Method for adjusting environmental control equipment and method for establishing comparison database of environmental control equipment

Abstract

The present invention discloses a method for adjusting an environmental control device, comprising a comparison database establishment step, a comparison step, and an execution step. The comparison database establishment step is to pre-establish a comparison database, and the comparison database stores a plurality of environmental control modes corresponding to an environmental control device under a plurality of reference outdoor environmental parameter ranges. Each environmental control mode can maintain a required internal environmental parameter range in a closed space. The comparison step is to obtain an outdoor environmental parameter to be adapted by the processor, and compare the outdoor environmental parameter to be adapted with the reference outdoor environmental parameter range. The execution step is to control the environmental control device to operate in the corresponding environmental control mode according to the reference outdoor environmental parameter range that matches the comparison.

Description

Technical Field

[0001] The present invention relates to an environmental control method, in particular to a method for adjusting environmental control equipment and a method for establishing a comparison database of environmental control equipment. Background Art

[0002] Humans are developing more and more advanced technologies to cultivate various organisms in greenhouses. By adjusting the greenhouse environment to the environmental parameters suitable for the growth of various organisms, various organisms can grow well. Various organisms such as white broiler chickens and Phalaenopsis orchids. Please refer to Table 1 and Table 2 for the environmental parameters suitable for the growth of white broiler chickens and Phalaenopsis orchids.

[0003] Table 1

[0004] Chick stage Brooding period Molting period Fattening period Meat replacement period Cultivation period (days) 3~5 7~9 7~9 8~10 6~7 Temperature(℃) 35~38 31~32 27~29 27~28 26~27

[0005] Table 2

[0006] Temperature(℃) humidity(%) <![CDATA[Photosynthetic photon flux (µmol m -2 s -1 )]]> Carbon dioxide (ppm) Seedling 24-33 65-85 0-240 1%-2% Medium seedling 27-33 65-85 0-240 1%-2% Big seedling 27-33 65-85 0-240 1%-2% Flowering plants 18-25 40-70 0-200 1%-2%

[0007] As can be seen from Table 1 and Table 2, different organisms require different environmental parameters in each growth period. Indoor environmental parameters are closely related to the external environment, and indoor environmental parameters are often adjusted by many environmental control devices, such as fans, water walls, heaters, air conditioners, etc., to ensure that environmental conditions can be maintained within a suitable range. However, the outdoor environment changes dramatically with the day and night and the four seasons. Adjusting the environmental control equipment in real time with the changes in the outdoor environment may not necessarily smoothly adjust the environmental parameters within the suitable range for the growth of various organisms. Therefore, indoor environmental control equipment can cooperate with the external environment to adjust indoor environmental parameters within the suitable range for the growth of organisms, which is the research direction of this field. Summary of the invention

[0008] Therefore, the inventor proposes a method for adjusting the environmental control equipment and a method for establishing a comparison database for the environmental control equipment so as to enable the indoor environmental control equipment to coordinate with the external environment and adjust the environmental parameters within a suitable range for biological growth.

[0009] The method for adjusting the environmental control equipment includes a step of establishing a comparison database, a comparison step, and an execution step.

[0010] The step of establishing a comparison database is to pre-establish a comparison database, and the comparison database stores multiple environmental control modes corresponding to an environmental control device under multiple reference outdoor environmental parameter ranges. Each environmental control mode can maintain a required internal environmental parameter range for a closed space. The comparison step is that the processor obtains an outdoor environmental parameter to be adapted, and compares the outdoor environmental parameter to be adapted with the above-mentioned reference outdoor environmental parameter range. The execution step is that the processor controls the environmental control device to operate in the corresponding environmental control mode according to the reference outdoor environmental parameter range that matches the comparison.

[0011] Furthermore, each of the above-mentioned reference outdoor environmental parameter ranges is established by obtaining multiple internal detection environmental parameters of the enclosed space in the environmental control mode at a preset time; when the average value of the internal detection environmental parameters meets the internal environmental parameter range, multiple known outdoor environmental parameters at the preset time are obtained; when the standard deviation of the internal detection environmental parameters is less than the standard deviation of the known outdoor environmental parameters, and when the frequency distribution of the known outdoor environmental parameters presents a Gaussian distribution, the known outdoor environmental parameters are recorded as the reference outdoor environmental parameter range.

[0012] Furthermore, the frequency distribution of the known outdoor environmental parameter presents the Gaussian distribution, and when a peak point of the Gaussian distribution is at a center of the Gaussian distribution, the known outdoor environmental parameter is recorded as the reference outdoor environmental parameter range.

[0013] Further, when the outdoor environment parameter to be adapted falls within a plurality of reference outdoor environment parameter ranges, the processor compares the outdoor environment parameter to be adapted with a center value of each of the reference outdoor environment parameter ranges, and the processor controls the environmental control device to operate in the corresponding environmental control mode according to the reference outdoor environment parameter range to which the outdoor environment parameter to be adapted is closest to the center value.

[0014] Furthermore, the preset time is divided into intervals according to an environmental change factor, and the environmental change factor includes at least one of a factor of whether there is sunlight exposure and a seasonal change factor.

[0015] Further, when the frequency distribution of the known outdoor environmental parameters presents the Gaussian distribution, the known outdoor environmental parameters that appear more than a predetermined number of times in the Gaussian distribution are taken out and recorded as the reference outdoor environmental parameter range.

[0016] Furthermore, the known outdoor environmental parameters are sampled at intervals of an environmental parameter interval, and the number of occurrences of each sampling category of the known outdoor environmental parameters after sampling is counted to obtain the frequency distribution of the known outdoor environmental parameters.

[0017] Furthermore, when the average value of the internally detected environmental parameters does not conform to the internal environmental parameter range, or when the standard deviation of the internally detected environmental parameters is not less than the standard deviation of the known outdoor environmental parameters, or when the frequency distribution of the known outdoor environmental parameters does not present the Gaussian distribution, the environmental control mode corresponding to the environmental control device is adjusted, and the reference outdoor environmental parameter range of the updated environmental control mode is re-established.

[0018] Further, when the high point of the Gaussian distribution is not at the center of the Gaussian distribution, the environmental control mode corresponding to the environmental control device is adjusted, and the reference outdoor environmental parameter range of the updated environmental control mode is re-established.

[0019] The method for establishing a comparison database of environmental control equipment includes an internal data collection step, an external data collection step, and a storage step.

[0020] The internal data collection step is to obtain multiple internal detection environmental parameters of a closed space in an environmental control mode at a preset time. The external data collection step is to obtain multiple known outdoor environmental parameters at the preset time when the average value of the internal detection environmental parameters meets an internal environmental parameter range. The storage step is to record the known outdoor environmental parameters as a reference outdoor environmental parameter range when the standard deviation of the internal detection environmental parameters is less than the standard deviation of the known outdoor environmental parameters and when the frequency distribution of the known outdoor environmental parameters presents a Gaussian distribution.

[0021] The following effects can be achieved according to the above technical features:

[0022] 1. By accumulating data over a long period of time, different reference outdoor environmental parameter ranges and corresponding environmental control modes are established in advance. As long as the outdoor environmental parameters to be adapted are obtained in advance, the suitable environmental control mode in the comparison database can be compared and implemented accordingly. If the outdoor environmental parameters to be adapted are not within the range of the comparison database, the manager can manually or remotely control the operation of the environmental control equipment to cope with the arrival of severe weather.

[0023] 2. The processor determines that the average value of the internally detected environmental parameters is within the range of the internal environmental parameters, and the standard deviation of the internally detected environmental parameters is less than the standard deviation of the known outdoor environmental parameters, so that the environmental control mode of the environmental control device is suitable for the environmental changes of the outdoor space at the preset time.

[0024] 3. Using the processor to determine whether the frequency distribution of the known outdoor environmental parameters presents the Gaussian distribution, so as to ensure that the environmental control mode of the environmental control device is suitable for the environmental changes of the outdoor space with normal distribution.

[0025] 4. The processor determines that the high point of the Gaussian distribution is at the center of the Gaussian distribution, so as to provide a more stable environmental condition in the closed space.

[0026] 5. The processor first classifies the preset time into intervals according to the environmental change factors, so that the data collected at one time will not change too drastically.

[0027] 6. The processor extracts the known outdoor environmental parameters that appear more than the predetermined number of times in the Gaussian distribution and records them as the reference outdoor environmental parameter range to ensure that the known outdoor environmental parameters are within a safe control range. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 is a block diagram illustrating a control system for implementing a method for adjusting an environmental control device of the present invention.

[0029] Figure 2 is a flow chart illustrating an embodiment of a method for adjusting environmental control equipment according to the present invention.

[0030] Figure 3 It is a flow chart illustrating a step of establishing a comparison database in this embodiment.

[0031] Figure 4 FIG. 4 is a schematic diagram illustrating the frequency distribution of multiple known outdoor environmental parameters of the outdoor temperature during the winter daytime in this embodiment.

[0032] Figure 5 2 is a schematic diagram illustrating the frequency distribution of multiple known outdoor environmental parameters of outdoor humidity on winter nights in this embodiment.

[0033] Explanation of symbols:

[0034] 1: Processor

[0035] 2: Compare database

[0036] 3: Environmental control equipment

[0037] 4: Outdoor environmental parameter sensor

[0038] 5: Indoor environmental parameter sensor

[0039] S1: Steps for establishing a comparison database

[0040] S11: Internal data collection steps

[0041] S12: First judgment step

[0042] S13: Adjustment steps

[0043] S14: External data collection steps

[0044] S15: Second judgment step

[0045] S16: Third judgment step

[0046] S17: Fourth judgment step

[0047] S18: Storage step

[0048] S2: Alignment step

[0049] S3: Execution step. DETAILED DESCRIPTION

[0050] In view of the above technical features, the main effects of the method for adjusting the environmental control equipment and the method for establishing the comparison database of the environmental control equipment of the present invention can be clearly presented in the following embodiments.

[0051] See also Figure 1 and Figure 2 An embodiment of the method for adjusting the environmental control device of the present invention is executed by a control system. The control system includes a processor 1, a comparison database 2, an environmental control device 3, an outdoor environmental parameter sensor 4, and an indoor environmental parameter sensor 5. The method for adjusting the control mode of the environmental control device of the closed space according to the outdoor environmental parameters includes a comparison database establishment step S1, a comparison step S2, and an execution step S3.

[0052] The processor 1 is connected to the comparison database 2, the environmental control device 3, the outdoor environmental parameter sensor 4, and the indoor environmental parameter sensor 5 by signal. The comparison database 2 can be a storage device electrically connected to the processor 1, or it can be a cloud database. If the comparison database 2 is the cloud database, the processor 1 is connected to the cloud database by signal via a network. When the environmental control device 3 executes an environmental control mode, a closed space can maintain a required internal environmental parameter range. The internal environmental parameter range is, for example, a range of environmental parameters suitable for the growth of organisms cultivated in the closed space during a certain period. The environmental control device 3 includes at least one of a fan, a water wall, a heater, and an air conditioner. The comparison database 2 stores multiple reference outdoor environmental parameter ranges, each of which corresponds to one of the environmental control modes. Each reference outdoor environmental parameter range is, for example, a range of any one parameter such as a temperature, a humidity, a photon content, a carbon dioxide content, etc.

[0053] The step S1 of establishing a comparison database is to use the processor 1 to store a plurality of environmental control modes corresponding to the environmental control device 3 under the reference outdoor environmental parameter range into the comparison database 2. The step S1 of establishing a comparison database is used to establish the environmental control mode corresponding to each reference outdoor environmental parameter range. The step S1 of establishing a comparison database includes an internal data collection step S11, a first judgment step S12, an adjustment step S13, an external data collection step S14, a second judgment step S15, a third judgment step S16, a fourth judgment step S17 and a storage step S18.

[0054] The internal data collection step S11 is to use the indoor environmental parameter sensor 5 to detect multiple internal detection environmental parameters of the enclosed space in the environmental control mode at a preset time under each reference outdoor environmental parameter range, and the processor 1 then collects the internal detection environmental parameters from the indoor environmental parameter sensor 5. It should be noted that the processor 1 first classifies the preset time into intervals according to an environmental change factor, and the environmental change factor includes at least one of a factor of whether there is sunlight exposure and a seasonal change factor. For example, the preset time can be classified according to day and night or according to the four seasons of spring, summer, autumn and winter, and even the preset time can be classified according to morning and evening and four seasons. After the processor 1 classifies the preset time, it collects the internal detection environmental parameters within the classified preset time. For example, the processor 1 collects the internal detection environment parameters of a spring night once, or collects the internal detection environment parameters of a winter night once, approximately once every half hour, and collects a complete 12 hours of a winter night once, for example, from 5 pm to 5 am. If more accuracy is required, the collection interval can be shortened to fifteen minutes, so there is no limit to the collection interval.

[0055] The first judgment step S12 is to use the processor 1 to calculate the average value of the internal detection environment parameter, and determine whether the average value of the internal detection environment parameter meets the range of the internal environment parameter. If the average value of the internal detection environment parameter does not meet the range of the internal environment parameter, execute the adjustment step S13; if the average value of the internal detection environment parameter meets the range of the internal environment parameter, execute the external data collection step S14.

[0056] The adjustment step S13 is to adjust the environmental control mode corresponding to the environmental control device 3. After the adjustment is completed, the internal data collection step S11 is returned to, and the database establishment and comparison step S1 is performed again. For example, from the first judgment step S12, if the average value of the internal detection environment parameter temperature is greater than the internal environment parameter range, the user can adjust the fan and / or the water wall and / or the air conditioner to reduce the internal detection environment parameter temperature to its average value within the internal environment parameter range. If the internal detection environment parameters of a winter night cannot be fully collected after the adjustment, it is necessary to change another day for collection.

[0057] The external data collection step S14 is to use the outdoor environmental parameter sensor 4 to detect a plurality of known outdoor environmental parameters of an outdoor space outside the closed space, and the processor 1 then collects the known outdoor environmental parameters from the outdoor environmental parameter sensor 4 .

[0058] The second judgment step S15 is to use the processor 1 to calculate the standard deviation of the internal detection environment parameter and the standard deviation of the known outdoor environment parameter, and to judge whether the standard deviation of the internal detection environment parameter is less than the standard deviation of the known outdoor environment parameter. If the standard deviation of the internal detection environment parameter is not less than the standard deviation of the known outdoor environment parameter, the adjustment step S13 is executed. If the standard deviation of the internal detection environment parameter is less than the standard deviation of the known outdoor environment parameter, the third judgment step S16 is executed. In the case of meeting the first judgment step S12 and the second judgment step S15, it means that the environmental control mode of the environmental control device 3 is suitable for the environmental changes of the outdoor space at the preset time.

[0059] The third judgment step S16 is to use the processor 1 to sample the known outdoor environmental parameters at intervals of an environmental parameter interval, and to count the number of occurrences of each sampling category of the known outdoor environmental parameters after sampling, so as to obtain the frequency distribution of the known outdoor environmental parameters, and to determine whether the frequency distribution of the known outdoor environmental parameters presents a Gaussian distribution. If the frequency distribution of the known outdoor environmental parameters does not present the Gaussian distribution, the adjustment step S13 is executed. If the frequency distribution of the known outdoor environmental parameters presents the Gaussian distribution, the fourth judgment step S17 is executed. When the frequency distribution of the known outdoor environmental parameters presents the Gaussian distribution, it indicates that the frequency distribution of the known outdoor environmental parameters is a normal distribution. At this time, the environmental control mode of the environmental control device 3 is suitable for the environmental changes of the outdoor space with a normal distribution. Figure 4 As shown, any of the known outdoor environmental parameters collected by the processor 1 is an ambient temperature during a winter daytime, and the environmental parameter interval is set to 0.5°C. The processor 1 samples the known outdoor environmental parameter at intervals of 0.5°C, and counts the number of occurrences of the known outdoor environmental parameter in each sampling category after sampling to obtain the frequency distribution of the known outdoor environmental parameter.

[0060] The fourth judgment step S17 is to use the processor 1 to judge whether a high point of the Gaussian distribution is at the center of the Gaussian distribution. If the high point of the Gaussian distribution is not at the center of the Gaussian distribution, the adjustment step S13 is executed. If the high point of the Gaussian distribution is at the center of the Gaussian distribution, the storage step S18 is executed. If the frequency distribution of the known outdoor environmental parameters shows that the high point of the Gaussian distribution is at the center of the Gaussian distribution, it means that the Gaussian distribution is symmetrical, which can make the closed space a more stable environment. Figure 5 As shown, any of the known outdoor environmental parameters collected by the processor 1 is an ambient humidity on a winter night, and the environmental parameter interval is set to 5%. The processor 1 samples the known outdoor environmental parameter at an interval of 5%, and counts the number of times to obtain the frequency distribution of the known outdoor environmental parameter, from Figure 5 It can be seen that the high point of the frequency distribution of the known outdoor environmental parameters is not in the center of the frequency distribution of the known outdoor environmental parameters, but is biased to the right. Therefore, the adjustment step S13 is required to adjust the environmental control device 3 and then re-perform the step S1 of establishing the comparison database.

[0061] The storage step S18 is to use the processor 1 to extract the known outdoor environmental parameters that appear more than a predetermined number of times in the Gaussian distribution and record them as the reference outdoor environmental parameter range, and store the reference outdoor environmental parameter range in the comparison database. For example, if the predetermined number of times is 10 times, the processor 1 extracts the known outdoor environmental parameters that appear more than 10 times, and then extracts a minimum value and a maximum value from the known outdoor environmental parameters and records them as the reference outdoor environmental parameter range. The processor 1 extracts the known outdoor environmental parameters that appear more than the predetermined number of times in the Gaussian distribution as a safe control range to ensure that the environmental control mode of the environmental control device 3 can cope with changes within the reference outdoor environmental parameter range.

[0062] After the comparison database 2 is established, the comparison step S2 is continued. The comparison step S2 is to use the processor 1 to obtain an outdoor environment parameter to be adapted, and compare the outdoor environment parameter to be adapted with the reference outdoor environment parameter range in the comparison database 2. If the outdoor environment parameter to be adapted does not fall within the reference outdoor environment parameter range, a manager can manually or remotely control the operation of the environmental control device 3 to cope with the arrival of a changing climate. If the outdoor environment parameter to be adapted falls within a reference outdoor environment parameter range, the execution step S3 is executed.

[0063] The execution step S3 is to use the processor 1 to control the environmental control device 3 to operate in the corresponding environmental control mode according to the reference outdoor environmental parameter range that matches the comparison. It should be further explained that in the comparison step S2, when the outdoor environmental parameter to be adapted falls into a plurality of reference outdoor environmental parameter ranges, the processor 1 compares the outdoor environmental parameter to be adapted with a central value of each of the reference outdoor environmental parameter ranges, and the processor 1 controls the environmental control device 3 to operate in the corresponding environmental control mode according to the reference outdoor environmental parameter range to which the outdoor environmental parameter to be adapted is closest to the central value.

[0064] Therefore, through a long period of inductive analysis, the comparison database 2 can be established in advance to obtain the control conditions for maintaining the required internal environmental parameter range in the enclosed space, that is, under each reference outdoor environmental parameter range, the environmental control mode corresponding to the environmental control device 3. As long as the outdoor environmental parameters to be adapted to the outdoor space in the next period can be known, it can be determined whether the outdoor environmental parameters to be adapted to are within the range of the comparison database 2. If the outdoor environmental parameters to be adapted to are within the range of the comparison database 2, the environmental control device 3 can be controlled in advance to allow the enclosed space to maintain an environment suitable for the growth of organisms. If the outdoor environmental parameters to be adapted to are not within the range of the comparison database 2, the manager can manually or remotely control the operation of the environmental control device 3 to cope with the arrival of severe weather.

[0065] In summary, through the step S1 of establishing a comparison database, after a long period of data accumulation, different reference outdoor environmental parameter ranges and corresponding environmental control modes are established in advance. Then, through the comparison step S2, as long as the outdoor environmental parameter to be adapted is obtained in advance, the suitable environmental control mode in the comparison database 2 can be compared, and then the execution step S3 can be implemented. If the outdoor environmental parameter to be adapted is not within the range of the comparison database 2, the manager can manually or remotely control the operation of the environmental control device 3 to cope with the coming of severe weather. At the same time, the reference outdoor environmental parameter range that meets the outdoor environmental parameter to be adapted can be established through the step S1 of establishing a comparison database, and the first judgment step S12 and the second judgment step S15 can be used to make the environment control mode suitable for the outdoor environment. The environmental control mode of the environmental control device 3 is suitable for the environmental changes of the outdoor space at the preset time. The third judgment step S16 is used to ensure that the environmental control mode of the environmental control device 3 is suitable for the environmental changes of the outdoor space with normal distribution. The fourth judgment step S17 is used to allow the closed space to have more stable environmental conditions. In addition, in the internal data collection step S11, the processor 1 first classifies the preset time into intervals according to the environmental change factors so that the data collected at one time does not change too drastically. In the storage step S18, the processor 1 takes out the known outdoor environmental parameters that appear more than the predetermined number of times in the Gaussian distribution and records them as the reference outdoor environmental parameter range to ensure that the known outdoor environmental parameters are within a safe control range.

[0066] Based on the description of the above embodiments, the operation, use and effects of the present invention can be fully understood. However, the above embodiments are only preferred embodiments of the present invention and cannot be used to limit the scope of implementation of the present invention. That is, simple equivalent changes and modifications made according to the scope of the patent application of the present invention and the content of the invention description are all within the scope of the present invention.

Claims

1. A method for adjusting an environmental control device, characterized in that: The method for adjusting the environmental control device comprises: A comparison database is pre-established, in which a plurality of reference outdoor environmental parameter ranges are stored, and a plurality of environmental control modes corresponding to an environmental control device are used, each environmental control mode can maintain a required internal environmental parameter range in a closed space; A processor obtains a parameter of an outdoor environment to be adapted, and compares the parameter of the outdoor environment to be adapted with the reference outdoor environment parameter range; and The processor controls the environmental control device to operate in the corresponding environmental control mode according to the reference outdoor environmental parameter range that matches the comparison; The reference outdoor environmental parameter range is established by obtaining a plurality of internal detection environmental parameters of the enclosed space in the environmental control mode at a preset time; when the average value of the internal detection environmental parameters meets the internal environmental parameter range, obtaining a plurality of known outdoor environmental parameters at the preset time; when the standard deviation of the internal detection environmental parameters is less than the standard deviation of the known outdoor environmental parameters, and when the frequency distribution of the known outdoor environmental parameters presents a Gaussian distribution, and when a high point of the Gaussian distribution is at the center of the Gaussian distribution, recording the known outdoor environmental parameters as the reference outdoor environmental parameter range, and when the outdoor environmental parameter to be adapted falls into a plurality of reference outdoor environmental parameter ranges, the processor compares the outdoor environmental parameter to be adapted with a center value of each of the reference outdoor environmental parameter ranges, and the processor controls the environment according to the reference outdoor environmental parameter range to which the outdoor environmental parameter to be adapted is closest to the center value. The control device operates in the corresponding environmental control mode. When the frequency distribution of the known outdoor environmental parameters presents the Gaussian distribution, the known outdoor environmental parameters that appear more than a predetermined number of times in the Gaussian distribution are taken out and recorded as the reference outdoor environmental parameter range. The known outdoor environmental parameters are sampled at intervals of an environmental parameter interval, and the number of occurrences of each sampling category of the known outdoor environmental parameters after sampling is counted to obtain the frequency distribution of the known outdoor environmental parameters. When the average value of the internally detected environmental parameters does not conform to the internal environmental parameter range, or when the standard deviation of the internally detected environmental parameters is not less than the standard deviation of the known outdoor environmental parameters, or when the frequency distribution of the known outdoor environmental parameters does not present the Gaussian distribution, or when the high point of the Gaussian distribution is not at the center of the Gaussian distribution, the environmental control mode corresponding to the environmental control device is adjusted, and the reference outdoor environmental parameter range of the updated environmental control mode is re-established.

2. The method for adjusting environmental control equipment according to claim 1, characterized in that: The preset time is divided into intervals according to an environmental change factor, and the environmental change factor includes at least one of a sunlight exposure factor and a seasonal change factor.

3. A method for establishing a comparison database of environmental control equipment, comprising: At a preset time, a plurality of internal detection environment parameters of a closed space in an environmental control mode are obtained; It is characterized in that When the average value of the internal detected environmental parameter meets an internal environmental parameter range, obtaining a plurality of known outdoor environmental parameters under the preset time; and When the standard deviation of the internal detection environment parameter is less than the standard deviation of the known outdoor environment parameter, and when the frequency distribution of the known outdoor environment parameter presents a Gaussian distribution, and when a peak point of the Gaussian distribution is at a center of the Gaussian distribution, the known outdoor environment parameter is recorded as a reference outdoor environment parameter range; Obtain an outdoor environment parameter to be adapted, and compare the outdoor environment parameter to be adapted with the reference outdoor environment parameter range. When the outdoor environment parameter to be adapted falls into a plurality of reference outdoor environment parameter ranges, the processor compares the outdoor environment parameter to be adapted with a center value of each of the reference outdoor environment parameter ranges. The processor controls the environmental control device to operate in the corresponding environmental control mode according to the reference outdoor environment parameter range to which the outdoor environment parameter to be adapted is closest to the center value. When the frequency distribution of the known outdoor environment parameter presents the Gaussian distribution, the known outdoor environment parameter that appears more than a predetermined number of times in the Gaussian distribution is taken out and recorded as the reference outdoor environment parameter range. , sampling the known outdoor environmental parameters at intervals of an environmental parameter interval, and counting the number of occurrences of the known outdoor environmental parameters in each sampling category after sampling to obtain the frequency distribution of the known outdoor environmental parameters; when the average value of the internal detection environmental parameters does not conform to the internal environmental parameter range, or when the standard deviation of the internal detection environmental parameters is not less than the standard deviation of the known outdoor environmental parameters, or when the frequency distribution of the known outdoor environmental parameters does not present the Gaussian distribution, or when the high point of the Gaussian distribution is not at the center of the Gaussian distribution, adjusting the environmental control mode corresponding to the environmental control device, and re-establishing the reference outdoor environmental parameter range of the updated environmental control mode.

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