A server runtime environment intelligent control system

Abstract

This invention provides an intelligent control system for a server operating environment, belonging to the technical field of server auxiliary control tools. The intelligent control system for a server operating environment provided by this invention includes a dust removal chamber, a dehumidification chamber, a temperature regulation chamber, and a working chamber. Outside air passes through the dust removal chamber for humidification and dust removal, then enters the dehumidification chamber for humidity regulation, enters the temperature regulation chamber for temperature regulation, and enters the working chamber. The working chamber is equipped with dust monitoring components, temperature monitoring components, and humidity monitoring components. A temperature regulation and recirculation component is installed between the working chamber and the temperature regulation chamber to achieve air circulation and temperature regulation between them. A dehumidification recirculation component is installed between the working chamber and the dehumidification chamber; if the humidity in the working chamber exceeds the standard, the air in the working chamber flows back into the dehumidification chamber. A dust recirculation component is installed between the working chamber and the dust removal chamber; if excessive dust is detected, the air in the working chamber flows back into the dust removal chamber. This intelligent control system for a server operating environment provides effective control of server environmental conditions.

Description

Technical Field

[0001] This invention belongs to the technical field of server auxiliary control tools, specifically relating to an intelligent control system for server operating environment. Background Technology

[0002] The power industry is currently experiencing rapid growth. To address this, a new substation operation and maintenance model of "centralized monitoring + intelligent inspection + sequential control" has been proposed. This involves deploying a new generation of integrated main and auxiliary control station monitoring systems and remote intelligent inspection systems, implementing one-click sequential control upgrades for substation equipment, and comprehensively promoting the "two substitutions" in substation management. This effectively enhances the intensity of substation operation and maintenance monitoring, the granularity of equipment management, and the level of production informatization, achieving a comprehensive upgrade of the control station's management functions, business capabilities, and support methods. During this upgrade process, to support the rapid development of the power industry, a large number of intelligent substations need to be built or existing intelligent substations need to be upgraded. With the gradual advancement of intelligentization, the application of servers is becoming increasingly widespread. Each substation typically needs to be equipped with 4 to 10 servers, and the normal operation of these servers directly affects the safe and reliable operation of the substation. To extend the lifespan of servers during operation, high requirements are placed on external environmental conditions. The ambient temperature range is 18–25℃, and the humidity is between 45% and 65%, with a humidity change rate not exceeding 5% / hour. Condensation must be prevented, good ventilation must be maintained, server racks must be securely placed, and appropriate dust prevention measures must be implemented to ensure environmental cleanliness. Currently, over 80% of operating substations fail to meet these requirements. Inadequate sealing within the server enclosures leads to significant dust accumulation both inside and outside the servers. Poor ventilation and cooling result in high server operating temperatures, directly causing increased noise and damage to electrical components. Consequently, servers in substations often fail to reach their expected service life (around 10 years), typically becoming unusable after only 4–6 years. This large number of prematurely decommissioned servers significantly increases the operating costs of substations. Summary of the Invention

[0003] The purpose of this invention is to provide an intelligent control system for the server operating environment, which aims to solve the problem of difficulty in controlling the temperature, humidity and dust concentration in the server working environment.

[0004] To achieve the above objectives, the technical solution adopted by the present invention is as follows: An intelligent control system for a server operating environment is provided, comprising a dust removal chamber, a dehumidification chamber, a temperature regulation chamber, and a working chamber connected sequentially from left to right. The server is placed in the working chamber. Outside air passes through the dust removal chamber for humidification and dust removal, enters the dehumidification chamber to regulate humidity, enters the temperature regulation chamber to regulate temperature, and then enters the working chamber. The working chamber is equipped with a dust monitoring component, a temperature monitoring component, and a humidity monitoring component. A temperature regulation reflux component is installed between the working chamber and the temperature regulation chamber to achieve air circulation and temperature regulation between the temperature regulation chamber and the working chamber. A dehumidification reflux component is installed between the working chamber and the dehumidification chamber. If the humidity monitoring component detects that the humidity in the working chamber exceeds the standard, the gas in the working chamber flows back into the dehumidification chamber. A dust reflux component is installed between the working chamber and the dust removal chamber. If the dust monitoring component detects that the dust exceeds the standard, the gas in the working chamber flows back into the dust removal chamber.

[0005] In one possible implementation, the temperature-regulating chamber is equipped with a temperature-regulating component that regulates the air temperature. The temperature-regulating component includes a temperature-regulating wall disposed between opposite sidewalls of the temperature-regulating chamber. The temperature-regulating wall is perpendicular to the air direction and divides the temperature-regulating chamber into two spaces, a left temperature-regulating cavity and a right temperature-regulating cavity, respectively. An air conditioner is installed on the temperature-regulating wall. The air conditioner regulates the temperature of the air in the left temperature-regulating cavity and delivers it to the right temperature-regulating cavity, where it enters the working chamber.

[0006] In one possible implementation, the temperature regulation and recirculation assembly includes a temperature regulation and recirculation pipe connecting the working chamber and the temperature regulation chamber. The temperature monitoring assembly monitors the temperature change in the working chamber. The temperature regulation and recirculation assembly remains in the activated state, drawing air from the working chamber into the left temperature regulation chamber of the temperature regulation chamber. The temperature regulation chamber regulates the temperature of the recirculated air. The temperature-regulated air then enters the working chamber, maintaining the temperature inside the working chamber within a specified range.

[0007] In one possible implementation, a water mist dust removal component is installed in the dust removal chamber to remove dust from the air and reduce its concentration. An air intake fan is installed on the left side wall of the dust removal chamber, away from the dehumidification chamber. The air outlet of the air intake fan faces the dehumidification chamber. A water mist spray pipe is installed in front of the air outlet of the air intake fan, connected to an external water source. The water mist spray pipe is located above the air outlet of the air intake fan and perpendicular to the air intake fan. The airflow direction at the air outlet; the water mist spray pipe is installed between the opposite side walls of the dust removal chamber; the spray water discharged from the water mist spray pipe combines with the dust in the air to cause dust settling; a filter baffle is installed between the water mist spray pipe and the right side wall of the dust removal chamber; the filter baffle further filters the dust in the air; a backwash water pipe is installed on the right side of the filter baffle; the backwash water pipe is used to clean the filter baffle; and a dust removal water discharge pipe suitable for draining accumulated water is installed on the bottom surface of the dust removal chamber.

[0008] In one possible implementation, the dust return assembly includes a dust return pipe connecting the working chamber and the dust removal chamber. When the dust monitoring assembly detects that the dust concentration in the working chamber exceeds the standard, the dust return assembly is activated to draw air from the working chamber into the dust removal chamber. The dust removal chamber removes dust from the returned air, and the dust-removed air enters the dehumidification chamber.

[0009] In one possible implementation, the dehumidification chamber is equipped with a dehumidification assembly for removing water vapor from the air and reducing the humidity. The dehumidification assembly includes a dehumidification condensation plate vertically disposed between opposite side walls of the dehumidification chamber, the dehumidification condensation plate being perpendicular to the air direction. The dehumidification condensation plate includes an upper dehumidification plate and a lower dehumidification plate. The upper dehumidification plate is disposed on the top wall of the dehumidification chamber, and the lower dehumidification plate is disposed on the bottom surface of the dehumidification chamber. Multiple sets of both the upper and lower dehumidification plates are provided, and the upper and lower dehumidification plates are staggered. The upper dehumidification plate and the bottom surface of the dehumidification chamber have clearance space suitable for airflow, and the lower dehumidification plate and the top wall of the dehumidification chamber have clearance space suitable for airflow. An airflow channel is formed between the upper dehumidification plate, the lower dehumidification plate, the top wall of the dehumidification chamber, and the bottom surface of the dehumidification chamber. A condensate drain pipe suitable for draining condensate is provided on the bottom surface of the dehumidification chamber.

[0010] In one possible implementation, the dehumidification recirculation assembly includes a dehumidification recirculation pipe connecting the working chamber and the dehumidification chamber. When the humidity monitoring assembly detects that the humidity in the working chamber exceeds the standard and the dust monitoring assembly detects that the dust concentration in the working chamber is within the standard value, the dehumidification recirculation assembly is activated to draw air from the working chamber into the dehumidification chamber. The dehumidification chamber dehumidifies the recirculated air, and the dehumidified air enters the working chamber.

[0011] In one possible implementation, a water circulation tank is installed outside the dust collector, and a horizontal water-collecting filter plate is installed in the water circulation tank. The dust collector water discharge pipe and the condensate discharge pipe are connected to the side wall of the water circulation tank. The outlets of the dust collector water discharge pipe and the condensate discharge pipe are both located below the water-collecting filter plate. A circulating water outlet is provided at the upper end of the water circulation tank, and the circulating water outlet is connected to an external water source. A sewage outlet is provided at the lower end of the water circulation tank to discharge accumulated sediment.

[0012] In one possible implementation, the upper end of the water circulation tank is provided with a flushing pipe and a flushing nozzle. One end of the flushing pipe is connected to an external water source, and the other end of the flushing pipe is connected to the flushing nozzle. The flushing nozzle flushes the water-accumulating filter plate to prevent the filter plate from becoming clogged and affecting the filtration effect.

[0013] In one possible implementation, an air distribution plate is provided between the temperature control chamber and the working chamber. The air distribution plate is located on the side wall between the temperature control chamber and the working chamber. The air distribution plate has multiple sets of air distribution holes. Air in the temperature control chamber enters the working chamber through the air distribution holes on the air distribution plate. The air distribution holes are evenly distributed on the air distribution plate, so that the air in the temperature control chamber enters the working chamber evenly and dispersedly, avoiding impact on the server in the working chamber. The side wall of the working chamber is provided with an exhaust port, which can periodically discharge and replace the circulating air.

[0014] The beneficial effects of the intelligent control system for server operating environment provided by this invention are as follows:

[0015] Compared to existing technologies, this system features interconnected dust removal, dehumidification, temperature regulation, and working chambers via ductwork. Servers are housed within the working chambers. The dust removal chamber humidifies and removes dust from incoming air. This humidified air is then injected into the dehumidification chamber to remove water vapor and regulate humidity within a specified range. The humidified air then enters the temperature regulation chamber, where its temperature is also regulated within a specified range. Finally, this temperature-regulated air enters the working chamber, where its temperature is further regulated. A temperature-regulating recirculation system connects the working chamber and the temperature regulation chamber. During operation, the servers continuously generate heat, causing the working chamber temperature to rise. Temperature monitoring components within the working chamber constantly monitor temperature changes. The temperature-regulating recirculation system redirects air from the working chamber that is not at the required temperature back to the temperature regulation chamber for further regulation. Cooled air from the temperature regulation chamber is continuously supplied to the working chamber, regulating the environment and maintaining the working chamber temperature within a specified range. Humidity monitoring components within the working chamber continuously monitor humidity changes. If the humidity in the working chamber exceeds or falls below a specified level, the system will detect any changes. When the specified range is reached, the temperature control reflux unit is turned off, and the dehumidification reflux unit is turned on. The dehumidification reflux unit sends air with insufficient humidity in the working chamber into the dehumidification chamber, where the humidity is regulated. Air with sufficient humidity in the dehumidification chamber is continuously sent into the working chamber through the temperature control chamber to regulate the humidity in the working chamber. Once the humidity in the working chamber reaches the specified range, the dehumidification reflux unit is turned off, cutting off the airflow between the dehumidification chamber and the temperature control chamber. The temperature control reflux unit is then turned on. The dust monitoring unit installed in the working chamber constantly monitors the dust concentration in the working chamber. When the dust concentration in the working chamber exceeds the specified range, the temperature control reflux unit is turned off, and the dust... When the recirculation component is activated, the dust recirculation component sends air with excessive dust concentration in the working chamber into the dust removal chamber for dust removal. The dust-removed air then passes through the dehumidification chamber and the temperature-regulating chamber before entering the working chamber. Once the dust concentration in the working chamber is reduced to the specified range, the dust recirculation component is shut off, disconnecting the airflow between the dust removal chamber and the dehumidification chamber, and between the dehumidification chamber and the temperature-regulating chamber. The temperature-regulating recirculation component is then activated. By setting up the temperature-regulating recirculation component, the dehumidification recirculation component, and the dust recirculation component, the air circulation in the working chamber is increased. By adopting different circulation methods, intelligent control of the server operating environment is achieved, enhancing the control effect. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0017] Figure 1A schematic diagram of the process structure of the intelligent control system for the server operating environment provided in an embodiment of the present invention;

[0018] Figure 2 This is a schematic diagram of the internal structure of the intelligent control system for the server operating environment provided in an embodiment of the present invention.

[0019] In the diagram: 1. Dust removal chamber; 2. Dehumidification chamber; 3. Temperature control chamber; 4. Working chamber; 5. Dust monitoring component; 6. Temperature monitoring component; 7. Humidity monitoring component; 8. Temperature control reflux component; 9. Dehumidification reflux component; 10. Dust reflux component; 11. Temperature control wall; 12. Air conditioner; 13. Air intake fan; 14. Water mist spray pipe; 15. External water source; 16. Filter baffle; 17. Backwash water pipe; 18. Dust removal water discharge pipe; 19. First exhaust fan; 20. Second exhaust fan; 21. Upper dehumidification plate; 22. Lower dehumidification plate; 23. Condensate discharge pipe; 24. Water circulation tank; 25. Water accumulation filter plate; 26. Circulating water pipe; 27. Sewage outlet; 28. Flushing pipe; 29. ​​Flushing nozzle; 30. Air distribution plate; 31. Exhaust outlet. Detailed Implementation

[0020] To make the technical problems to be solved, the technical solutions, and the beneficial effects of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present invention and are not intended to limit the present invention.

[0021] Please refer to Figure 1 , Figure 2The present invention provides a specific embodiment of an intelligent control system for a server operating environment, comprising a dust removal chamber 1, a dehumidification chamber 2, a temperature regulating chamber 3, and a working chamber 4 connected sequentially from left to right. The dust removal chamber 1, dehumidification chamber 2, temperature regulating chamber 3, and working chamber 4 are connected by pipes. The server is placed in the working chamber 4. Outside air passes through the dust removal chamber 1 for humidification and dust removal, then enters the dehumidification chamber 2 where the humidity is regulated. The humidified air then enters the temperature regulating chamber 3 where the temperature is regulated, and finally enters the working chamber 4. The working chamber 4 is equipped with a dust monitoring component 5 and a temperature monitoring component 6. The system includes a humidity monitoring component 7, a dust monitoring component 5 (monitoring dust concentration within chamber 4), a temperature monitoring component 6 (monitoring temperature within chamber 4), and a humidity monitoring component 7 (monitoring humidity within chamber 4). A temperature-regulating reflux component 8 is installed between chamber 4 and temperature-regulating chamber 3 to achieve air circulation and temperature regulation between them. When the temperature inside chamber 4 rises, the temperature-regulating reflux component 8 sends the air from chamber 4 that is not at the required temperature into temperature-regulating chamber 3, where the temperature is regulated. Simultaneously, temperature-regulated air is injected into chamber 4 from temperature-regulating chamber 3, thus regulating the environment within chamber 4 and controlling the air quality within chamber 4. The temperature is maintained within the specified range. A dehumidification recirculation component 9 is installed between the working chamber 4 and the dehumidification chamber 2. When the humidity monitoring component 7 detects that the humidity in the working chamber 4 does not meet the standard, the temperature regulation recirculation component 8 is closed, and the dehumidification recirculation component 9 is activated. The air in the working chamber 4 flows back into the dehumidification chamber 2, where the humidity is regulated. The air in the dehumidification chamber 2 with the required humidity is simultaneously injected into the temperature regulation chamber 3, and after temperature regulation, it is sent into the working chamber 4 to regulate the humidity. Once the humidity in the working chamber 4 meets the standard, the dehumidification recirculation component 9 is closed, the airflow between the dehumidification chamber 2 and the temperature regulation chamber 3 is disconnected, the temperature regulation recirculation component 8 is activated, and the temperature regulation chamber 3 is restarted. Air circulation between chamber 4 and dust removal chamber 1: A dust return component 10 is installed between chamber 4 and dust removal chamber 1. When dust monitoring component 5 detects excessive dust, temperature regulation return component 8 is closed, and dust return component 10 is activated. The gas in chamber 4 flows back into dust removal chamber 1 to remove dust from the air. The dust-removed air then enters chamber 4 through dehumidification chamber 2 and temperature regulation chamber 3. After the dust concentration in chamber 4 is reduced to the specified range, dust return component 10 is closed, disconnecting the air flow between dust removal chamber 1 and dehumidification chamber 2, and between dehumidification chamber 2 and temperature regulation chamber 3. Temperature regulation return component 8 is activated, restarting the air circulation between temperature regulation chamber 3 and chamber 4.

[0022] This invention provides an intelligent control system for a server operating environment. Compared with existing technologies, it includes a dust removal chamber 1, a dehumidification chamber 2, a temperature-regulating chamber 3, and a working chamber 4, all interconnected by pipes. Servers are placed in the working chamber 4. The dust removal chamber 1 humidifies and removes dust from incoming air. The humidified air is then injected into the dehumidification chamber 2 to remove water vapor and regulate humidity within a specified range. The humidified air then enters the temperature-regulating chamber 3 to regulate temperature within a specified range. Finally, the temperature-regulated air enters the working chamber 4 to regulate the temperature within the working chamber. A temperature-regulating reflux component 8 is installed between the working chamber 4 and the temperature-regulating chamber 3. During operation, the server continuously generates heat, causing the temperature inside the working chamber 4 to rise. A temperature monitoring component 6 installed inside the working chamber 4 constantly monitors temperature changes. The temperature-regulating reflux component 8 sends air from the working chamber 4 that is not at the required temperature into the temperature-regulating chamber 3 for adjustment. Air from the temperature-regulating chamber 3 is continuously supplied to the working chamber 4 to regulate the environment and maintain the temperature within the specified range. A humidity monitoring component 7 installed inside the working chamber 4 constantly monitors humidity changes. If the humidity in the working chamber 4 exceeds or exceeds the specified range, the component will adjust the humidity accordingly. When the humidity is below the specified range, the temperature control reflux component 8 is turned off, and the dehumidification reflux component 9 is turned on. The dehumidification reflux component 9 sends the air with insufficient humidity in the chamber 4 into the dehumidification chamber 2, where the humidity is regulated. The air with sufficient humidity in the dehumidification chamber 2 is continuously sent into the chamber 4 through the temperature control chamber 3 to regulate the humidity in the chamber 4. Once the humidity in the chamber 4 reaches the specified range, the dehumidification reflux component 9 is turned off, cutting off the airflow between the dehumidification chamber 2 and the temperature control reflux component 3. The temperature control reflux component 8 is then turned on. The dust monitoring component 5 installed in the chamber 4 continuously monitors the dust concentration in the chamber 4. When the dust concentration in the chamber 4 exceeds the specified range, the temperature control reflux component 8 is turned off. When the dust return component 10 is activated, it sends air with excessive dust concentration in the working chamber 4 into the dust removal chamber 1 for dust removal. The dust-removed air then passes through the dehumidification chamber 2 and the temperature-regulating chamber 3 before entering the working chamber 4. Once the dust concentration in the working chamber 4 is reduced to the specified range, the dust return component 10 is turned off, disconnecting the airflow between the dust removal chamber 1 and the dehumidification chamber 2, and between the dehumidification chamber 2 and the temperature-regulating chamber 3. The temperature-regulating return component 8 is then activated. Through the configuration of the temperature-regulating return component 8, the dehumidification return component 9, and the dust return component 10, the air circulation in the working chamber 4 is increased. By adopting different circulation methods, intelligent control of the server operating environment is achieved, enhancing the control effect.

[0023] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2The temperature regulating chamber 3 is equipped with a temperature regulating component, which is used to regulate the air temperature. The temperature regulating component includes a temperature regulating wall 11, which is located between the front and rear side walls of the temperature regulating chamber 3. The temperature regulating wall 11 is perpendicular to the air transmission direction and divides the temperature regulating chamber 3 into two spaces, left and right. The left space is the left temperature regulating chamber and the right space is the right temperature regulating chamber. An air conditioner 12 is installed on the temperature regulating wall 11. The air supplied by the dehumidification chamber 2 and the air supplied by the temperature regulating return component 8 enter the left temperature regulating chamber. After the air in the left temperature regulating chamber is regulated by the air conditioner 12, it is transmitted to the right temperature regulating chamber and enters the working chamber 4.

[0024] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2 The temperature regulation and reflux assembly 8 includes a temperature regulation and reflux pipe that connects the chamber 4 and the temperature regulation chamber 3, facilitating the flow of air from the chamber 4 into the temperature regulation chamber 3. The temperature monitoring assembly 6 is used to monitor temperature changes in the chamber 4. The temperature regulation and reflux assembly 8 remains in the activated state, drawing air from the chamber 4 into the left temperature regulation chamber of the temperature regulation chamber 3. After the air is regulated by the temperature regulation assembly, it flows into the right temperature regulation chamber and is injected into the chamber 4, realizing the circulation of air between the temperature regulation chamber 3 and the chamber 4, and maintaining the temperature in the chamber 4 within the specified range.

[0025] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2The dust removal chamber 1 is equipped with a water mist dust removal component, which removes dust from the air. The component injects dispersed spray water into the chamber, causing the airborne dust to settle and reducing its concentration. An air intake fan 13 is located on the left side wall of the dust removal chamber 1, away from the dehumidification chamber 2. The air intake of the fan 13 is connected to the outside environment, and its outlet faces the dehumidification chamber 2. The fan injects outside air into the dust removal chamber 1. A water mist spray pipe 14 is located in front of the outlet of the fan 13, on the top wall of the dust removal chamber 1, and connected to an external water source 15. The water mist spray pipe 14 is positioned between the front and rear side walls of the dust removal chamber 1, perpendicular to the air intake. The airflow direction of the air outlet of the fan 13 is set so that the spray water discharged from the water mist spray pipe 14 combines with the dust in the air to cause dust settling. Multiple sets of water mist spray pipes 14 can be arranged side by side to increase the dust removal effect. A filter baffle 16 is set between the water mist spray pipe 14 and the right side wall of the dust removal chamber 1. The filter baffle 16 is set between the front and rear side walls of the dust removal chamber 1. The filter baffle 16 further filters the dust in the air. A backwash water pipe 17 is set on the right side of the filter baffle 16. When the filter baffle 16 is blocked, the airflow is affected. The backwash water pipe 17 is used to clean the filter baffle 16. A dust removal water discharge pipe 18 is set on the bottom surface of the dust removal chamber 1. The dust removal water discharge pipe 18 discharges the water accumulated on the bottom surface of the dust removal chamber 1.

[0026] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2 The dust return assembly 10 includes a dust return pipe that connects the working chamber 4 and the dust removal chamber 1. When the dust monitoring assembly 5 detects that the dust concentration in the working chamber 4 exceeds the standard, the temperature control return assembly 8 and the dehumidification return assembly 9 are closed, and the dust return assembly 10 is activated, drawing air from the working chamber 4 into the dust removal chamber 1. The outlet of the dust return pipe is located on the side of the water mist spray pipe 14 away from the dehumidification chamber 2. The dust removal chamber 1 removes dust from the returned air. The dust-removed air enters the dehumidification chamber 2, the temperature control chamber 3, and the working chamber 4. After the dust concentration in the working chamber 4 is reduced to the specified range, the dust return assembly 10 is closed, disconnecting the airflow between the dust removal chamber 1 and the dehumidification chamber 2, and between the dehumidification chamber 2 and the temperature control chamber 3, and the temperature control return assembly 8 is activated.

[0027] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2A first exhaust fan 19 is installed between the dehumidification chamber 2 and the dust removal chamber 1 to draw air from the dust removal chamber 1 into the dehumidification chamber 2. A second exhaust fan 20 is installed between the dehumidification chamber 2 and the temperature regulation chamber 3 to draw air from the dehumidification chamber 2 into the temperature regulation chamber 3. A dehumidification assembly is installed in the dehumidification chamber 2 to remove water vapor from the air and reduce the humidity of the air after humidification and dust removal. The dehumidification assembly includes a vertically arranged dehumidification condensation plate, which is positioned between the front and rear side walls of the dehumidification chamber 2 and perpendicular to the air transport direction. The dehumidification condensation plate includes an upper dehumidification plate 21 on the top wall of the dehumidification chamber 2 and a lower dehumidification plate 22 on the bottom surface of the dehumidification chamber 2. The upper dehumidification plate 21 and the lower dehumidification plate 22 are vertically aligned. The upper dehumidification plate 21 and the lower dehumidification plate 22 are both arranged in multiple sets, with the upper dehumidification plate 21 and the lower dehumidification plate 22 arranged alternately. The upper dehumidification plate 21 and the bottom surface of the dehumidification chamber 2 have clearance space suitable for air flow, and the lower dehumidification plate 22 and the top wall of the dehumidification chamber 2 have clearance space suitable for air flow. The upper dehumidification plate 21, the lower dehumidification plate 22, the top wall of the dehumidification chamber 2 and the bottom surface of the dehumidification chamber 2 form a flow channel suitable for air flow, which increases the contact area between the air and the dehumidification condenser plate and enhances the dehumidification effect. During the dehumidification process, condensate will be generated on the dehumidification condenser plate. Under the action of gravity, the condensate flows to the bottom surface of the dehumidification chamber 2. A condensate drain pipe 23 suitable for draining condensate is provided on the bottom surface of the dehumidification chamber 2.

[0028] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2 The dehumidification recirculation component 9 includes a dehumidification recirculation pipe that connects the working chamber 4 and the dehumidification chamber 2. When the humidity monitoring component 7 detects that the humidity in the working chamber 4 exceeds the standard and the dust monitoring component 5 detects that the dust concentration in the working chamber 4 is within the standard value, the temperature regulation recirculation component 8 is turned off and the dehumidification recirculation component 9 is turned on. The air in the working chamber 4 with insufficient humidity is sent into the dehumidification chamber 2, where the humidity is regulated. The air in the dehumidification chamber 2 with sufficient humidity is continuously sent into the working chamber 4 through the temperature regulation chamber 3 to regulate the humidity in the working chamber 4. After the humidity in the working chamber 4 reaches the standard, the dehumidification recirculation component 9 is turned off, the air flow between the dehumidification chamber 2 and the temperature regulation chamber 3 is disconnected, and the temperature regulation recirculation component 8 is turned on.

[0029] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2A water circulation tank 24 is installed outside the dust removal chamber 1. A horizontal water collection filter plate 25 is installed inside the water circulation tank 24, positioned in the middle of the tank. A dust removal water discharge pipe 18 and a condensate discharge pipe 23 are connected to the side wall of the water circulation tank 24. The water collection filter plate 25 is located above the outlets of the dust removal water discharge pipe 18 and the condensate discharge pipe 23. A circulating water outlet is located at the upper end of the water circulation tank 24, connected to a circulating water pipe 26. The outlet of the dust removal water discharge pipe 18 is connected to the condensate discharge pipe 23. The condensate drain pipe 23 discharges the accumulated water into the lower part of the water circulation tank 24. As the water level rises, the dust in the accumulated water is trapped below the water filter plate 25. The filtered clean water is located in the upper part of the water circulation tank 24. The filtered clean water is discharged from the water circulation tank 24 through the circulation water pipe 26. The circulation water pipe 26 is connected to the external water source 15 to supply water to the water mist spray pipe 14 and the backwash water pipe 17, realizing the recycling of water. The lower end of the water circulation tank 24 is provided with a drain outlet 27, through which the accumulated sediment is discharged.

[0030] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2 The upper end of the water circulation tank 24 is equipped with a flushing pipe 28 and a flushing nozzle 29. One end of the flushing pipe 28 is connected to an external water source 15, and the other end of the flushing pipe 28 is connected to the flushing nozzle 29. When the water circulation tank 24 needs to be flushed, the dust removal water discharge pipe 18 and the condensate discharge pipe 23 are closed. The flushing nozzle 29 flushes the water accumulation filter plate 25, flushing the dust that is blocked on the water accumulation filter plate 25 into the lower end of the water circulation tank 24 and discharging it through the drain port 27, so as to avoid the water accumulation filter plate 25 from becoming blocked and affecting the filtration effect.

[0031] As a specific implementation of the intelligent control system for server operating environment provided by this invention, please refer to Figure 1 , Figure 2 An air distribution plate 30 is installed between the temperature regulation chamber 3 and the working chamber 4. The air distribution plate 30 is used to buffer the air and prevent the air from blowing directly onto the server. The air distribution plate 30 is installed on the side wall between the temperature regulation chamber 3 and the working chamber 4. The air distribution plate 30 is set perpendicular to the air direction. The air distribution plate 30 is provided with multiple sets of air distribution holes. The air in the temperature regulation chamber 3 enters the working chamber 4 through the air distribution holes on the air distribution plate 30. The air distribution holes are evenly distributed on the air distribution plate 30, so that the air in the temperature regulation chamber 3 enters the working chamber 4 evenly and dispersedly, avoiding impact on the server in the working chamber 4. The side wall of the working chamber 4 is provided with an exhaust port 31, which can periodically discharge and replace the circulating air.

[0032] The above are merely preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An intelligent control system for a server operating environment, characterized in that, The system includes a dust removal chamber, a dehumidification chamber, a temperature regulation chamber, and a working chamber, connected sequentially from left to right. The server is placed in the working chamber. Outside air passes through the dust removal chamber for humidification and dust removal, enters the dehumidification chamber to regulate humidity, enters the temperature regulation chamber to regulate temperature, and then enters the working chamber. The working chamber is equipped with dust monitoring components, temperature monitoring components, and humidity monitoring components. A temperature regulation reflux component is installed between the working chamber and the temperature regulation chamber to achieve air circulation and temperature regulation between the two chambers. A dehumidification reflux component is installed between the working chamber and the dehumidification chamber. If the humidity monitoring component detects that the humidity in the working chamber exceeds the standard, the air in the working chamber will flow back into the dehumidification chamber. A dust reflux component is installed between the working chamber and the dust removal chamber. If the dust monitoring component detects that the dust exceeds the standard, the air in the working chamber will flow back into the dust removal chamber. The temperature regulating chamber is equipped with a temperature regulating component that regulates the air temperature. The temperature regulating component includes a temperature regulating wall disposed between opposite side walls of the temperature regulating chamber. The temperature regulating wall is perpendicular to the air direction and divides the temperature regulating chamber into two spaces, a left temperature regulating cavity and a right temperature regulating cavity. An air conditioner is installed on the temperature regulating wall. The air conditioner regulates the temperature of the air in the left temperature regulating cavity and delivers it to the right temperature regulating cavity, where it enters the working chamber. The temperature regulation and recirculation assembly includes a temperature regulation and recirculation pipe connecting the working chamber and the temperature regulation chamber. The temperature monitoring assembly monitors the temperature change in the working chamber. The temperature regulation and recirculation assembly remains in the activated state, drawing air from the working chamber into the left temperature regulation chamber of the temperature regulation chamber. The temperature regulation chamber regulates the temperature of the recirculated air. The regulated air then enters the working chamber, maintaining the temperature inside the working chamber within a specified range.

2. The intelligent control system for a server operating environment as described in claim 1, characterized in that, The dust removal chamber is equipped with a water mist dust removal component, which is used to remove dust from the air and reduce the dust concentration. An air intake fan is installed on the left side wall of the dust removal chamber, away from the dehumidification chamber. The air outlet of the air intake fan faces the dehumidification chamber. A water mist spray pipe is installed in front of the air outlet of the air intake fan, and the water mist spray pipe is connected to an external water source. The water mist spray pipe is located above the air outlet of the air intake fan and perpendicular to the airflow from the air outlet of the air intake fan. The water mist spray pipes are installed between the opposite side walls of the dust removal chamber. The spray water discharged from the water mist spray pipes combines with the dust in the air to cause dust settling. A filter baffle is installed between the water mist spray pipes and the right side wall of the dust removal chamber. The filter baffle further filters the dust in the air. A backwash water pipe is installed on the right side of the filter baffle. The backwash water pipe is used to clean the filter baffle. A dust removal water discharge pipe suitable for draining accumulated water is installed on the bottom surface of the dust removal chamber.

3. The intelligent control system for a server operating environment as described in claim 2, characterized in that, The dust return assembly includes a dust return pipe connecting the working chamber and the dust removal chamber. When the dust monitoring assembly detects that the dust concentration in the working chamber exceeds the standard, the dust return assembly is activated to draw air from the working chamber into the dust removal chamber. The dust removal chamber removes dust from the returned air, and the dust-removed air enters the dehumidification chamber.

4. The intelligent control system for a server operating environment as described in claim 3, characterized in that, The dehumidification chamber is equipped with a dehumidification assembly for removing water vapor from the air and reducing humidity. The assembly includes a dehumidification condensation plate vertically arranged between opposite side walls of the chamber, perpendicular to the airflow direction. Each plate comprises an upper and a lower dehumidification plate. The upper plate is located on the top wall of the chamber, and the lower plate is located on the bottom surface. Multiple sets of both upper and lower dehumidification plates are provided, staggered and spaced apart. The upper and lower plates have clearance between themselves and the bottom and top walls of the chamber, allowing for airflow. An airflow channel is formed between the upper and lower plates, the top wall, and the bottom surface of the chamber. A condensate drain pipe is provided on the bottom surface of the chamber for discharging condensate.

5. The intelligent control system for a server operating environment as described in claim 4, characterized in that, The dehumidification recirculation assembly includes a dehumidification recirculation pipe connecting the working chamber and the dehumidification chamber. When the humidity monitoring assembly detects that the humidity in the working chamber exceeds the standard and the dust monitoring assembly detects that the dust concentration in the working chamber is within the standard value, the dehumidification recirculation assembly is activated, drawing air from the working chamber into the dehumidification chamber. The dehumidification chamber dehumidifies the recirculated air, and the dehumidified air enters the working chamber.

6. The intelligent control system for a server operating environment as described in claim 5, characterized in that, A water circulation tank is installed on the outside of the dust collector room. A horizontal water-collecting filter plate is installed in the water circulation tank. The dust collector water discharge pipe and the condensate discharge pipe are connected to the side wall of the water circulation tank. The outlets of the dust collector water discharge pipe and the condensate discharge pipe are both located below the water-collecting filter plate. A circulating water outlet is provided at the upper end of the water circulation tank, which is connected to an external water source. A sewage outlet is provided at the lower end of the water circulation tank to discharge accumulated sediment.

7. The intelligent control system for a server operating environment as described in claim 6, characterized in that, The upper end of the water circulation tank is equipped with a flushing pipe and a flushing nozzle. One end of the flushing pipe is connected to an external water source, and the other end of the flushing pipe is connected to the flushing nozzle. The flushing nozzle flushes the water-accumulating filter plate to prevent the filter plate from becoming clogged and affecting the filtration effect.

8. The intelligent control system for a server operating environment as described in claim 1, characterized in that, An air distribution plate is provided between the temperature control chamber and the working chamber. The air distribution plate has multiple sets of air distribution holes. Air from the temperature control chamber enters the working chamber through the air distribution holes on the air distribution plate. The air distribution holes are evenly distributed on the air distribution plate, so that the air from the temperature control chamber enters the working chamber evenly and dispersedly, avoiding impact on the server in the working chamber. The side wall of the working chamber is provided with an exhaust port, which can periodically discharge and replace the circulating air.

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