Ecological environment regulation and control method for data center

Abstract

The invention discloses an ecological environment regulation and control method for a data center, and relates to the field of environment regulation and control, and the method comprises the following steps: obtaining an equipment state change generation region, setting a data monitoring terminal, and obtaining state change data through the data monitoring terminal; analyzing the state change data to obtain an environment temperature regulation and control interval, an environment humidity regulation and control interval and an environment regulation and control value; according to the environment temperature regulation and control interval, the environment humidity regulation and control interval and the environment regulation and control value, the equipment state change generation area is regulated, the state change data is controlled, and a regulation and control strategy is generated; according to the invention, the ecological environment control precision is improved.

Description

Technical Field

[0001] The present invention relates to the field of environmental regulation and control, and specifically to an ecological environment regulation and control method for a data center. Background Art

[0002] With the rapid development of the Internet, cloud computing, big data, and artificial intelligence, as an important infrastructure for information storage and processing, the number and scale of data centers have increased significantly. There is an increasingly loud call for carbon neutrality, energy conservation, and emission reduction globally; as a high-energy-consuming industry, data centers face strict environmental protection regulations and social responsibility pressures and need to adopt more environmentally friendly solutions to reduce their carbon footprint; In the prior art, during the operation of equipment, the temperature and humidity states of the equipment will change accordingly, resulting in problems such as equipment failure and damage during operation and having an impact on the ecological environment, which are issues that we need to solve. For this reason, an ecological environment regulation and control method for a data center is provided herein. Summary of the Invention

[0003] In order to solve the above technical problems, the purpose of the present invention is to provide an ecological environment regulation and control method for a data center, including the following steps: Step S1: Obtain the area where equipment state changes occur, set up data monitoring terminals, and obtain state change data through the data monitoring terminals; Step S2: Analyze the state change data to obtain the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value; Step S3: According to the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value, adjust the area where equipment state changes occur and control the state change data to generate a regulation strategy.

[0004] Further, the process of obtaining the area where equipment state changes occur, setting up data monitoring terminals, and obtaining state change data through the data monitoring terminals includes: The area where equipment state changes occur refers to the temperature and humidity change areas of the equipment group; Obtain the area where equipment state changes occur, set the data monitoring terminals in each area where equipment state changes occur, continue to monitor the equipment state change situation, and obtain the state change data of each equipment. The state change data includes the fluctuating temperature value, temperature fluctuation time, fluctuating humidity value, and humidity fluctuation time; The data monitoring terminals are set in the ecological data center, and the ecological data center is used to monitor the state changes of each equipment and store the state change data.

[0005] Further, the process of analyzing the state change data to obtain the environmental temperature regulation range includes: Construct a two-dimensional rectangular coordinate system with the temperature fluctuation time on the vertical axis and the fluctuating temperature value of the device on the horizontal axis. Map the collected fluctuating temperature values of the device into the constructed two-dimensional rectangular coordinate system to generate corresponding fluctuating temperature data points. Label the generated fluctuating temperature data points and connect each fluctuating temperature data point in sequence by a straight line according to the time order to obtain a fluctuating temperature line graph; Set an upper threshold value for the fluctuating temperature and a lower threshold value for the fluctuating temperature; divide the fluctuating temperature line graph into regions according to the upper threshold value and the lower threshold value of the fluctuating temperature.

[0006] Further, the process of dividing the fluctuating temperature line graph into regions according to the upper threshold value and the lower threshold value of the fluctuating temperature includes: When the fluctuating temperature value in the fluctuating temperature line graph is greater than the upper threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the high-temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the lower threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the low-temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the upper threshold value of the fluctuating temperature and greater than the lower threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the normal-temperature fluctuation region; Obtain the low-temperature variation, the normal-temperature variation, and the high-temperature variation respectively according to the fluctuating temperature values corresponding to the adjacent fluctuating temperature data points in the low-temperature fluctuation region, the normal-temperature fluctuation region, and the high-temperature fluctuation region; Set a low-temperature fluctuation difference threshold interval, and the low-temperature fluctuation difference threshold interval includes an upper threshold value for the low-temperature fluctuation difference and a lower threshold value for the low-temperature fluctuation difference; When the low-temperature variation is less than the lower threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the environmental temperature regulation interval one; When the low-temperature variation is greater than the upper threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the environmental temperature regulation interval two; When the low-temperature variation is greater than the lower threshold value of the low-temperature fluctuation difference and less than the upper threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the environmental temperature regulation interval three; Set a high-temperature fluctuation difference threshold interval, and the high-temperature fluctuation difference threshold interval includes an upper threshold value for the high-temperature fluctuation difference and a lower threshold value for the high-temperature fluctuation difference; When the high-temperature variation is less than the lower threshold value of the high-temperature fluctuation difference, the high-temperature fluctuation interval corresponding to the high-temperature variation is denoted as the environmental temperature regulation interval four; When the high-temperature variation is greater than the upper threshold value of the high-temperature fluctuation difference, the high-temperature fluctuation interval corresponding to the high-temperature variation is denoted as the environmental temperature regulation interval five; When the high-temperature variation is greater than the lower threshold of the high-temperature fluctuation difference and less than the upper threshold of the high-temperature fluctuation difference, the high-temperature fluctuation range corresponding to the high-temperature variation is recorded as the environmental temperature control range six.

[0007] Further, the process of analyzing the state change data to obtain the environmental humidity control range includes: Construct a two-dimensional rectangular coordinate system of humidity fluctuation time versus the fluctuating humidity value of the device, map the collected fluctuating humidity values of the device into the constructed two-dimensional rectangular coordinate system of humidity fluctuation time versus the fluctuating humidity value of the device, generate corresponding fluctuating humidity data points, label the generated fluctuating humidity data points, and connect each fluctuating humidity data point in sequence by a straight line according to the time sequence to obtain a fluctuating humidity line graph; Set the upper threshold of the fluctuating humidity and the lower threshold of the fluctuating humidity; divide the fluctuating humidity line graph according to the upper threshold of the fluctuating humidity and the lower threshold of the fluctuating humidity.

[0008] Further, the process of dividing the fluctuating humidity line graph according to the upper threshold of the fluctuating humidity and the lower threshold of the fluctuating humidity includes: When the fluctuating humidity value in the fluctuating humidity line graph is greater than the upper threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the high humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the lower threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the low humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the upper threshold of the fluctuating humidity and greater than the lower threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the normal humidity fluctuation region; Obtain the low humidity variation and the high humidity variation respectively according to the fluctuating humidity values corresponding to the adjacent fluctuating humidity data points in the low humidity fluctuation region and the high humidity fluctuation region; Set the low humidity fluctuation difference threshold range, and the low humidity fluctuation difference threshold range includes the upper threshold of the low humidity fluctuation difference and the lower threshold of the low humidity fluctuation difference; When the low humidity variation is less than the lower threshold of the low humidity fluctuation difference, the low humidity fluctuation range corresponding to the low humidity variation is recorded as the environmental humidity control range one, with a grade of one; When the low humidity variation is greater than the upper threshold of the low humidity fluctuation difference, the low humidity fluctuation range corresponding to the low humidity variation is recorded as the environmental humidity control range two, with a grade of two; When the low humidity variation is greater than the lower threshold of the low humidity fluctuation difference and less than the upper threshold of the low humidity fluctuation difference, the low humidity fluctuation range corresponding to the low humidity variation is recorded as the environmental humidity control range three, with a grade of three; Set the high humidity fluctuation difference threshold range, and the high humidity fluctuation difference threshold range includes the upper threshold of the high humidity fluctuation difference and the lower threshold of the high humidity fluctuation difference; When the high humidity variation is less than the lower threshold of the high humidity fluctuation difference, the high humidity fluctuation range corresponding to the high humidity variation is recorded as the environmental humidity regulation range four, and the level is four; When the high humidity variation is greater than the upper threshold of the high humidity fluctuation difference, the high humidity fluctuation range corresponding to the high humidity variation is recorded as the environmental humidity regulation range five, and the level is five; When the high humidity variation is greater than the lower threshold of the high humidity fluctuation difference and less than the upper threshold of the high humidity fluctuation difference, the high humidity fluctuation range corresponding to the high humidity variation is recorded as the environmental humidity regulation range six, and the level is six.

[0009] Further, the process of analyzing the state change data to obtain the environmental regulation value is as follows: Set temperature regulation coefficients, where the temperature regulation coefficients include temperature regulation coefficient one, temperature regulation coefficient two, temperature regulation coefficient three, temperature regulation coefficient four, temperature regulation coefficient five, and temperature regulation coefficient six, and the temperature regulation coefficients are related to the fluctuating temperature values; Obtain environmental temperature regulation value one, environmental temperature regulation value two, environmental temperature regulation value three, environmental temperature regulation value four, environmental temperature regulation value five, and environmental temperature regulation value six according to the low temperature variation corresponding to the environmental temperature regulation range and the temperature regulation coefficients; Set humidity regulation coefficients, where the humidity regulation coefficients include humidity regulation coefficient one, humidity regulation coefficient two, humidity regulation coefficient three, humidity regulation coefficient four, humidity regulation coefficient five, and humidity regulation coefficient six, and the humidity regulation coefficients are related to the fluctuating humidity values; Obtain environmental humidity regulation value one, environmental humidity regulation value two, environmental humidity regulation value three, environmental humidity regulation value four, environmental humidity regulation value five, and environmental humidity regulation value six according to the low humidity variation corresponding to the environmental humidity regulation range and the humidity regulation coefficients.

[0010] Further, according to the environmental temperature regulation range, the environmental humidity regulation range, and the environmental regulation value, the process of adjusting the area where the equipment state changes and controlling the state change data to generate a regulation strategy includes: Obtain the levels of the environmental temperature regulation range and the environmental humidity regulation range corresponding to the environmental regulation value, add the obtained levels to obtain the regulation level; Perform multi-level adjustment on the area where the equipment state changes according to the regulation level. The multi-level adjustment refers to separating the cold air and hot air in the area where the equipment state changes and performing multi-stage temperature separation on the cold air and hot air; Monitor the state change data through the environmental regulation values corresponding to the environmental temperature regulation range and the environmental humidity regulation range. If the change value of the state change data exceeds the environmental regulation value, perform temperature and humidity control on the area corresponding to the state change data to generate a regulation strategy.

[0011] Compared with the prior art, the beneficial effects of the present invention are as follows: obtaining the area where the device state changes, setting up a data monitoring terminal, and obtaining the state change data through the data monitoring terminal are beneficial to accurately capturing the state of the device; analyzing the state change data to obtain the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value, improving the adaptability to dynamic data; according to the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value, adjusting the area where the device state changes, controlling the state change data, and generating a regulation strategy, improving the environmental control accuracy and resource utilization rate. Description of the Drawings

[0012] Figure 1 It is a schematic flowchart of an ecological environment regulation and control method for a data center according to an embodiment of the present application. Detailed Embodiments

[0013] As Figure 1 shown, an ecological environment regulation and control method for a data center includes the following steps: Step S1: Obtain the area where the device state changes, set up a data monitoring terminal, and obtain the state change data through the data monitoring terminal; Step S2: Analyze the state change data to obtain the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value; Step S3: According to the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value, adjust the area where the device state changes, control the state change data, and generate a regulation strategy; It should be further noted that in the specific implementation process, the process of obtaining the area where the device state changes, setting up a data monitoring terminal, and obtaining the state change data through the data monitoring terminal is as follows: The area where the device state changes refers to the temperature and humidity change areas of the device group; Obtain the area where the device state changes, set the data monitoring terminal in each area where the device state changes, continue to monitor the device state change situation, and obtain the state change data of each device. The state change data includes the fluctuating temperature value, temperature fluctuation time, fluctuating humidity value, and humidity fluctuation time; It should be further noted that in the specific implementation process, the fluctuating temperature value refers to the temperature value monitored by the data monitoring terminal when the device temperature fluctuates; the fluctuating humidity value refers to the humidity value monitored by the data monitoring terminal when the device humidity fluctuates; The data monitoring terminal is set in the ecological data center, and the ecological data center is used to monitor the state changes of each device and store the state change data.

[0014] It should be further noted that in the specific implementation process, the process of analyzing the status change data to obtain the environmental temperature control range, environmental humidity control range, and environmental control value is as follows: Construct a two-dimensional rectangular coordinate system with the temperature fluctuation time on the x-axis and the fluctuating temperature value of the device on the y-axis. Map the collected fluctuating temperature values of the device into the constructed two-dimensional rectangular coordinate system of the temperature fluctuation time on the device's fluctuating temperature value to generate corresponding fluctuating temperature data points. Label the generated fluctuating temperature data points as a, where a = 1, 2, 3, ……, s, and s is a positive integer. Connect each fluctuating temperature data point in sequence by a straight line according to the time order to obtain a fluctuating temperature line graph; Set the upper threshold value of the fluctuating temperature and the lower threshold value of the fluctuating temperature; according to the upper threshold value of the fluctuating temperature and the lower threshold value of the fluctuating temperature, divide the fluctuating temperature line graph into regions. When the fluctuating temperature value in the fluctuating temperature line graph is greater than the upper threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the high-temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the lower threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the low-temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the upper threshold value of the fluctuating temperature and greater than the lower threshold value of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is denoted as the normal-temperature fluctuation region; Calculate the differences between the fluctuating temperature values corresponding to the adjacent fluctuating temperature data points in the low-temperature fluctuation region, normal-temperature fluctuation region, and high-temperature fluctuation region respectively to obtain the low-temperature variation, normal-temperature variation, and high-temperature variation; Set a low-temperature fluctuation difference threshold interval, which includes an upper threshold value of the low-temperature fluctuation difference and a lower threshold value of the low-temperature fluctuation difference; When the low-temperature variation is less than the lower threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the first environmental temperature control range; When the low-temperature variation is greater than the upper threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the second environmental temperature control range; When the low-temperature variation is greater than the lower threshold value of the low-temperature fluctuation difference and less than the upper threshold value of the low-temperature fluctuation difference, the low-temperature fluctuation interval corresponding to the low-temperature variation is denoted as the third environmental temperature control range; Set a high-temperature fluctuation difference threshold interval, which includes an upper threshold value of the high-temperature fluctuation difference and a lower threshold value of the high-temperature fluctuation difference; When the high-temperature variation is less than the lower threshold value of the high-temperature fluctuation difference, the high-temperature fluctuation interval corresponding to the high-temperature variation is denoted as the fourth environmental temperature control range; When the high-temperature variation is greater than the upper threshold value of the high-temperature fluctuation difference, the high-temperature fluctuation interval corresponding to the high-temperature variation is denoted as the fifth environmental temperature control range; When the high-temperature variation is greater than the lower threshold of the high-temperature fluctuation difference and less than the upper threshold of the high-temperature fluctuation difference, the high-temperature fluctuation interval corresponding to the high-temperature variation is denoted as the environmental temperature regulation interval six; Set temperature regulation coefficients, including temperature regulation coefficient one, temperature regulation coefficient two, temperature regulation coefficient three, temperature regulation coefficient four, temperature regulation coefficient five, and temperature regulation coefficient six. The temperature regulation coefficients are related to the fluctuating temperature values; Multiply the low-temperature variation corresponding to the environmental temperature regulation interval one by the temperature regulation coefficient one to obtain the environmental temperature regulation value one; Multiply the low-temperature variation corresponding to the environmental temperature regulation interval two by the temperature regulation coefficient two to obtain the environmental temperature regulation value two; Multiply the low-temperature variation corresponding to the environmental temperature regulation interval three by the temperature regulation coefficient three to obtain the environmental temperature regulation value three; Multiply the high-temperature variation corresponding to the environmental temperature regulation interval four by the temperature regulation coefficient four to obtain the environmental temperature regulation value four; Multiply the high-temperature variation corresponding to the environmental temperature regulation interval five by the temperature regulation coefficient four to obtain the environmental temperature regulation value five; Multiply the high-temperature variation corresponding to the environmental temperature regulation interval six by the temperature regulation coefficient four to obtain the environmental temperature regulation value six; Mark the environmental temperature regulation value one, environmental temperature regulation value two, environmental temperature regulation value three, environmental temperature regulation value four, environmental temperature regulation value five, and environmental temperature regulation value six in the corresponding fluctuating temperature line graph; Construct a two-dimensional rectangular coordinate system of humidity fluctuation time with respect to the fluctuating humidity value of the device. Map the collected fluctuating humidity value of the device into the constructed two-dimensional rectangular coordinate system of humidity fluctuation time with respect to the fluctuating humidity value of the device to generate corresponding fluctuating humidity data points. Number the generated fluctuating humidity data points, denoted as b, where b = 1, 2, 3,..., f, and f is a positive integer. Connect each fluctuating humidity data point in sequence by a straight line according to the time order to obtain a fluctuating humidity line graph; Set the upper threshold and lower threshold of the fluctuating humidity. According to the upper threshold and lower threshold of the fluctuating humidity, divide the fluctuating humidity line graph into regions. When the fluctuating humidity value in the fluctuating humidity line graph is greater than the upper threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is denoted as the high humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the lower threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is denoted as the low humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the upper threshold of the fluctuating humidity and greater than the lower threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is denoted as the normal humidity fluctuation region; Calculate the differences between the fluctuating humidity values corresponding to the adjacent fluctuating humidity data points in the low humidity fluctuation region and the high humidity fluctuation region respectively to obtain the low humidity variation and the high humidity variation respectively. Set a low humidity fluctuation difference threshold range, which includes an upper threshold value of the low humidity fluctuation difference and a lower threshold value of the low humidity fluctuation difference. When the low humidity variation is less than the lower threshold value of the low humidity fluctuation difference, record the low humidity fluctuation range corresponding to the low humidity variation as environmental humidity regulation range one, with a grade of one. When the low humidity variation is greater than the upper threshold value of the low humidity fluctuation difference, record the low humidity fluctuation range corresponding to the low humidity variation as environmental humidity regulation range two, with a grade of two. When the low humidity variation is greater than the lower threshold value of the low humidity fluctuation difference and less than the upper threshold value of the low humidity fluctuation difference, record the low humidity fluctuation range corresponding to the low humidity variation as environmental humidity regulation range three, with a grade of three. Set a high humidity fluctuation difference threshold range, which includes an upper threshold value of the high humidity fluctuation difference and a lower threshold value of the high humidity fluctuation difference. When the high humidity variation is less than the lower threshold value of the high humidity fluctuation difference, record the high humidity fluctuation range corresponding to the high humidity variation as environmental humidity regulation range four, with a grade of four. When the high humidity variation is greater than the upper threshold value of the high humidity fluctuation difference, record the high humidity fluctuation range corresponding to the high humidity variation as environmental humidity regulation range five, with a grade of five. When the high humidity variation is greater than the lower threshold value of the high humidity fluctuation difference and less than the upper threshold value of the high humidity fluctuation difference, record the high humidity fluctuation range corresponding to the high humidity variation as environmental humidity regulation range six, with a grade of six. Set a humidity regulation coefficient, which includes humidity regulation coefficient one, humidity regulation coefficient two, humidity regulation coefficient three, humidity regulation coefficient four, humidity regulation coefficient five, and humidity regulation coefficient six. The humidity regulation coefficient is related to the fluctuating humidity value. Multiply the low humidity variation corresponding to the environmental humidity regulation range one by the humidity regulation coefficient one to obtain environmental humidity regulation value one, with a grade of one. Multiply the low humidity variation corresponding to the environmental humidity regulation range two by the humidity regulation coefficient two to obtain environmental humidity regulation value two, with a grade of two. Multiply the low humidity variation corresponding to the environmental humidity regulation range three by the humidity regulation coefficient three to obtain environmental humidity regulation value three, with a grade of three. Multiply the high humidity variation corresponding to the environmental humidity regulation range four by the humidity regulation coefficient four to obtain environmental humidity regulation value four, with a grade of four. Multiply the high humidity variation corresponding to the environmental humidity regulation range five by the humidity regulation coefficient five to obtain environmental humidity regulation value five, with a grade of five. Multiply the high humidity variation corresponding to the sixth environmental humidity regulation range by the sixth humidity regulation coefficient to obtain the sixth environmental humidity regulation value, with a grade of six; Mark the first, second, third, fourth, fifth, and sixth environmental humidity regulation values in the corresponding fluctuating humidity line chart; Correspond the temperature fluctuation time of the fluctuating temperature line chart with the humidity fluctuation time of the fluctuating humidity line chart one by one. Multiply the environmental temperature regulation value corresponding to the temperature fluctuation time by the environmental humidity regulation value corresponding to the humidity fluctuation time corresponding to the temperature fluctuation time to obtain the environmental regulation value.

[0015] It should be further noted that in the specific implementation process, according to the environmental temperature regulation range, environmental humidity regulation range, and environmental regulation value, the process of adjusting the area where equipment state changes and controlling the state change data to generate a regulation strategy is as follows: Obtain the grades of the environmental temperature regulation range and environmental humidity regulation range corresponding to the environmental regulation value, and add the obtained grades to obtain the regulation grade; Perform multi-level adjustment on the area where equipment state changes according to the regulation grade. The multi-level adjustment refers to separating the cold air and hot air in the area where equipment state changes, and performing multi-stage temperature separation on the cold air and hot air. At the same time, perform operations such as heat dissipation and ventilation on the area where equipment state changes; Monitor the state change data through the environmental regulation value corresponding to the environmental temperature regulation range and environmental humidity regulation range. If the change value of the state change data exceeds the environmental regulation value, perform temperature and humidity control on the area corresponding to the state change data to generate a regulation strategy.

[0016] The above embodiments are only used to illustrate the technical method of the present invention and not to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those of ordinary skill in the art should understand that the technical method of the present invention can be modified or equivalently replaced without departing from the spirit and scope of the technical method of the present invention.

Claims

1. A method for regulating and controlling the ecological environment of a data center, characterized in that: The following steps are involved: Step S1: Obtain the area where the device state change occurs, set up a data monitoring terminal, and obtain state change data through the data monitoring terminal; Step S2: Analyze the state change data to obtain the ambient temperature control range, ambient humidity control range and ambient control value; Step S3: According to the ambient temperature control interval, the ambient humidity control interval and the ambient control value, the device state change generation area is adjusted, and the state change data is controlled to generate a control strategy.

2. The method for regulating and controlling the ecological environment of a data center according to claim 1, characterized in that: The process of obtaining the area where the device status change occurs, setting up a data monitoring terminal, and obtaining the status change data through the data monitoring terminal includes: The device state change occurrence area refers to the temperature and humidity change area of ​​the device group; Obtain the device state change occurrence area, set the data monitoring terminal in each device state change occurrence area, continue to monitor the device state change situation, and obtain the state change data of each device, the state change data includes the fluctuating temperature value, the temperature fluctuation time, the fluctuating humidity value and the humidity fluctuation time; The data monitoring terminal is arranged in the ecological data center, and the ecological data center is used to monitor the state change of each device and store the state change data.

3. The method for regulating and controlling the ecological environment of a data center according to claim 2, characterized in that: The process of analyzing the state change data and obtaining the ambient temperature control range includes: Constructing a two-dimensional rectangular coordinate system of the temperature fluctuation time with respect to the fluctuating temperature value of the device, mapping the acquired fluctuating temperature value of the device to the constructed two-dimensional rectangular coordinate system of the temperature fluctuation time with respect to the fluctuating temperature value of the device, generating corresponding fluctuating temperature data points, labeling the generated fluctuating temperature data points, and connecting each fluctuating temperature data point in chronological order with a straight line in sequence to obtain a fluctuating temperature line graph; Set the upper and lower temperature thresholds for the fluctuating temperature; divide the fluctuating temperature line graph into regions according to the upper and lower temperature thresholds for the fluctuating temperature.

4. The method for regulating and controlling the ecological environment of a data center according to claim 3, characterized in that: The process of dividing the fluctuation temperature line graph into regions according to the fluctuation temperature upper threshold and the fluctuation temperature lower threshold includes: When the fluctuating temperature value in the fluctuating temperature line graph is greater than the upper limit threshold of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is recorded as the high temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the lower limit threshold of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is recorded as the low temperature fluctuation region; when the fluctuating temperature value in the fluctuating temperature line graph is less than the upper limit threshold of the fluctuating temperature and greater than the lower limit threshold of the fluctuating temperature, the time region corresponding to the fluctuating temperature value is recorded as the normal temperature fluctuation region; According to the fluctuating temperature values ​​corresponding to the adjacent fluctuating temperature data points corresponding to the low temperature fluctuation area, the normal temperature fluctuation area and the high temperature fluctuation area, the low temperature variation, the normal temperature variation and the high temperature variation are obtained respectively; Setting a low temperature fluctuation difference threshold interval, wherein the low temperature fluctuation difference threshold interval includes a low temperature fluctuation difference upper threshold and a low temperature fluctuation difference lower threshold; When the low temperature variation is less than the low temperature fluctuation difference lower threshold, the low temperature fluctuation interval corresponding to the low temperature variation is recorded as the ambient temperature control interval 1; When the low temperature variation is greater than the upper threshold of the low temperature fluctuation difference, the low temperature fluctuation interval corresponding to the low temperature variation is recorded as the ambient temperature control interval 2; When the low temperature variation is greater than the low temperature fluctuation difference lower threshold value and less than the low temperature fluctuation difference upper threshold value, the low temperature fluctuation interval corresponding to the low temperature variation is recorded as the ambient temperature control interval three; Setting a high temperature fluctuation difference threshold interval, wherein the high temperature fluctuation difference threshold interval includes a high temperature fluctuation difference upper threshold and a high temperature fluctuation difference lower threshold; When the high temperature variation is less than the lower threshold of the high temperature fluctuation difference, the high temperature fluctuation interval corresponding to the high temperature variation is recorded as the ambient temperature control interval 4; When the high temperature variation is greater than the upper threshold of the high temperature fluctuation difference, the high temperature fluctuation interval corresponding to the high temperature variation is recorded as the ambient temperature control interval five; When the high temperature variation is greater than the lower threshold of the high temperature fluctuation difference and less than the upper threshold of the high temperature fluctuation difference, the high temperature fluctuation interval corresponding to the high temperature variation is recorded as the environmental temperature control interval six.

5. The method for regulating and controlling the ecological environment of a data center according to claim 4, characterized in that: The process of analyzing the state change data and obtaining the environmental humidity control range includes: Constructing a two-dimensional rectangular coordinate system of humidity fluctuation time with respect to the fluctuation humidity value of the device, mapping the collected fluctuation humidity value of the device to the constructed two-dimensional rectangular coordinate system of humidity fluctuation time with respect to the fluctuation humidity value of the device, generating corresponding fluctuation humidity data points, labeling the generated fluctuation humidity data points, and connecting each fluctuation humidity data point in chronological order with a straight line in sequence to obtain a fluctuation humidity line graph; An upper threshold value of the fluctuation humidity and a lower threshold value of the fluctuation humidity are set; and the fluctuation humidity line graph is divided into regions according to the upper threshold value of the fluctuation humidity and the lower threshold value of the fluctuation humidity.

6. The method for regulating and controlling the ecological environment of a data center according to claim 5, characterized in that: The process of dividing the fluctuation humidity line graph into regions according to the fluctuation humidity upper limit threshold and the fluctuation humidity lower limit threshold includes: When the fluctuating humidity value in the fluctuating humidity line graph is greater than the upper limit threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the high humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the lower limit threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the low humidity fluctuation region; when the fluctuating humidity value in the fluctuating humidity line graph is less than the upper limit threshold of the fluctuating humidity and greater than the lower limit threshold of the fluctuating humidity, the time region corresponding to the fluctuating humidity value is recorded as the normal humidity fluctuation region; According to the fluctuating humidity values ​​corresponding to the adjacent fluctuating humidity data points corresponding to the low humidity fluctuation area and the high humidity fluctuation area, the low humidity variation and the high humidity variation are obtained respectively; Setting a low humidity fluctuation difference threshold interval, wherein the low humidity fluctuation difference threshold interval includes a low humidity fluctuation difference upper threshold and a low humidity fluctuation difference lower threshold; When the low humidity variation is less than the lower threshold of the low humidity fluctuation difference, the low humidity fluctuation interval corresponding to the low humidity variation is recorded as the environmental humidity control interval 1, and the level is 1; When the low humidity variation is greater than the upper threshold of the low humidity fluctuation difference, the low humidity fluctuation interval corresponding to the low humidity variation is recorded as the environmental humidity control interval 2, and the level is 2; When the low humidity variation is greater than the lower threshold of the low humidity fluctuation difference and less than the upper threshold of the low humidity fluctuation difference, the low humidity fluctuation interval corresponding to the low humidity variation is recorded as the environmental humidity control interval three, and the level is three; Setting a high humidity fluctuation difference threshold interval, wherein the high humidity fluctuation difference threshold interval includes a high humidity fluctuation difference upper threshold and a high humidity fluctuation difference lower threshold; When the high humidity variation is less than the lower threshold of the high humidity fluctuation difference, the high humidity fluctuation interval corresponding to the high humidity variation is recorded as the environmental humidity control interval four, and the level is four; When the high humidity variation is greater than the upper threshold of the high humidity fluctuation difference, the high humidity fluctuation interval corresponding to the high humidity variation is recorded as the environmental humidity control interval five, and the level is five; When the high humidity variation is greater than the lower threshold of the high humidity fluctuation difference and less than the upper threshold of the high humidity fluctuation difference, the high humidity fluctuation interval corresponding to the high humidity variation is recorded as environmental humidity control interval six, and the level is six.

7. The method for regulating and controlling the ecological environment of a data center according to claim 6, characterized in that: The process of analyzing the state change data and obtaining the environmental control value is as follows: Setting a temperature control coefficient, wherein the temperature control coefficient includes temperature control coefficient 1, temperature control coefficient 2, temperature control coefficient 3, temperature control coefficient 4, temperature control coefficient 5 and temperature control coefficient 6, and the temperature control coefficient is related to the fluctuating temperature value; According to the low temperature variation and the temperature control coefficient corresponding to the ambient temperature control interval, an ambient temperature control value 1, an ambient temperature control value 2, an ambient temperature control value 3, an ambient temperature control value 4, an ambient temperature control value 5 and an ambient temperature control value 6 are obtained; Setting a humidity control coefficient, wherein the humidity control coefficient includes humidity control coefficient 1, humidity control coefficient 2, humidity control coefficient 3, humidity control coefficient 4, humidity control coefficient 5 and humidity control coefficient 6, and the humidity control coefficient is related to the fluctuating humidity value; According to the low humidity variation and the humidity control coefficient corresponding to the environmental humidity control interval, the environmental humidity control value one, the environmental humidity control value two, the environmental humidity control value three, the environmental humidity control value four, the environmental humidity control value five and the environmental humidity control value six are obtained.

8. The method for regulating and controlling the ecological environment of a data center according to claim 7, characterized in that: According to the ambient temperature control range, ambient humidity control range and ambient control value, the area where the equipment state changes occurs is adjusted, and the state change data is controlled. The process of generating the control strategy includes: Obtain the levels of the ambient temperature control interval and the ambient humidity control interval corresponding to the ambient control value, and add the obtained levels to obtain the control level; Perform multi-level regulation on the area where the equipment state change occurs according to the regulation level, wherein the multi-level regulation refers to separating the cold air and the hot air in the area where the equipment state change occurs, and performing multi-stage temperature separation on the cold air and the hot air; The state change data is monitored through the environmental control values ​​corresponding to the ambient temperature control interval and the ambient humidity control interval. If the change value of the state change data exceeds the environmental control value, the temperature and humidity of the area corresponding to the state change data are controlled to generate a control strategy.

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