A data center cold source simulation control box

Abstract

The utility model relates to related technical field of data center especially relates to a data center cold source simulation control box, including control box main part, the surface one side of control box main part is provided with buffer mechanism, the surface one side of control box main part is provided with replacement mechanism. When the vibration of outside produces, vibration is transmitted to the buffer pad first, and the buffer pad absorbs part vibration energy, and then the remaining vibration energy is transmitted to the shock absorber and telescopic link through the base, at this moment, the shock absorber starts to work, and the elastic element in it deforms under the action of vibration, and part of the vibration mechanical energy is converted into elastic potential energy and stored, so as to slow down the transmission of vibration. At the same time, the damping material in the shock absorber generates friction and viscous resistance during the vibration process, so that the vibration energy is converted into heat energy and dissipated, and the amplitude and duration of vibration are inhibited. At this moment, the control box main part on the surface of the supporting plate is not affected by vibration, so as to reduce the influence of vibration on the internal elements of the control box main part.

Description

Technical Field

[0001] This utility model relates to the field of data center related technology, and in particular to a data center cold source simulation control box. Background Technology

[0002] In modern control centers, the cooling system is crucial for maintaining the normal operation of equipment and a stable environment. With continuous technological advancements, control center equipment is becoming increasingly complex, placing higher demands on the cooling system. Traditional cooling system control methods often fall short of requirements for precise control, energy optimization, and fault simulation. To better manage and optimize the cooling system, improve its operational efficiency and reliability, and reduce energy consumption, a device capable of precise simulation and control of the cooling system is needed. The control center cooling simulation control box has emerged to address this need. Utilizing advanced sensor technology, data processing technology, and control algorithms, it can monitor and simulate various parameters of the cooling system in real time, such as temperature, pressure, and flow rate. Based on preset rules and algorithms, it precisely controls the cooling equipment, achieving optimized operation and fault diagnosis of the cooling system, providing strong support for the stable operation of the control center. Therefore, a data center cooling simulation control box is particularly needed.

[0003] However, existing data center cold source simulation control boxes are easily affected by external vibrations during operation, which can affect the stability and lifespan of internal components. Utility Model Content

[0004] The purpose of this utility model is to provide a data center cold source simulation control box to solve the problem mentioned in the background art that the existing data center cold source simulation control box is easily affected by external vibration interference during operation, thereby affecting the stability and service life of internal components.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a data center cold source simulation control box, including a control box body, a buffer mechanism provided on one side of the surface of the control box body, a replacement mechanism provided on one side of the surface of the control box body, a ventilation opening provided on one side of the surface of the control box body, and a dustproof net embedded inside the ventilation opening;

[0006] The buffer mechanism includes a support plate, a shock absorber, a telescopic rod, a base, and a buffer pad. The support plate is connected to one side of the surface of the control box body, the shock absorber is connected to one side of the surface of the support plate, the telescopic rod is connected to one side of the surface of the support plate, one end of the telescopic rod is connected to the base, and the buffer pad is connected to one side of the surface of the base.

[0007] Preferably, one side of the surface of the cushioning pad is in contact with the base, and the cushioning pad is made of rubber.

[0008] Preferably, one end of the shock absorber is connected to the base, and four sets of shock absorbers are provided, which are distributed at equal intervals.

[0009] Preferably, the telescopic rods are provided in four sets, and the telescopic rods are distributed at equal intervals.

[0010] Preferably, the replacement mechanism includes a first locking block, a baffle, a limiting groove, a reset spring, a limiting block, a second locking block, and a push block. The first locking block is connected to one side of the surface of the control box body, the baffle is connected to one side of the surface of the control box body, a limiting groove is formed on one side of the surface of the control box body, a reset spring is embedded inside the control box body, one end of the reset spring is connected to the limiting block, the second locking block is connected to one side of the surface of the limiting block, and the push block is connected to one side of the surface of the second locking block.

[0011] Preferably, the reset spring is fitted inside the limiting groove, and the limiting block is fitted inside the limiting groove.

[0012] Preferably, the reset spring is provided in three sets, and the reset springs are distributed at equal intervals.

[0013] Compared with the prior art, the beneficial effects of this utility model are as follows: This data center cold source simulation control box first absorbs part of the vibration energy through the buffer pad, and the remaining energy is transferred to the shock absorber and telescopic rod through the base. The shock absorber further buffers the vibration, so that the main body of the control box is protected from the impact of vibration, effectively reducing the impact of vibration on internal components, ensuring stable operation of components, and extending service life. The replacement mechanism cleverly uses components such as return springs and locking blocks to realize convenient disassembly and installation of the dust screen. While avoiding damage to the equipment caused by frequent disassembly, the dust screen continuously filters to prevent dust from entering and aggravating component wear. It complements the buffer mechanism and comprehensively improves the reliability and durability of the control box in complex environments. Attached Figure Description

[0014] Figure 1 This is a side view of the appearance structure of this utility model;

[0015] Figure 2 This is an exploded view of the buffer mechanism of this utility model;

[0016] Figure 3 This is an exploded view of the replacement mechanism of this utility model;

[0017] Figure 4 This utility model Figure 3 Enlarged structural diagram at point A in the middle.

[0018] In the diagram: 1. Control box body; 2. Buffer mechanism; 201. Support plate; 202. Shock absorber; 203. Telescopic rod; 204. Base; 205. Buffer pad; 3. Replacement mechanism; 301. First locking block; 302. Baffle; 303. Limiting groove; 304. Return spring; 305. Limiting block; 306. Second locking block; 307. Push block; 4. Ventilation opening; 5. Dustproof net. Detailed Implementation

[0019] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0020] Please see Figure 1-4 This utility model provides a technical solution: a data center cold source simulation control box, including a control box body 1, a buffer mechanism 2 is provided on one side of the surface of the control box body 1, a replacement mechanism 3 is provided on one side of the surface of the control box body 1, a ventilation opening 4 is opened on one side of the surface of the control box body 1, and a dustproof net 5 is embedded inside the ventilation opening 4.

[0021] The buffer mechanism 2 includes a support plate 201, a shock absorber 202, a telescopic rod 203, a base 204, and a buffer pad 205. The support plate 201 is connected to one side of the surface of the control box body 1. The shock absorber 202 is connected to one side of the surface of the support plate 201. The telescopic rod 203 is connected to one side of the surface of the support plate 201. One end of the telescopic rod 203 is connected to the base 204. The buffer pad 205 is connected to one side of the surface of the base 204. In use, the control box body 1 is first placed on the surface of the support plate 201. When external vibration occurs, the vibration is first transmitted to the buffer pad 205, which absorbs part of the vibration energy. Subsequently, the remaining vibration energy is transmitted through the base 204. The vibration energy is transmitted from the seat 204 to the shock absorber 202 and the telescopic rod 203. At this time, the shock absorber 202 starts to work. The shock absorber 202 includes an elastic element, damping material, connecting plate, support plate and seal. The elastic element inside deforms under the action of vibration, converting part of the vibration mechanical energy into elastic potential energy and storing it, thereby slowing down the transmission of vibration. At the same time, the damping material inside the shock absorber 202 generates friction and viscous resistance during vibration, so that the vibration energy is converted into heat energy and dissipated, suppressing the amplitude and duration of vibration. At this time, the control box body 1 on the surface of the support plate 201 is not vibrated, thereby reducing the impact of vibration on the internal components of the control box body 1.

[0022] Furthermore, one side of the surface of the buffer pad 205 is in contact with the base 204. The buffer pad 205 is made of rubber. With the setting of the buffer pad 205, during use, the buffer pad 205 directly contacts the external object that may vibrate, and is the first to receive the vibration energy. Through its own material properties, it absorbs part of the vibration energy, reducing the vibration intensity transmitted to the base 204 and subsequent components.

[0023] Furthermore, one end of the shock absorber 202 is connected to the base 204. Four sets of shock absorbers 202 are provided, and the shock absorbers 202 are evenly distributed. Through the arrangement of the shock absorbers 202, when the shock absorber 202 is subjected to vibration, its internal elastic element deforms under the vibration action, converting part of the vibration mechanical energy into elastic potential energy for storage, thereby slowing down the transmission of vibration. At the same time, the damping material inside the shock absorber 202 generates friction and viscous resistance during vibration, causing the vibration energy to be converted into heat energy and dissipated, suppressing the amplitude and duration of vibration.

[0024] Furthermore, four sets of telescopic rods 203 are provided, and the telescopic rods 203 are distributed at equal intervals. Through the setting of the telescopic rods 203, during use, the telescopic rods 203 are used to reinforce and support, ensuring that the buffer action is stable in the vertical direction, and also enhancing the structural stability of the entire buffer mechanism 2.

[0025] Furthermore, the replacement mechanism 3 includes a first locking block 301, a baffle 302, a limiting groove 303, a return spring 304, a limiting block 305, a second locking block 306, and a push block 307. The first locking block 301 is connected to one side of the surface of the control box body 1, the baffle 302 is connected to one side of the surface of the control box body 1, a limiting groove 303 is formed on one side of the surface of the control box body 1, a return spring 304 is fitted inside the control box body 1, one end of the return spring 304 is connected to the limiting block 305, the second locking block 306 is connected to one side of the surface of the limiting block 305, and the push block 307 is connected to one side of the surface of the second locking block 306. Through the design of the first locking block 301, the baffle 302, the limiting groove 303, the return spring 304, the limiting block 305, the second locking block 306, and the push block 307... When using the device, if the dust filter 5 needs to be replaced, the user first pushes the push block 307. Then, the push block 307 drives the limit block 305 to move inside the limit groove 303 through the second locking block 306. After that, the limit block 305 squeezes the reset spring 304, and the reset spring 304 is compressed. When the second locking block 306 is completely disengaged from the baffle 302, the baffle 302 is removed from one side of the first locking block 301. At this time, the dust filter 5 can be pulled out from the vent 4. Then, the new dust filter 5 is placed back into the vent 4. Then, one side of the baffle 302 is horizontally inserted into the first locking block 301, and the push block 307 is released at the same time. At this time, the reset spring 304 rebounds and drives the limit block 305 and the second locking block 306 to reset. At this time, the second locking block 306 locks the other side of the baffle 302, and the replacement is completed.

[0026] Furthermore, the reset spring 304 is fitted inside the limiting groove 303, and the limiting block 305 is fitted inside the limiting groove 303. With the setting of the limiting block 305, during use, the limiting block 305 moves within the limiting groove 303. By connecting the second locking block 306 and the reset spring 304, the elastic force of the reset spring 304 is transmitted, thereby driving the second locking block 306 to perform locking and unlocking actions.

[0027] Furthermore, three sets of reset springs 304 are provided, and the reset springs 304 are distributed at equal intervals. By providing the reset springs 304, when the push block 307 is pushed, the reset springs 304 can be compressed by force to store elastic potential energy. When the push block 307 is released, the elastic potential energy is used to rebound and drive the limit block 305 and the second locking block 306 to reset.

[0028] Working principle: When the dust filter 5 needs to be replaced, the user first pushes the push block 307. Then, the push block 307 drives the limit block 305 to move inside the limit groove 303 through the second locking block 306. After that, the limit block 305 squeezes the return spring 304, and the return spring 304 is compressed. When the second locking block 306 is completely disengaged from the baffle 302, the baffle 302 is removed from one side of the first locking block 301. At this time, the dust filter 5 can be pulled out from the vent 4. Then, the new dust filter 5 is put back into the vent 4 along the same path. Then, one side of the baffle 302 is horizontally inserted into the first locking block 301, and the push block 307 is released at the same time. At this time, the return spring 304 rebounds and drives the limit block 305 and the second locking block 306 to reset. At this time, the second locking block 306 locks the other side of the baffle 302, and the process is complete. When the vibration occurs after the replacement, it is first transmitted to the buffer pad 205, which absorbs part of the vibration energy. Then, the remaining vibration energy is transmitted to the shock absorber 202 and the telescopic rod 203 through the base 204. At this time, the shock absorber 202 starts to work. Its internal elastic element deforms under the action of vibration, converting part of the vibration mechanical energy into elastic potential energy and storing it, thereby slowing down the transmission of vibration. At the same time, the damping material in the shock absorber 202 generates friction and viscous resistance during the vibration process, which converts the vibration energy into heat energy and dissipates it, suppressing the amplitude and duration of vibration. At this time, the control box body 1 on the surface of the support plate 201 is not vibrated, thereby reducing the impact of vibration on the internal components of the control box body 1. The model of the shock absorber 202 is: JB-S-10.

[0029] Although embodiments of the present 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 present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A data center cold source simulation control box, comprising a control box body (1), characterized in that: A buffer mechanism (2) is provided on one side of the surface of the control box body (1), a replacement mechanism (3) is provided on one side of the surface of the control box body (1), and a ventilation opening (4) is provided on one side of the surface of the control box body (1). A dustproof net (5) is embedded inside the ventilation opening (4). The buffer mechanism (2) includes a support plate (201), a shock absorber (202), a telescopic rod (203), a base (204), and a buffer pad (205). The support plate (201) is connected to one side of the surface of the control box body (1). The shock absorber (202) is connected to one side of the surface of the support plate (201). The telescopic rod (203) is connected to one side of the surface of the support plate (201). One end of the telescopic rod (203) is connected to the base (204). The buffer pad (205) is connected to one side of the surface of the base (204).

2. The data center cold source simulation control box according to claim 1, characterized in that: The surface of the buffer pad (205) is attached to the base (204) on one side, and the buffer pad (205) is made of rubber.

3. The data center cold source simulation control box according to claim 1, characterized in that: One end of the shock absorber (202) is connected to the base (204). There are four sets of shock absorbers (202), and the shock absorbers (202) are distributed at equal intervals.

4. The data center cold source simulation control box according to claim 1, characterized in that: The telescopic rods (203) are provided in four sets, and the telescopic rods (203) are distributed at equal intervals.

5. A data center cold source simulation control box according to claim 1, characterized in that: The replacement mechanism (3) includes a first locking block (301), a baffle (302), a limiting groove (303), a reset spring (304), a limiting block (305), a second locking block (306), and a push block (307). The first locking block (301) is connected to one side of the surface of the control box body (1), the baffle (302) is connected to one side of the surface of the control box body (1), a limiting groove (303) is opened on one side of the surface of the control box body (1), a reset spring (304) is fitted inside the control box body (1), one end of the reset spring (304) is connected to the limiting block (305), the second locking block (306) is connected to one side of the surface of the limiting block (305), and the push block (307) is connected to one side of the surface of the second locking block (306).

6. A data center cold source simulation control box according to claim 5, characterized in that: The reset spring (304) is fitted inside the limiting groove (303), and the limiting block (305) is fitted inside the limiting groove (303).

7. A data center cold source simulation control box according to claim 5, characterized in that: The reset spring (304) is provided in three sets, and the reset spring (304) is distributed at equal intervals.

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