Data acquisition library information safety protection device

Abstract

The invention provides a data acquisition library information safety protection device, and belongs to the technical field of data acquisition, the data acquisition library information safety protection device comprises a data acquisition and storage device body, a downward variable temperature unit III and a traction unit, a page III is arranged on the upper part of the data acquisition and storage device body, and a connecting block III is arranged at one end of the data acquisition and storage device body. The third connecting block is provided with the conveying unit, the third downward temperature changing unit is arranged on the third connecting block, the third downward temperature changing unit is connected with the third connecting block through the conveying unit, and the fin block is arranged in the third downward temperature changing unit. The problems that an existing data acquisition library information safety protection device usually adopts a standing method to volatilize temperature accumulation during operation of a data acquisition and storage device body, the outer wall face of the data acquisition and storage device body is inconvenient to support and protect, combination and separation operation of all parts of the data acquisition and storage device body is not facilitated, and the data acquisition and storage device body cannot be protected are solved. And the protection efficiency of the device is not improved.

Description

Technical field:

[0001] The invention belongs to the technical field of data acquisition, and in particular relates to an information security protection device for a data acquisition library. Background technology:

[0002] Data acquisition refers to the automatic collection of non-electrical or electrical signals from analog and digital units under test, such as sensors and devices under test, and sending them to the host computer for analysis.

[0003] Existing data acquisition library information security protection devices usually use a static method to volatilize the accumulated heat generated during the operation of the data acquisition and storage device body, which is inconvenient to support and protect the outer wall surface of the data acquisition and storage device body, is not conducive to the combination and separation of the various components of the data acquisition and storage device body, and is not conducive to improving the protection efficiency of the device. Summary of the invention:

[0004] The present invention provides a data acquisition library information security protection device, which aims to solve the problems that the existing data acquisition library information security protection device usually uses a static method to volatilize the accumulated heat during the operation of the data acquisition storage device body, it is inconvenient to support and protect the outer wall surface of the data acquisition storage device body, it is not conducive to the combination and separation of the various components of the data acquisition storage device body, and it is not conducive to improving the protection efficiency of the device.

[0005] The embodiment of the present invention provides an information security protection device for a data acquisition library, comprising a data acquisition and storage device body, a downward temperature change unit three and a traction unit, wherein a page three is arranged on the upper part of the data acquisition and storage device body, a connecting block three is arranged at one end of the data acquisition and storage device body, a conveying unit is arranged on the connecting block three, the downward temperature change unit three is arranged on the connecting block three, the downward temperature change unit three is connected with the connecting block three via the conveying unit, a wing block is arranged in the downward temperature change unit three, a downward temperature change unit four is arranged on the downward temperature change unit three, the downward temperature change unit four is connected with the traction unit at the tail via a drainage path, a linkage block three is arranged on the upper part of the traction unit, the linkage block three has the property of attracting substances such as iron, cobalt and nickel, a linkage block four is arranged on the lower part of the data acquisition and storage device body, the linkage block four has the property of attracting substances such as iron, cobalt and nickel, and the traction unit is arranged on the lower part of the data acquisition and storage device body through the linkage block three and the linkage block four.

[0006] The downward temperature-changing unit three includes a protective block and a through hole. The wing block is arranged in the protective block. The lower end of the protective block is connected to the downward temperature-changing unit four via a drainage path four. A conveying block three is arranged on the back of the protective block, and the conveying block three is connected to the conveying unit.

[0007] The fluid in the drainage path passes upward from the gap between the fin blocks, and the protection block is in contact with the connection block.

[0008] The conveying unit includes a concave hole four and a conveying block four. The concave hole four is reserved in the conveying block four, and a plurality of the concave hole four and the conveying block four are installed.

[0009] The conveying block three extends into the concave hole four, and the concave hole four is higher than the conveying block three.

[0010] The downward temperature-changing unit four comprises a drainage path three and a leaf plate four, wherein the leaf plate four is arranged on the upper end of the drainage path three, a branch path is arranged at the tail of the drainage path three, a drainage path five is arranged at the lower end of the branch path, and the drainage path five is connected to the traction unit.

[0011] The drainage path five is connected to the drainage path four, the tail of the drainage path three is at a right angle to the drainage path five and the drainage path four, and a screening cover is arranged on the top of the leaf piece four.

[0012] The traction unit comprises a connecting block four and a supporting seat, a drainage hole is reserved on the supporting seat, a separation layer is arranged on the upper end of the supporting seat, the upper end of the separation layer is connected to the connecting block four, and the linkage block three is arranged on the connecting block four.

[0013] A connecting rod is arranged on the supporting seat, a concave hole three is reserved at the lower end of the connecting block four, and the connecting rod is arranged in the concave hole three.

[0014] A supporting block is arranged at the lower end of the data acquisition and storage device body, the traction unit is arranged in the supporting block, a rubber block is arranged at the lower end of the supporting seat, and an inner chamber is reserved in the connecting block.

[0015] The beneficial effects of the present invention are:

[0016] 1. The present invention improves the downward temperature change efficiency of the data acquisition and storage device body through the downward temperature change unit three and the traction unit. The downward temperature change unit three is installed on the connecting block three, and a lower temperature fluid is introduced into the protective block through the downward temperature change unit four, which is beneficial to the discharge of the higher temperature contained in the protective block. Through the installation of the downward temperature change unit three, the downward temperature change unit four can change the temperature of the lower end of the data acquisition and storage device body and the downward temperature change unit three at the same time, which is beneficial to saving resources and fully changing the temperature of the data acquisition and storage device body downward. In the operation stage, the protective block is contacted with the connecting block three, and the higher temperature on the connecting block three is guided into the protective block through the conveying unit on the connecting block three. Through the installation of the wing block, after the protective block discharges the higher temperature in the connecting block three through the conveying unit, it is beneficial to efficiently transport it on the wing block. After contacting with the fluid, the downward temperature change efficiency is improved.

[0017] 2. The present invention guides the higher temperature on the connecting block three to the conveying block four, and extends the conveying block three on the protective block into the inner part of the concave hole four, so as to guide the higher temperature contained in the conveying block four to the conveying block three, and then changes the temperature downward from the protective block. The downward temperature changing unit four changes the temperature downwards together with the lower end of the data acquisition and storage device body and the downward temperature changing unit three, and operates the leaf four of the downward temperature changing unit four to guide the lower temperature fluid outside the device from the drainage path three. After reaching the branch path, because the tail of the drainage path three is at right angles to the drainage paths five and four, some fluid is guided upward to the protective block, and the higher temperature in the wing block is pulled upward and leaves from the through hole at the upper end, which is beneficial to the downward temperature change in the protective block. Some fluid is transported to the bottom from the downward temperature changing channel at the lower end to the traction unit, and is used for the downward temperature change of the data acquisition and storage device body.

[0018] 3. The present invention is connected with the connecting block four through the upper end of the separation layer, and the linkage block three is installed on the connecting block four. The drainage hole at the lower end of the data acquisition and storage device body is installed aside through the traction unit so that it does not face the ground, thereby preventing the accumulation of impurity particles on the ground in the drainage hole. Through the installation of the linkage block three and the linkage block four, the connecting block four is pushed to the data acquisition and storage device body, and the side part is sealed through the separation layer at the lower end of the connecting block four, so that the lower temperature fluid in the drainage path five is only guided outward to the data acquisition and storage device body, and through the drainage path in the support seat, the fluid introduction part is limited to the downward temperature change unit four far away from the flat ground, thereby reducing the frequency of impurity particles entering the data acquisition and storage device body.

[0019] 4. The present invention connects the connecting block 4 and the supporting seat through the separation layer in the traction unit, which is conducive to the connection block 4 being attached to the lower end of the data acquisition and storage device body, and the supporting seat is placed on the flat ground to pull the downward temperature-changing unit 3, and the lower traction unit is extended into the data acquisition and storage device body, and the upper connecting block 4 is connected to the lower end of the data acquisition and storage device body through the linkage block 3 and the linkage block 4. When extending the traction unit, the conveying block 3 is extended into the concave hole 4 to release the downward temperature-changing unit 3. Because the concave hole 4 is higher than the conveying block 3, in the stage of the downward temperature-changing unit 3 falling, the conveying block 3 is in the concave hole 4, and the supporting seat at the lower end moves downward. The connecting block 4 is attached to the lower end of the data acquisition and storage device body due to the magnet, so the external downward temperature-changing mechanism is pressed on the ground through the rubber block at the bottom. When separating the components, the downward temperature-changing unit 3 is lifted up and the connecting rod is extended into the concave hole 3, which is conducive to pulling out the connecting block 4.

[0020] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood through implementation of the present invention. The purpose and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. Description of the drawings:

[0021] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0022] Figure 1 It is a structural diagram of the data acquisition and storage device of the present invention;

[0023] Figure 2 It is a structural diagram of the protection block of the present invention;

[0024] Figure 3 It is a structural diagram of the supporting seat of the present invention;

[0025] Figure 4 This is a structural diagram of the downward temperature changing unit 4 of the present invention;

[0026] Figure 5 It is the structural diagram of the conveying block three of the present invention.

[0027] Figure numerals: 2, data acquisition storage device body; 3, supporting block; 4, leaf three; 5, downward temperature change unit three; 6, downward temperature change unit four; 7, traction unit; 8, through hole; 9, conveying unit; 10, connecting block three; 21, protective block; 22, supporting seat; 23, separation layer; 24, connecting block four; 25, linkage block three; 26, linkage block four; 27, drainage hole; 28, connecting lever; 29, concave hole three; 210, drainage path three; 31, leaf four; 32, branch; 33, drainage path four; 34, drainage path five; 35, conveying block three; 36, concave hole four; 37, conveying block four; 38, rubber block; 39, wing block. Specific implementation method:

[0028] In order to make the purpose, technical solution and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same parts. It should be noted that the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described 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.

[0029] Reference Figure 1-Figure 5The embodiment of the present invention proposes an information security protection device for a data acquisition library, comprising a data acquisition storage device body 2, a downward temperature change unit 3 5 and a traction unit 7. A leaf piece 3 4 is arranged on the upper part of the data acquisition storage device body 2, a connecting block 3 10 is arranged at one end of the data acquisition storage device body 2, a conveying unit 9 is arranged on the connecting block 3 10, the downward temperature change unit 3 5 is arranged on the connecting block 3 10, the downward temperature change unit 3 5 is connected to the connecting block 3 10 via the conveying unit 9, a wing block 39 is arranged in the downward temperature change unit 3 5, a downward temperature change unit 4 6 is arranged on the downward temperature change unit 3 5, the downward temperature change unit 4 6 is connected to the traction unit 7 at the tail via a drainage path, and the traction unit A linkage block three 25 is arranged on the top of 7, and the linkage block three 25 has the property of attracting substances such as iron, cobalt, and nickel. A linkage block four 26 is arranged on the bottom of the data acquisition and storage device body 2, and the linkage block four 26 has the property of attracting substances such as iron, cobalt, and nickel. The traction unit 7 is attached to the bottom of the data acquisition and storage device body 2 through the linkage block three 25 and the linkage block four 26. The downward temperature change efficiency of the data acquisition and storage device body 2 is improved through the downward temperature change unit three 5 and the traction unit 7. The downward temperature change unit three 5 is arranged on the connecting block three 10, and a lower temperature fluid is introduced into the protective block 21 through the downward temperature change unit four 6, which is conducive to the discharge of the higher temperature contained in the protective block 21.

[0030] The downward temperature changing unit 35 includes a protective block 21 and a through hole 8, a fin block 39 is arranged in the protective block 21, and the lower end of the protective block 21 is connected to the downward temperature changing unit 46 via a drainage path 433. A conveying block 35 is arranged on the back of the protective block 21, and the conveying block 35 is conducive to conveying a higher temperature. The conveying block 35 is connected to the conveying unit 9, and the fluid in the drainage path 433 passes upward from the gap of the fin block 39, and the protective block 21 is in contact with the connecting block 310. Through the installation of the downward temperature changing unit 35, the downward temperature changing unit 46 is conducive to data collection. The lower head of the storage device body 2 and the downward temperature change unit 3 5 change temperature downward together, which is beneficial to saving resources and fully changing the temperature downward of the data acquisition storage device body 2. In the operation stage, the protection block 21 is touched with the connecting block 3 10, and the higher temperature on the connecting block 3 10 is guided to the protection block 21 through the conveying unit 9 on the connecting block 3 10. Through the installation of the fin block 39, after the protection block 21 guides the higher temperature in the connecting block 3 10 through the conveying unit 9, it is beneficial to efficiently transport it on the fin block 39. After contacting with the fluid, the downward temperature change efficiency is improved.

[0031] The conveying unit 9 includes a concave hole 436 and a conveying block 437. The conveying block 437 is conducive to conveying a higher temperature. The concave hole 436 is reserved in the conveying block 437. A plurality of concave holes 436 and conveying blocks 437 are installed. The conveying block 335 extends into the concave hole 436. The concave hole 436 is higher than the conveying block 335. It is connected to the connecting block 310 on both sides of the conveying block 437 to guide the higher temperature on the connecting block 310 to the conveying block 437. The conveying block 335 on the protective block 21 extends into the inner part of the concave hole 436 to guide the higher temperature contained in the conveying block 437 to the conveying block 335, and then changes the temperature downward from the protective block 21.

[0032] The downward temperature changing unit 46 comprises a drainage path 3 210 and a leaf 4 31, the leaf 4 31 is arranged on the upper end of the drainage path 3 210, the tail of the drainage path 3 210 is arranged with a branch 32, the lower end of the branch 32 is arranged with a drainage path 5 34, the drainage path 5 34 is connected to the traction unit 7, the drainage path 5 34 is connected to the drainage path 4 33, the tail of the drainage path 3 210 and the drainage paths 5 34 and 4 33 are at right angles, the upper end of the leaf 4 31 is arranged with a screening cover, the downward temperature changing unit 46 is connected to the lower end of the data acquisition storage device body 2 and the downward temperature changing unit 35 The temperature is changed downwardly by operating the leaf four 31 of the downward temperature change unit four 6, and the lower temperature fluid outside the device is introduced through the drainage path three 210. After reaching the branch path 32, because the tail of the drainage path three 210 is at a right angle to the drainage path five 34 and the drainage path four 33, some of the fluid is guided upward to the protective block 21, and the higher temperature in the wing block 39 is pulled upward and leaves from the through hole 8 at the upper end, which is beneficial to the downward temperature change in the protective block 21. Some of the fluid is transported to the bottom of the traction unit 7 from the downward temperature change channel 34 at the lower end, and is used for the downward temperature change of the data acquisition and storage device body 2.

[0033] The traction unit 7 includes a connection block 24 and a support seat 22. A drainage hole 27 is reserved on the support seat 22. A separation layer 23 is arranged on the upper end of the support seat 22. The upper end of the separation layer 23 is connected to the connection block 24. The linkage block 3 25 is arranged on the connection block 24. The drainage hole 27 at the lower end of the data acquisition and storage device body 2 is arranged aside by the traction unit 7 so that it does not face the ground, thereby preventing the impurity particles on the ground from accumulating in the drainage hole 27. With the installation of the linkage block four 26, the connecting block four 24 is pushed against the data acquisition and storage device body 2, and the side part is sealed through the separation layer 23 at the bottom of the connecting block four 24, so that the lower temperature fluid in the drainage path five 34 is only guided out to the top to the data acquisition and storage device body 2, and the fluid introduction part is limited to the downward temperature change unit four 6 far from the ground through the drainage path in the support seat 22, thereby reducing the frequency of impurity particles entering the data acquisition and storage device body 2.

[0034] A connecting rod 28 is arranged on the supporting seat 22, a concave hole 3 29 is reserved at the lower end of the connecting block 24, the connecting rod 28 is arranged in the concave hole 3 29, a supporting block 3 is arranged at the lower end of the data acquisition and storage device body 2, a traction unit 7 is arranged in the supporting block 3, a rubber block 38 is arranged at the lower end of the supporting seat 22, and an inner chamber is reserved for the connecting block 24. The connecting block 24 and the supporting seat 22 are connected via a separation layer 23 in the traction unit 7, which is conducive to attaching the connecting block 24 to the lower end of the data acquisition and storage device body 2. The supporting seat 22 is placed on the flat ground, and the temperature changing unit 3 5 is pulled downward, and the traction unit 7 at the lower end is extended into the data acquisition and storage device body 2, and the upper connecting block 24 is connected to the supporting seat 22. The linkage block 3 25 and the linkage block 4 26 are in contact with the lower end of the data acquisition and storage device body 2. When the traction unit 7 is extended, the conveying block 3 35 is extended into the concave hole 4 36 to release the downward temperature-changing unit 3 5. Because the concave hole 4 36 is higher than the conveying block 3 35, during the stage of the downward temperature-changing unit 3 5 falling, the conveying block 3 35 is in the concave hole 4 36, and the lower support seat 22 moves downward. The connecting block 4 24 is attached to the lower end of the data acquisition and storage device body 2 due to the magnet. Therefore, the external downward temperature-changing mechanism is pressed on the ground through the rubber block 38 at the bottom. When separating the components, the downward temperature-changing unit 3 5 is lifted up to extend the connecting rod 28 into the concave hole 3 29, which is conducive to pulling out the connecting block 4 24.

[0035] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A data collection database information security protection device, characterized in that: The invention comprises a data acquisition and storage device body (2), a downward temperature-changing unit three (5) and a traction unit (7); a leaf piece three (4) is arranged on the top of the data acquisition and storage device body (2); a connecting block three (10) is arranged on one end of the data acquisition and storage device body (2); a conveying unit (9) is arranged on the connecting block three (10); the downward temperature-changing unit three (5) is arranged on the connecting block three (10); the downward temperature-changing unit three (5) is connected to the connecting block three (10) via the conveying unit (9); a wing block (39) is arranged in the downward temperature-changing unit three (5); the downward temperature-changing unit three (5) is connected to the connecting block three (10) via the conveying unit (9); a wing block (39) is arranged in the downward temperature-changing unit three (5); A downward temperature changing unit four (6) is arranged on the third (5), and the downward temperature changing unit four (6) is connected to the traction unit (7) at the tail via a drainage path. A linkage block three (25) is arranged on the top of the traction unit (7), and the linkage block three (25) has the property of attracting substances such as iron, cobalt, and nickel. A linkage block four (26) is arranged on the bottom of the data acquisition and storage device body (2), and the linkage block four (26) has the property of attracting substances such as iron, cobalt, and nickel. The traction unit (7) is arranged on the bottom of the data acquisition and storage device body (2) via the linkage block three (25) and the linkage block four (26).

2. The data collection database information security protection device according to claim 1, characterized in that: The downward temperature-changing unit three (5) comprises a protective block (21) and a through hole (8); the wing block (39) is arranged in the protective block (21); the lower end of the protective block (21) is connected to the downward temperature-changing unit four (6) via a drainage path four (33); a conveying block three (35) is arranged on the back of the protective block (21); and the conveying block three (35) is connected to the conveying unit (9).

3. The data collection database information security protection device according to claim 2 is characterized in that: The fluid in the drainage path four (33) passes upward through the gap between the fin blocks (39), and the protection block (21) contacts the connection block three (10).

4. The data collection database information security protection device according to claim 2 is characterized in that: The conveying unit (9) comprises a concave hole four (36) and a conveying block four (37), wherein the concave hole four (36) is reserved in the conveying block four (37), and a plurality of the concave hole four (36) and the conveying block four (37) are arranged.

5. The data collection database information security protection device according to claim 4 is characterized in that: The conveying block three (35) extends into the concave hole four (36), and the concave hole four (36) is higher than the conveying block three (35).

6. The data collection database information security protection device according to claim 2, characterized in that: The downward temperature-changing unit four (6) comprises a drainage path three (210) and a leaf piece four (31), wherein the leaf piece four (31) is arranged on the upper end of the drainage path three (210), a branch path (32) is arranged at the tail end of the drainage path three (210), a drainage path five (34) is arranged at the lower end of the branch path (32), and the drainage path five (34) is connected to the traction unit (7).

7. The data collection database information security protection device according to claim 6 is characterized in that: The drainage path five (34) is connected to the drainage path four (33), the tail of the drainage path three (210) is at a right angle to the drainage path five (34) and the drainage path four (33), and a screening cover is installed on the top of the leaf piece four (31).

8. The data collection database information security protection device according to claim 6, characterized in that: The traction unit (7) comprises a connecting block four (24) and a supporting seat (22), a drainage hole (27) is reserved on the supporting seat (22), a separation layer (23) is arranged on the upper end of the supporting seat (22), the upper end of the separation layer (23) is connected to the connecting block four (24), and the linkage block three (25) is arranged on the connecting block four (24).

9. The data collection database information security protection device according to claim 8, characterized in that: A connecting rod (28) is arranged on the supporting seat (22), a concave hole (29) is reserved at the lower end of the connecting block (24), and the connecting rod (28) is arranged in the concave hole (29).

10. The data collection database information security protection device according to claim 9, characterized in that: A supporting block (3) is arranged at the bottom of the data acquisition and storage device body (2), the traction unit (7) is arranged inside the supporting block (3), a rubber block (38) is arranged at the bottom of the supporting seat (22), and an inner chamber is reserved in the connecting block four (24).

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