Airflow organization energy-saving optimization system and method for data center machine room

Abstract

The invention discloses an airflow organization energy-saving optimization system and method for a data center machine room, and the system comprises a transmission processing module, a central processing module, an environment restoration module, an organization regulation and control module, a change simulation module, a pipeline monitoring module, a terminal feedback module, a building information module, a humidity data module, and a machine room butt joint module. The transmission processing module is in control connection with the central processing module, and the central processing module is in control connection with the terminal feedback module and the pipeline monitoring module; according to the invention, the organization regulation and control module is combined with the natural heat exchange mode to realize temperature regulation and control in the machine room, so that the operation energy consumption of the air organization of the machine room is reduced; the change simulation module is combined with the model to carry out air flow prediction and provide visual prediction display for the control end, so that the practicability of the system is improved; the communication condition of the circulation pipeline of the machine room is automatically analyzed through the pipeline monitoring module, reference is provided for later maintenance, and convenience of later maintenance management is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of airflow circulation control in a data center computer room, and in particular to an airflow organization energy-saving optimization system and method for a data center computer room. Background Art

[0002] The data center room is the core area of ​​information and data processing, usually containing a large number of servers, storage devices, network equipment and related support systems and environmental control equipment. It is one of the infrastructures for modern enterprises, government agencies, cloud service providers and other organizations to run their key IT services. In order to ensure the stable operation of the data center room, it is necessary to carry an airflow organization and control system to circulate and control the room. The existing control system can basically meet the daily circulation control needs, but there are still certain shortcomings. First, the existing control system can only control the environment of the circulation equipment in the room according to the temperature deviation, and the energy consumption of the system cycle is large; second, the system has a single functionality, and it is impossible to combine the control instructions to predict and analyze the changes in the internal environment of the room during operation, which affects the practicality of the system; third, the pipeline structure that the system cycle depends on needs to be regularly maintained and repaired, but the control system cannot provide an effective reference for the blockage of the pipeline, which affects the convenience of later maintenance and management; therefore, it is necessary to design an airflow organization energy-saving optimization system and method for the data center room. Summary of the invention

[0003] The object of the present invention is to provide an airflow organization energy-saving optimization system and method for a data center computer room to solve the problems raised in the above-mentioned background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an airflow organization energy-saving optimization system for a data center computer room, comprising a transmission processing module, a central processing module, an environmental restoration module, an organization control module, a change simulation module, a pipeline monitoring module, a terminal feedback module, a pressure data module, a temperature data module, a building information module, a humidity data module and a computer room docking module, wherein the transmission processing module controls the connection to the central processing module, the central processing module controls the connection to the terminal feedback module and the pipeline monitoring module respectively, the pipeline monitoring module controls the connection to the organization control module, the organization control module controls the connection to the change simulation module, the change simulation module controls the connection to the central processing module and the environmental restoration module respectively, and the central processing module controls the connection to the environmental restoration module and the organization control module respectively.

[0005] As a further technical solution of the present invention, the transmission processing module respectively controls the connection of the pressure data module, the temperature data module, the building information module, the humidity data module and the computer room docking module, and the pressure data module, the temperature data module, the building information module and the humidity data module all control the connection of the computer room docking module.

[0006] As a further technical solution of the present invention, the environment restoration module is composed of a data receiving module, a computer room modeling module, a data marking module and a restoration output module. The data receiving module controls the connection to the computer room modeling module, the computer room modeling module controls the connection to the data marking module, and the data marking module controls the connection to the restoration output module.

[0007] As a further technical solution of the present invention, the organizational control module is composed of a control receiving module, a deviation detection module, a humidity control module, a temperature control module, an instruction output module, an outdoor monitoring module and a natural heat exchange module. The control receiving module controls the connection to the deviation detection module, and the deviation detection module controls the connection to the outdoor monitoring module.

[0008] As a further technical solution of the present invention, the natural heat exchange module controls the connection to the instruction output module, the instruction output module controls the connection to the humidity control module and the temperature control module respectively, and the humidity control module and the temperature control module both control the connection to the deviation detection module.

[0009] As a further technical solution of the present invention, the change simulation module is composed of an environment receiving module, a regulation and analysis module, a diffusion analysis module, a loop feedback module and a simulation output module. Both the environment receiving module and the regulation and analysis module control the connection to the diffusion analysis module.

[0010] As a further technical solution of the present invention, the diffusion analysis module controls the connection to the loop feedback module, and the loop feedback module controls the connection to the simulation output module.

[0011] As a further technical solution of the present invention, the pipeline monitoring module is composed of a clock preset module, a wind control module, an abnormal positioning module, a change comparison module, a pressure receiving module and a monitoring output module, and the clock preset module controls the connection to the wind control module.

[0012] As a further technical solution of the present invention, the wind control module controls the connection to the monitoring output module, the monitoring output module controls the connection to the abnormal positioning module, the abnormal positioning module controls the connection to the change comparison module, and the change comparison module controls the connection to the pressure receiving module.

[0013] An airflow organization energy-saving optimization method for a data center computer room includes the following steps: step 1, computer room modeling; step 2, regulation and processing; step 3, prediction and feedback; step 4, pipeline monitoring;

[0014] Among them, in the above step 1, the computer room docking module first docks with the sensor system of the computer room, and transmits the detection data of the sensor system and the building information data to the pressure data module, the temperature data module, the humidity data module and the building information module respectively, and then sends the detection data and the building information data to the central processing module through the transmission processing module, and then receives them through the data receiving module in the environment restoration module. After the reception is completed, the computer room modeling module combines the building information data to establish a basic model of the computer room, and then marks the detection data of the sensor system according to the established position to the basic model of the computer room to complete the modeling process of the computer room, and finally sends the modeling results to the central processing module, the organization control module and the change simulation module respectively through the restoration output module;

[0015] Among them, in the above step 2, the modeling result sent to the organization control module is received by the control receiving module. After the reception is completed, the deviation value between the environmental data and the theoretical data is detected by the deviation detection module, and then the control instructions are issued through the humidity control module and the temperature control module respectively, and fed back to the central processing module through the instruction output module, and synchronously transmitted to the computer room docking module in the transmission processing module to control the operation of the control terminal in the computer room; during the control process, the outdoor monitoring module is used to detect the temperature deviation between the external environment and the inside of the computer room circulation pipeline, and the heat exchange instruction is output after analysis by the natural heat exchange module, and the heat exchange instruction is sent to the central processing module in combination with the instruction output module, and synchronously transmitted to the computer room docking module in the transmission processing module to control the operation of the control terminal in the computer room, and the temperature control in the computer room is realized by natural heat exchange, which reduces the operating energy consumption of the airflow organization in the computer room;

[0016] In the above step 3, the environment receiving module in the change simulation module receives the modeling result, and the control analysis module receives the control instructions and heat exchange instructions issued by the organization control module. Then, the diffusion analysis module is combined with the algorithm to analyze the gas diffusion process, and the feedback is fed back to the computer room model through the loop feedback module. After that, it is output to the central processing module through the simulation output module and displayed and previewed through the terminal feedback module. The model can be combined to predict air flow and provide a visual prediction display for the control end, thereby improving the practicality of the system.

[0017] Among them, in the above step four, the pipeline monitoring module performs pipeline detection during the circulation operation of the airflow organization in the computer room. The specific monitoring process is: first, the monitoring instruction is sent through the detection cycle preset in the clock preset module, and then the wind control module issues an air pump output instruction, and the monitoring output module feeds back to the central processing module in real time and forwards it to the computer room docking module for execution of the instruction. During the execution of the instruction, the pressure data inside the pipeline is received by the pressure receiving module, and the change comparison module is combined to perform change analysis. Subsequently, the abnormal positioning module is combined with the analysis results to determine the pipeline blockage status, and finally feedback is given through the monitoring output module, and the connectivity status of the circulation pipeline in the computer room is automatically analyzed, which provides a reference for later maintenance and improves the convenience of later maintenance management.

[0018] Compared with the prior art, the beneficial effects of the present invention are as follows: the airflow organization energy-saving optimization system and method for the computer room of a data center detects the deviation value between the environmental data and the theoretical data through the deviation detection module, and then issues control instructions through the humidity control module and the temperature control module respectively, and feeds back to the central processing module through the instruction output module, and is synchronously transmitted to the computer room docking module in conjunction with the transmission processing module to control the operation of the control terminal in the computer room; during the control process, the outdoor monitoring module detects the temperature deviation between the external environment and the inside of the computer room circulation pipeline, and outputs the heat exchange instruction after analysis by the natural heat exchange module, and sends the heat exchange instruction to the central processing module in conjunction with the instruction output module, and is synchronously transmitted to the computer room docking module in conjunction with the transmission processing module to control the operation of the control terminal in the computer room, and realizes temperature control in the computer room by natural heat exchange, thereby reducing the operating energy consumption of the airflow organization in the computer room; the environment receiving module in the change simulation module receives the modeling result, and the control analysis module receives the control signal issued by the organization control module Control instructions and heat exchange instructions are then analyzed in the diffusion analysis module in combination with the algorithm in the gas diffusion process, and fed back to the computer room model through the loop feedback module, and then output to the central processing module through the simulation output module and displayed and previewed through the terminal feedback module. The model can be combined to predict air flow and provide a visual prediction display for the control end, which improves the practicality of the system; the monitoring instructions are sent through the detection cycle preset in the clock preset module, and then the wind power control module issues an air pump output instruction, and the monitoring output module is used to feed back to the central processing module in real time and forwarded to the computer room docking module for instruction execution. During the execution of the instruction, the pressure data inside the pipeline is received through the pressure receiving module, and the change comparison module is combined to perform change analysis, and then the abnormal positioning module is combined with the analysis results to determine the pipeline blockage status, and finally the monitoring output module is used for feedback, and the connectivity of the circulation pipeline in the computer room is automatically analyzed, which provides a reference for later maintenance and improves the convenience of later maintenance management. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 is a system flow chart of the present invention;

[0020] Figure 2 It is a schematic diagram of the system architecture of the present invention;

[0021] Figure 3 This is a schematic diagram of the architecture of the environment restoration module in the present invention;

[0022] Figure 4 This is a schematic diagram of the structure of the tissue regulation module in the present invention;

[0023] Figure 5 It is a schematic diagram of the architecture of the change simulation module in the present invention;

[0024] Figure 6 Schematic diagram of the architecture of the pipeline monitoring module in the present invention;

[0025] Figure 7 is a flow chart of the method of the present invention;

[0026] In the figure: 1. Transmission processing module; 2. Central processing module; 3. Environmental restoration module; 4. Organization and control module; 5. Change simulation module; 6. Pipeline monitoring module; 7. Terminal feedback module; 8. Pressure data module; 9. Temperature data module; 10. Building information module; 11. Humidity data module; 12. Computer room docking module; 31. Data receiving module; 32. Computer room modeling module; 33. Data marking module; 34. Restoration output module; 41. Control receiving module; 42. Deviation detection module; 43. Humidity control module; 44. Temperature control module; 45. Command output module; 46. Outdoor monitoring module; 47. Natural heat exchange module; 51. Environment receiving module; 52. Control analysis module; 53. Diffusion analysis module; 54. Circular feedback module; 55. Simulation output module; 61. Clock preset module; 62. Wind control module; 63. Abnormal positioning module; 64. Change comparison module; 65. Pressure receiving module; 66. Monitoring output module. DETAILED DESCRIPTION

[0027] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the 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.

[0028] Please see attached Figure 1 -Attached Figure 6An embodiment of the present invention is as follows: an airflow organization energy-saving optimization system for a data center computer room, comprising a transmission processing module 1, a central processing module 2, an environmental restoration module 3, an organization control module 4, a change simulation module 5, a pipeline monitoring module 6, a terminal feedback module 7, a pressure data module 8, a temperature data module 9, a building information module 10, a humidity data module 11 and a computer room docking module 12, wherein the transmission processing module 1 controls the connection to the central processing module 2, the central processing module 2 controls the connection to the terminal feedback module 7 and the pipeline monitoring module 6 respectively, the pipeline monitoring module 6 controls the connection to the organization control module 4, the organization control module 4 controls the connection to the change simulation module 5, and the change simulation module 5 controls the connection to the central processing module 2 and the environmental restoration module respectively. Module 3, central processing module 2 respectively controls the connection to environment restoration module 3 and organization control module 4; transmission processing module 1 respectively controls the connection to pressure data module 8, temperature data module 9, building information module 10, humidity data module 11 and computer room docking module 12, and pressure data module 8, temperature data module 9, building information module 10, humidity data module 11 all control the connection to computer room docking module 12; environment restoration module 3 is composed of data receiving module 31, computer room modeling module 32, data marking module 33 and restoration output module 34, data receiving module 31 controls the connection to computer room modeling module 32, computer room modeling module 32 controls the connection to data marking module 33, data marking module 33 controls the connection to restoration output module 34; organization The control module 4 is composed of a control receiving module 41, a deviation detection module 42, a humidity control module 43, a temperature control module 44, an instruction output module 45, an outdoor monitoring module 46 and a natural heat exchange module 47. The control receiving module 41 controls the connection to the deviation detection module 42, and the deviation detection module 42 controls the connection to the outdoor monitoring module 46; the natural heat exchange module 47 controls the connection to the instruction output module 45, and the instruction output module 45 controls the connection to the humidity control module 43 and the temperature control module 44 respectively, and the humidity control module 43 and the temperature control module 44 both control the connection to the deviation detection module 42; the change simulation module 5 is composed of an environment receiving module 51, a control analysis module 52, a diffusion analysis module 53, a loop feedback module 54 and a simulation output module The pipeline monitoring module 6 is composed of a block 55, the environment receiving module 51 and the control and analysis module 52 both control the connection to the diffusion analysis module 53; the diffusion analysis module 53 controls the connection to the loop feedback module 54, and the loop feedback module 54 controls the connection to the simulation output module 55; the pipeline monitoring module 6 is composed of a clock preset module 61, a wind control module 62, an abnormality positioning module 63, a change comparison module 64, a pressure receiving module 65 and a monitoring output module 66, the clock preset module 61 controls the connection to the wind control module 62; the wind control module 62 controls the connection to the monitoring output module 66, the monitoring output module 66 controls the connection to the abnormality positioning module 63, the abnormality positioning module 63 controls the connection to the change comparison module 64, and the change comparison module 64 controls the connection to the pressure receiving module 65.

[0029] Please see attached Figure 7 , an embodiment provided by the present invention: an airflow organization energy-saving optimization method for a data center computer room, comprising the following steps: step one, computer room modeling; step two, regulation and processing; step three, prediction and feedback; step four, pipeline monitoring;

[0030] Among them, in the above step 1, the computer room docking module 12 first docks with the sensor system of the computer room, and transmits the detection data and building information data of the sensor system to the pressure data module 8, the temperature data module 9, the humidity data module 11 and the building information module 10 respectively, and then sends the detection data and building information data to the central processing module 2 through the transmission processing module 1, and then receives them through the data receiving module 31 in the environment restoration module 3. After receiving, the computer room modeling module 32 combines the building information data to establish a basic model of the computer room, and then marks the detection data of the sensor system according to the established position to the basic model of the computer room to complete the modeling process of the computer room, and finally sends the modeling results to the central processing module 2, the organization control module 4 and the change simulation module 5 respectively through the restoration output module 34;

[0031] Among them, in the above step 2, the modeling result sent to the organization control module 4 is received by the control receiving module 41, and after the reception is completed, the deviation value between the environmental data and the theoretical data is detected by the deviation detection module 42, and then the control instructions are issued through the humidity control module 43 and the temperature control module 44 respectively, and fed back to the central processing module 2 through the instruction output module 45, and synchronously transmitted to the computer room docking module 12 in the control terminal of the control room; during the control process, the outdoor monitoring module 46 is used to detect the temperature deviation between the external environment and the internal circulation pipeline of the computer room, and the heat exchange instruction is output after analysis by the natural heat exchange module 47, and the heat exchange instruction is sent to the central processing module 2 in combination with the instruction output module 45, and synchronously transmitted to the computer room docking module 12 in the control terminal of the control room in combination with the transmission processing module 1, and the temperature control in the computer room is realized by natural heat exchange, which reduces the operating energy consumption of the airflow organization in the computer room;

[0032] In the above step 3, the environment receiving module 51 in the change simulation module 5 receives the modeling result, and the control analysis module 52 receives the control instructions and heat exchange instructions issued by the organization control module 4, and then the diffusion analysis module 53 is combined with the algorithm to analyze the gas diffusion process, and the feedback is fed back to the computer room model through the loop feedback module 54, and then output to the central processing module 2 through the simulation output module 55 and displayed and previewed through the terminal feedback module 7, and the air flow prediction can be combined with the model, and a visual prediction display is provided for the control terminal, which improves the practicality of the system;

[0033] Among them, in the above-mentioned step four, the pipeline monitoring module 6 performs pipeline detection during the circulation operation of the airflow organization in the computer room. The specific monitoring process is: first, the monitoring instruction is sent through the detection cycle preset in the clock preset module 61, and then the wind control module 62 issues an air pump output instruction, and the monitoring output module 66 feeds back to the central processing module 2 in real time and forwards it to the computer room docking module 12 for execution of the instruction. During the execution of the instruction, the pressure data inside the pipeline is received by the pressure receiving module 65, and the change comparison module 64 is combined to perform change analysis, and then the abnormal positioning module 63 is combined with the analysis result to determine the pipeline blockage condition, and finally the monitoring output module 66 is used for feedback, and the connectivity of the circulation pipeline in the computer room is automatically analyzed to provide a reference for later maintenance and improve the convenience of later maintenance management.

[0034] Based on the above, the advantage of the present invention is that when the present invention is in use, the deviation value between the environmental data and the theoretical data is detected by the deviation detection module 42, and then the control instructions are issued respectively through the humidity control module 43 and the temperature control module 44, and fed back to the central processing module 2 through the instruction output module 45, and synchronously transmitted to the control terminal operation of the control room in the computer room docking module 12 by the transmission processing module 1; during the control process, the temperature deviation between the external environment and the inside of the computer room circulation pipeline is detected by the outdoor monitoring module 46, and the heat exchange instruction is output after analysis by the natural heat exchange module 47, and the heat exchange instruction is sent to the central processing module 2 by the instruction output module 45, and synchronously transmitted to the control terminal operation of the computer room in the computer room docking module 12 by the transmission processing module 1, and the temperature control in the computer room is realized by natural heat exchange, thereby reducing the operating energy consumption of the airflow organization in the computer room; the environment receiving module 51 in the change simulation module 5 receives the modeling result, and the control analysis module 52 receives the control instruction and heat exchange instruction issued by the organization control module 4. Subsequently, the diffusion analysis module 53 is used to analyze the gas diffusion process in combination with the algorithm, and the gas diffusion process is fed back to the computer room model through the loop feedback module 54. After that, the gas diffusion process is output to the central processing module 2 through the simulation output module 55 and displayed and previewed through the terminal feedback module 7. The air flow prediction can be performed in combination with the model, and a visual prediction display is provided for the control end, thereby improving the practicality of the system. The monitoring instruction is sent through the detection cycle preset in the clock preset module 61, and then the wind power control module 62 issues an air pump output instruction, and the monitoring output module 66 is used to feed back the air pump output instruction to the central processing module 2 in real time and forward it to the computer room docking module 12 for execution of the instruction. During the execution of the instruction, the pressure receiving module 65 receives the pressure data inside the pipeline, and the change comparison module 64 is used to perform change analysis. Subsequently, the abnormal positioning module 63 is used to determine the pipeline blockage condition in combination with the analysis result, and finally, the monitoring output module 66 is used for feedback, and the connectivity of the circulation pipeline in the computer room is automatically analyzed, providing a reference for later maintenance, thereby improving the convenience of later maintenance management.

[0035] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

Claims

1. An airflow organization energy-saving optimization system for a data center computer room, comprising a transmission processing module (1), a central processing module (2), an environmental restoration module (3), an organization control module (4), a change simulation module (5), a pipeline monitoring module (6), a terminal feedback module (7), a pressure data module (8), a temperature data module (9), a building information module (10), a humidity data module (11) and a computer room docking module (12), characterized in that: The transmission processing module (1) controls the connection to the central processing module (2), the central processing module (2) controls the connection to the terminal feedback module (7) and the pipeline monitoring module (6), the pipeline monitoring module (6) controls the connection to the tissue control module (4), the tissue control module (4) controls the connection to the change simulation module (5), the change simulation module (5) controls the connection to the central processing module (2) and the environment restoration module (3), and the central processing module (2) controls the connection to the environment restoration module (3) and the tissue control module (4).

2. The airflow organization energy-saving optimization system for a data center computer room according to claim 1 is characterized in that: The transmission processing module (1) controls the connection with the pressure data module (8), the temperature data module (9), the building information module (10), the humidity data module (11) and the computer room docking module (12) respectively, and the pressure data module (8), the temperature data module (9), the building information module (10) and the humidity data module (11) all control the connection with the computer room docking module (12).

3. The airflow organization energy-saving optimization system for a data center computer room according to claim 1 is characterized in that: The environment restoration module (3) is composed of a data receiving module (31), a computer room modeling module (32), a data marking module (33) and a restoration output module (34); the data receiving module (31) controls the connection to the computer room modeling module (32); the computer room modeling module (32) controls the connection to the data marking module (33); and the data marking module (33) controls the connection to the restoration output module (34).

4. The airflow organization energy-saving optimization system for a data center computer room according to claim 1 is characterized in that: The organizational control module (4) is composed of a control receiving module (41), a deviation detection module (42), a humidity control module (43), a temperature control module (44), an instruction output module (45), an outdoor monitoring module (46) and a natural heat exchange module (47); the control receiving module (41) controls the connection to the deviation detection module (42), and the deviation detection module (42) controls the connection to the outdoor monitoring module (46).

5. The airflow organization energy-saving optimization system for a data center computer room according to claim 4 is characterized in that: The natural heat exchange module (47) controls the connection to the instruction output module (45), the instruction output module (45) controls the connection to the humidity control module (43) and the temperature control module (44), and the humidity control module (43) and the temperature control module (44) both control the connection to the deviation detection module (42).

6. The airflow organization energy-saving optimization system for a data center computer room according to claim 1 is characterized in that: The change simulation module (5) is composed of an environment receiving module (51), a control analysis module (52), a diffusion analysis module (53), a loop feedback module (54) and a simulation output module (55); the environment receiving module (51) and the control analysis module (52) are both controlled to connect to the diffusion analysis module (53).

7. The airflow organization energy-saving optimization system for a data center computer room according to claim 6 is characterized in that: The diffusion analysis module (53) controls the connection to the loop feedback module (54), and the loop feedback module (54) controls the connection to the simulation output module (55).

8. The airflow organization energy-saving optimization system for a data center computer room according to claim 1 is characterized in that: The pipeline monitoring module (6) is composed of a clock preset module (61), a wind force control module (62), an abnormality positioning module (63), a change comparison module (64), a pressure receiving module (65) and a monitoring output module (66), and the clock preset module (61) controls the connection with the wind force control module (62).

9. The airflow organization energy-saving optimization system for a data center computer room according to claim 8, characterized in that: The wind force control module (62) controls the connection monitoring output module (66), the monitoring output module (66) controls the connection abnormality positioning module (63), the abnormality positioning module (63) controls the connection change comparison module (64), and the change comparison module (64) controls the connection pressure receiving module (65).

10. A method for optimizing airflow organization and energy saving in a data center computer room, comprising the following steps: Step 1: machine room modeling; Step 2: control and processing; Step 3: prediction and feedback; Step 4: pipeline monitoring; It is characterized by: In the above step 1, the computer room docking module (12) first docks with the sensor system of the computer room, and transmits the detection data and building information data of the sensor system to the pressure data module (8), the temperature data module (9), the humidity data module (11) and the building information module (10) respectively. Then, the detection data and building information data are sent to the central processing module (2) through the transmission processing module (1), and then received by the data receiving module (31) in the environment restoration module (3). After receiving, the computer room modeling module (32) combines the building information data to establish a basic model of the computer room. Then, the detection data of the sensor system is marked according to the predetermined position in the basic model of the computer room to complete the modeling process of the computer room. Finally, the modeling results are sent to the central processing module (2), the organization control module (4) and the change simulation module (5) respectively through the restoration output module (34); In the above step 2, the modeling result sent to the organization control module (4) is received by the control receiving module (41). After receiving, the deviation value between the environmental data and the theoretical data is detected by the deviation detection module (42). Then, the control instructions are issued by the humidity control module (43) and the temperature control module (44) respectively, and fed back to the central processing module (2) through the instruction output module (45), and synchronously transmitted to the computer room docking module (12) by the transmission processing module (1) to control the operation of the control terminal in the computer room; during the control process, the outdoor monitoring module (46) detects the temperature deviation between the external environment and the internal circulation pipeline of the computer room, and outputs the heat exchange instruction after analysis by the natural heat exchange module (47), and sends the heat exchange instruction to the central processing module (2) in combination with the instruction output module (45), and synchronously transmits it to the computer room docking module (12) by the transmission processing module (1) to control the operation of the control terminal in the computer room, and realizes the temperature control in the computer room by natural heat exchange, thereby reducing the operating energy consumption of the airflow organization in the computer room; In the above step 3, the environment receiving module (51) in the change simulation module (5) receives the modeling result, and the control analysis module (52) receives the control instruction and heat exchange instruction issued by the organization control module (4). Then, the diffusion analysis module (53) is used to analyze the gas diffusion process in combination with the algorithm, and the gas diffusion process is fed back to the computer room model through the loop feedback module (54). After that, the simulation output module (55) outputs the result to the central processing module (2) and displays the result through the terminal feedback module (7). The model can be combined to predict air flow and provide a visual prediction display for the control terminal, thereby improving the practicality of the system. Among them, in the above-mentioned step 4, the pipeline monitoring module (6) performs pipeline detection during the circulation operation of the airflow organization in the computer room. The specific monitoring process is: first, a monitoring instruction is sent through the detection cycle preset in the clock preset module (61), and then the wind control module (62) issues an air pump output instruction, and the monitoring output module (66) feeds back to the central processing module (2) in real time and forwards it to the computer room docking module (12) for execution of the instruction. During the execution of the instruction, the pressure data inside the pipeline is received by the pressure receiving module (65), and the change comparison module (64) performs change analysis. Then, the abnormal positioning module (63) combines the analysis results to determine the pipeline blockage status, and finally, the monitoring output module (66) is used to feed back and automatically analyze the connectivity status of the circulation pipeline in the computer room, so as to provide a reference for later maintenance and improve the convenience of later maintenance management.

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