably connected to the sliding groove (11). A block (13) is engaged with the inner side of the sliding frame (8). The slider (12) is provided on both sides of the corresponding block (13).

3. A data storage device for computer network security according to claim 2, characterized in that: The blocking block (13) is provided in a one-to-one correspondence with the strip-shaped air hole (4), and the two have the same cross section. The blocking block (13) is used to block the strip-shaped air hole (4).

4. A data storage device for computer network security according to claim 3, characterized in that: The temperature-sensitive deformation mechanism also includes a shape memory alloy (9) connecting two blocks (13) within the same sliding frame (8).

5. A data storage device for computer network security according to claim 4, characterized in that: The width of the shape memory alloy (9) is smaller than the inner width of the sliding frame (8), and the inner width of the strip-shaped air hole (4) is larger than the width of the shape memory alloy (9).

6. A data storage device for computer network security according to claim 5, characterized in that: The sliding frame (8) is evenly distributed on the lower surface of the lower housing (1) and the inner bottom surface of the lower housing (1).

7. A data storage device for computer network security according to claim 6, characterized in that: The energy absorption mechanism includes a support arm (14) that is axially connected to each block (13), and a roller (10) is symmetrically connected to the end of each support arm (14). The support arm (14) is inclined to the corresponding block (13). One end of the shape memory alloy II (15) is installed on the lower surface of the upper shell (2) and the inner side of the lower shell (1), and the other end of the shape memory alloy II (15) is connected to one side of the corresponding support arm (14). The shape memory alloy II (15) passes through the corresponding sliding frame (8).

8. A data storage device for computer network security according to claim 7, characterized in that: Both shape memory alloy one (9) and shape memory alloy two (15) are arched structures, with the inner side of the arched shape memory alloy one (9) facing the storage body (6) and the outer side of the shape memory alloy two (15) facing the corresponding block (13).

9. A data storage device for computer network security according to claim 8, characterized in that: The outer side of the roller (10) is wrapped with elastic rubber.

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