Air conditioner variable air volume control method and system based on laboratory environment monitoring
Through the laboratory environmental monitoring system, the air conditioner power and air volume are dynamically adjusted using access control devices and sensors, solving the accuracy of laboratory environmental regulation and energy waste problems, ensuring the stability and efficiency of experimental conditions.
Patent Information
- Application Number
- CN202510758673.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-06-09
- Publication Date
- 2025-07-08
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
The existing technology lacks high-precision control in laboratory environmental regulation, resulting in untimely or inaccurate energy waste and regulation, which cannot meet the needs of 24-hour uninterrupted monitoring.
The number of researchers is identified through the access control device, combined with sensors to monitor the partition environment parameters, dynamically adjust the total power and air volume of the air conditioner to achieve accurate regulation.
It realizes precise control of the laboratory environment, reduces energy waste, improves the timeliness and accuracy of adjustments, and adapts to changes in the external environment and personnel.
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Figure CN120274401A_ABST
Abstract
Description
Technical Field
[0001] The present invention belongs to the technical field of variable air volume control of air conditioners. Specifically, it relates to a method and system for variable air volume control of air conditioners based on laboratory environment monitoring. Background Art
[0002] As an important place for scientific research and teaching, the environmental conditions of the laboratory have a crucial impact on the accuracy and safety of experimental results.
[0003] When the prior art adjusts and controls the temperature and humidity in the laboratory, it often adopts a "one-size-fits-all" method, lacking a high-precision processing scheme and being unable to achieve fine temperature and humidity control, greatly wasting the electric energy resources in the laboratory. At the same time, the manual adjustment and monitoring methods not only increase the burden on laboratory staff but also may lead to untimely or inaccurate regulation, especially in experiments that require 24-hour uninterrupted monitoring. Based on this, the present invention proposes a method and system for variable air volume control of air conditioners based on laboratory environment monitoring. Summary of the Invention
[0004] Aiming at the deficiencies of the prior art, the present invention provides a method and system for variable air volume control of air conditioners based on laboratory environment monitoring, which solves the problem that it is difficult to accurately control the environmental parameters in the laboratory in the prior art.
[0005] The object of the present invention can be achieved by the following technical solutions: A method for variable air volume control of air conditioners based on laboratory environment monitoring, the method includes the following steps: S1. Use an access control device with the function of reading the researcher's identity card to identify the researchers entering and leaving the laboratory, record the total number of researchers in the laboratory in real time, and lock the total power of the air conditioners in the laboratory based on the total number of researchers in the laboratory. S2. Divide the laboratory area into several partitioned areas by using a preset area, install sensors in each partitioned area to obtain the environmental parameters in the corresponding partitioned area, and preliminarily adjust the air volume of the air conditioners in the partitioned area based on the calibrated standard environmental parameters of the laboratory. S3. Obtain the environmental parameters in each partitioned area in real time, and further adjust the air volume of the air conditioners in each partitioned area in combination with the determined total power of the air conditioners.
[0006] As a further solution of the present invention, the sensors described in step S2 include: temperature and humidity sensors; The environmental parameters include: temperature and humidity; The standard environmental parameters include: standard temperature and standard humidity.
[0007] As a further solution of the present invention, in step S1, the specific method for real-time recording the total number of researchers in the current laboratory is as follows: S31. Install an access control device at the entrance and exit of the laboratory to monitor the researchers entering and leaving the laboratory; S32. Set a counter q, the initial value of q is 0. When a researcher enters the laboratory through the access control device, q is incremented by one; S33. If a researcher leaves the laboratory through the access control device, then q is decremented by one; S34. Based on the value of q, lock the total number of researchers q in the laboratory.
[0008] As a further solution of the present invention, in step S1, the specific method for locking the total air-conditioning power in the current laboratory based on the total number of researchers in the current laboratory includes the following: Obtain the theoretical maximum power of the air conditioners equipped in the laboratory ; Then obtain the minimum power of the air conditioners to maintain the laboratory in the standard environmental parameters , and the minimum power is not a fixed value and is determined according to the external environment where the current laboratory is located; Extract the maximum total number of researchers Q that the laboratory can accommodate during normal research work, and associate the maximum total number of researchers Q with the maximum power ; Obtain the total number of researchers q in the current laboratory, and use to obtain the ratio of q to Q ; According to calculate the adjustable power of the air conditioners equipped in the laboratory , and through , calculate the power to be adjusted , and add to to obtain the total power of the air conditioners equipped in the laboratory corresponding to the total number of researchers q in the current laboratory, denoted as .
[0009] As a further solution of the present invention, in step S2, the specific method for partitioning the laboratory using a preset area is as follows: Determine the laboratory area S, and obtain the area preset by the operator Partition the laboratory area S to obtain , where is any one of them, i and j are both counting indices, starting from 1, and i does not exceed j.
[0010] As a further solution of the present invention, determine the minimum power according to the external environment where the current laboratory is located The specific method is as follows: S61. Obtain the partition area The temperature and humidity before the air conditioner is turned on for temperature and humidity regulation; Extract the standard temperature and standard humidity preset by the operator for the current laboratory; S62. Obtain the initial air supply volume of the air conditioner preset by the operator and its associated air supply temperature and air supply humidity; Calculate the heat load in the partition area , where the heat load represents the heat quantity reduced or increased in the current partition area; Then calculate the moisture load in the partition area , where the moisture load is the amount of moisture to be removed or added to adjust the humidity level in the partition area ; S63. Use temperature drive to calculate the minimum air volume required for the current partition area to reach the standard temperature ; S64. Similarly, use humidity drive to calculate the minimum air volume required for the current partition area to reach the standard humidity ; S65. Take the maximum value of as the final minimum air volume, denoted as ; S66. According to the method described in S61 to S65, obtain the final minimum air volume of j partition areas, and denote it as ; Then take the total power required to regulate the temperature and humidity of the laboratory to the standard temperature and humidity as the minimum power in the external environment where the current laboratory is located, denoted as ; As a further solution of the present invention, in step S2, the specific method for preliminarily regulating the air volume of the air conditioner in the partition area is as follows: Regulate the variable air volume valve of the air conditioner in each partition area to the determined
[0011]
[0012] As a further solution of the present invention, in step S3, the specific method for further regulating the air volume of the air conditioner in each partition area is as follows: Based on the total number q of researchers in the laboratory, determine the total power; Extract the time interval t preset by the operator. Every time interval t, extract any one partition area inside the temperature , humidity ; Will , Respectively with And Compare, and calculate With Difference rate , and With Difference rate ; If , Do not exceed the difference rate threshold preset by the operator , it is determined that the environmental parameters in the current partition area are in a normal state and no processing is performed; If , Among them, if any difference rate exceeds , it is determined that the environmental parameters in the current partition area Are in an abnormal state; Extract the partition area that is in an abnormal state Inside the temperature at the current time interval t , humidity , use temperature drive to calculate the temperature Reach the standard temperature The minimum air volume required , use humidity drive to calculate humidity Reach the standard humidity The minimum air volume required , and determine , The maximum value of, denoted as ; Adjust the variable air volume valve of the air conditioner in the partition area To As the air volume of the air conditioner in this partition area.
[0013] As a further solution of the present invention, a variable air volume control system for an air conditioner based on laboratory environment monitoring includes the following: Access control recognition module, including access control device and identity identification plate; The access control device is used to identify the researchers entering and leaving the laboratory; The identity information of the corresponding researcher is stored in the identity card; The environment acquisition module, including a temperature sensor and a humidity sensor, is used to obtain the environmental parameters in the corresponding partition area; The terminal processing module reads a variable air volume control method for air conditioners based on laboratory environment monitoring stored in the memory and executes the steps of any of the above-mentioned methods; The storage module is used to store the analysis results and calculation results of any of the above-mentioned methods, and save a variable air volume control method for air conditioners based on laboratory environment monitoring; The adjustment and control module receives the regulation command sent by the terminal processing module, adjusts the air conditioner power, and regulates the air volume valve of the air conditioner.
[0014] Advantages of the present invention: The present invention monitors the number of researchers in the laboratory in real time through the access control device and dynamically adjusts the total power of the air conditioner according to the number of people. The core lies in directly associating the air conditioner power with the number of people in the laboratory, avoiding energy waste in the traditional fixed-power air conditioner system. In addition, the present invention also provides a method for obtaining the maximum power and minimum power of the laboratory air conditioner, calculates the ratio based on the maximum capacity and the current actual number of people in the laboratory, and combines the ratio with the adjustable power range of the air conditioner to dynamically adjust the total power of the air conditioner, making the adjustment of the air conditioner power more accurate, meeting the actual needs of the laboratory. At the same time, the minimum power is dynamically adjusted according to the environment where the laboratory is located to ensure that the standard temperature and humidity can be maintained under different environmental conditions; The present invention divides the laboratory into partitions by preset area, installs sensors in each partition area to obtain environmental parameters, and preliminarily regulates the air volume of the air conditioner in the partition area based on the calibrated standard environmental parameters of the laboratory to ensure that the environmental parameters of each partition can reach the standard range, avoiding the lag of the traditional air conditioner regulation system when the environmental parameters change; The present invention monitors the environmental parameters of the partition area at a set cycle time, extracts the temperature and humidity data in each partition area, compares them with the standard values, and judges whether it is necessary to adjust the air volume of the air conditioner according to the difference rate. If the difference rate exceeds the preset threshold, the minimum air volume is recalculated based on the temperature and humidity and the variable air volume valve of the air conditioner is adjusted, which can achieve precise control of the laboratory environment and can also be flexibly adjusted according to the actual use situation of the laboratory. Description of the drawings
[0015] The present invention will be further described below with reference to the drawings.
[0016] Figure 1 It is a schematic structural diagram of the system described in Embodiment 1 of the present invention; Figure 2 It is a schematic flowchart of the method described in Embodiment 2 of the present invention. Specific implementation manners
[0017] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present invention.
[0018] Embodiment 1
[0019] An air volume variable control system for air conditioners based on laboratory environment monitoring, as Figure 1 shown, specifically includes the following: An air volume variable control system for air conditioners based on laboratory environment monitoring described in the present invention is a highly integrated intelligent system, aiming to achieve precise control and efficient management of the laboratory environment; through the collaborative work of multiple modules, dynamic monitoring and regulation of the number of laboratory personnel, environmental parameters, and air volume of the air conditioner are realized.
[0020] An access control recognition module, which includes an access control device installed at the entrance and exit of the laboratory. The device interacts with the terminal processing module in real time. When a researcher needs to enter the laboratory, the equipped identity recognition card needs to be verified with the access control device; The access control device uploads the identity information of the researcher extracted from the researcher's identity recognition card to the terminal processing module; The terminal processing module will obtain the identity information of the researcher, and further extract all the identity information of the researchers corresponding to the laboratory pre-stored by the operator in the storage module and perform a comparison. If the comparison is successful, it is considered that the researcher belongs to the laboratory, indicating that the researcher has the permission to enter and exit the laboratory, and it will detect in real time whether the researcher has successfully entered the laboratory. If it is determined that the researcher has entered the laboratory, the counter built into the access control device will be incremented by one; Similarly, if it is detected that any researcher leaves the laboratory, the counter built into the access control device will be decremented by one; The value of the counter in the access control device represents the total number of real-time researchers in the laboratory.
[0021] The identity information of the corresponding researcher recorded in the identity recognition card, and the identity information includes: the identity number of the researcher and the name of the researcher.
[0022] Environmental acquisition module. The environmental acquisition device is a number of sensor groups, and one sensor group includes a temperature sensor and a humidity sensor; One sensor group is assembled in a partition area to monitor the environmental parameters in this partition area in real time, that is, temperature and humidity. The division of partition areas needs to meet the requirement that the temperature and humidity between different partition areas will not affect each other; after detecting the environmental parameters in the corresponding partition area, the environmental parameters are transmitted to the terminal processing module in real time through the system bus for further processing.
[0023] Terminal processing module, including a number of computing units, which are used to process the data and requests sent to the terminal processing module by each module in real time, and output corresponding operation instructions to the corresponding modules.
[0024] Storage module, which includes a database for storing any data described in this solution, and interacts with the terminal processing module in real time, transmitting corresponding data to the terminal processing module, or storing the data transmitted from the terminal processing module; Adjustment and control module, including a controller and a number of air conditioning variable air volume valves. The controller is used to receive the regulation instructions transmitted from the terminal processing module in real time, and operates the corresponding air conditioning variable air volume valves in an electric control manner to adjust the size of the air supply outlet.
[0025] In this embodiment, through the collaborative work of the access control recognition module, environmental acquisition module, terminal processing module, storage module and adjustment and control module, precise control and efficient management of the laboratory environment are realized. The access control recognition module monitors the number of researchers in the laboratory in real time through the access control device; the environmental acquisition module monitors the temperature and humidity in each partition area in real time through the sensor group and transmits the data to the terminal processing module; the terminal processing module analyzes and processes the data, generates regulation instructions, and adjusts the air conditioning variable air volume valves through the adjustment and control module to realize the dynamic regulation of the air conditioning air volume; the storage module is used to store system data to ensure the stable operation of the system; through real-time monitoring and dynamic adjustment, the system can quickly respond to the changes of personnel and environment in the laboratory, avoid energy waste, and improve the stability of the laboratory environment.
[0026] Embodiment 2
[0027] This embodiment discloses an air conditioning variable air volume control method based on laboratory environment monitoring, as Figure 2 shown, and specifically includes the following: The temperature and humidity in the laboratory need to be maintained within a certain standard range. However, due to the external environment, such as seasonal temperature changes, the environmental parameters in the laboratory will be affected to a certain extent. In addition, in the process of controlling the temperature and humidity of the laboratory in the existing technology, a fixed set value is often used. This approach is prone to control lag and energy waste when facing external environmental changes. Moreover, the existing technology usually adopts a unified air-conditioning power and cannot be flexibly adjusted according to the actual number of people in the laboratory and the partition environmental parameters, resulting in difficulty in maintaining the environmental parameters within the standard range; Based on this, the following steps are provided in this embodiment: First, it is necessary to determine the total air-conditioning power required to maintain the standard environmental parameters in the current laboratory under the influence of the current external environment and when the current laboratory is unoccupied, as well as the air volume required for each air-conditioning variable air volume valve; The actual floor area of the laboratory can be obtained through the relevant data when the laboratory is built, denoted as the laboratory area S. Then, the laboratory area S is partitioned, and the area size preset by the operator is extracted , and the laboratory area S is partitioned. The partitioning operation requires the operator to partition according to the actual situation. Each partition area does not affect each other, and each partition area is equipped with corresponding sensors, namely temperature sensors and humidity sensors.
[0028] After the partitioning operation, the laboratory area S is evenly divided into j equal parts, from the first partition area to the last partition area are successively denoted as: , where is any one of the j partition areas, and both i and j are counting indices, starting from 1, and i does not exceed j.
[0029] Obtain the standard temperature calibrated by the operator for the corresponding laboratory, denoted as , and the standard humidity, denoted as ; Then, any partition area in the laboratory is processed, and the processing methods of other partition areas are the same as those of the partition area ; Determine the current temperature and humidity of the partition area , and are respectively denoted as: , ; Obtain the initial air supply volume of the air conditioner equipped in the laboratory preset by the operator. The initial air supply volume is regulated by the air-conditioning variable air volume valve in each partition area. The initial air supply volume Its value is set by the operator according to the requirements of different laboratories; Then obtain the initial air supply volume preset by the operator Its value is set by the operator according to the requirements of different laboratories; Then obtain the initial air supply volume preset by the operator ; For the partitioned area , first calculate the heat load within this partitioned area , and the calculation formula is as follows: Calculate the heat load corresponding to the partitioned area , and the heat load represents the heat quantity reduced or increased in the current partitioned area ; Among them, is the specific heat capacity of air, is the air density, and both the specific heat capacity of air and the air density are existing data and are regarded as known values in this solution; According to the formula: Calculate the moisture load corresponding to the partitioned area , and the moisture load is the amount of moisture that needs to be removed or added to adjust the humidity level within the partitioned area ; Then adopt temperature drive to calculate the minimum air volume required when regulating the current temperature and making it reach the standard temperature in the corresponding partitioned area , and the calculation formula is as follows: Among them, , indicating that the temperature in the current partitioned area is not equal to the standard temperature is a hard requirement for the formula to hold and perform calculations. If it is equal, it means that the temperature in the current partitioned area is in line with the standard temperature and there is no need to adjust the air volume of the air conditioner; Then adopt humidity drive to calculate the minimum air volume required when regulating the current humidity and making it reach the standard humidity in the corresponding partitioned area , and the calculation formula is as follows: Among them, , indicating that the current partitioned area ; Among them, , indicating that the current partitioned area The humidity inside is not equal to the standard humidity, which is a hard requirement for the formula to hold and perform calculations. If it is equal, it means that the humidity inside the current partition area matches the standard humidity, and there is no need to adjust the air volume of the air conditioner; Based on the minimum air volume determined after the above calculations and the minimum air volume , take the maximum value of the two and use it as the final minimum air volume, denoted as , to ensure that both the temperature requirement and the humidity requirement can be met; According to the methods and steps described above, process the j partition areas divided in the corresponding laboratory, and finally obtain the final minimum air volume corresponding to the j partition areas, and denote them in sequence as ; Based on the final minimum air volume corresponding to each of the j partition areas determined after the above steps: , adjust the variable air volume valves of the air conditioners corresponding to each partition area to serve as the air volume of the air conditioner for the partition area , and perform the air supply operation.
[0030] Then, according to the electric energy consumed for adjusting the temperature and humidity in the j partition areas and the energy consumption ratio of the air conditioners equipped in the corresponding laboratory, calculate the total power required to adjust the temperature and humidity of each partition area to the standard temperature and humidity, and use it as the minimum power under the current external environment of the laboratory, denoted as .
[0031] Since relevant experimental operations need to be carried out in the laboratory, heat will inevitably be generated by the human body, equipment, and chemical reactions. Therefore, it is necessary to keep the environmental parameters in the laboratory within a certain range to ensure that the accuracy of the researchers during the experiment is not affected too much; Then obtain the maximum power of the air conditioner equipped in this laboratory, and denote it as , and the maximum power is a fixed value, that is, the theoretically maximum power of the air conditioner equipped in this laboratory. Then, combined with the minimum power of the air conditioner to maintain this laboratory in a standard state under the current external environment determined by the above calculation steps , form the power adjustment range of the air conditioner; Adopt to calculate the adjustable power of the air conditioner equipped in this laboratory , which means that when adjusting the power of the air conditioner equipped in this laboratory, the highest upper limit is , the lowest lower limit is , and the span of the adjustable power is ; Then, through the counter in the access control device, the total number q of researchers in the laboratory at the current time is obtained in real time. Then, the maximum total number of researchers that the laboratory can accommodate during normal research work is obtained and denoted as Q. And let the maximum total number of researchers Q correspond to the maximum power of the air conditioner equipped in the laboratory, indicating that when the total number of researchers in the laboratory reaches the maximum total number of researchers Q, the air conditioner needs to be adjusted to the maximum power; Then, use to calculate the proportion of the total number of researchers in the laboratory at the current time compared to the maximum total number of researchers Q , and then combine the determined span of the adjustable power , and use to calculate the power of the air conditioner that needs to be adjusted corresponding to the total number of researchers in the laboratory at the current time , and then add the power to be adjusted and the minimum power to perform a summation operation to obtain the total power of the air conditioner equipped in the laboratory corresponding to the total number of researchers in the laboratory at the current time, and denote it as .
[0032] Adjust the total air conditioner power to the total power corresponding to the total number of researchers in the laboratory at the current time , and obtain the time interval t preset by the operator, and extract the temperature sensors and humidity sensors in the partition area within the area, and record the temperature collected in the partition area as , and the humidity as ; And compare the collected temperature and humidity with the standard temperature and standard humidity preset by the operator respectively, and perform a preliminary comparison operation, and use to calculate the difference rate between the temperature and the standard temperature ; and use to calculate the difference rate between the humidity and the standard humidity ; Based on the determined difference rates and difference rate , further extract the difference rate threshold preset by the operator, and compare the difference rate and difference rate with the difference rate threshold ; If the difference rate and difference rate , all through comparison, that is, the difference rate and the difference rate do not exceed the difference rate threshold preset by the operator , then it is considered that the environmental parameters (temperature and humidity) in the current partition area are less different from the standard environmental parameters, and it is determined that the environmental parameters in the current partition area are in a normal state without any processing; If the difference rate and the difference rate any one of the difference rates exceeds the difference rate threshold , then it is considered that the environmental parameters (temperature and humidity) in the current partition area are quite different from the standard environmental parameters, and it is determined that the environmental parameters in the current partition area are in an abnormal state; Using the above temperature-driven and humidity-driven calculation methods, combined with the temperature at the current time in this partition area and humidity for processing, the minimum air volume when the temperature reaches the standard temperature is obtained and denoted as and humidity the minimum air volume when reaching the standard humidity is obtained and denoted as ; Then take the maximum value of the minimum air volume and the minimum air volume and denote it as , and by adjusting the variable air volume valve of the air conditioner in this partition area, use as the air volume of the air conditioner in this partition area and conduct air supply processing.
[0033] For other partition areas, use the same method as the processed partition area and update the operation every preset time period t to re-regulate the air volume of the air conditioner.
[0034] This embodiment solves the problem that the laboratory environment is affected by external changes through partition processing, real-time monitoring and dynamic adjustment of the air volume and power of the air conditioner; its core purpose is to ensure that the temperature and humidity in the laboratory are always maintained within the standard range under the condition of changes in the external environment and the number of personnel, while optimizing energy use and reducing waste; and by flexibly adjusting the power and air volume of the air conditioner, efficient and energy-saving environmental control is achieved, providing stable and accurate experimental conditions for the laboratory.
[0035] Some of the data in the above-mentioned formulas are numerically calculated after removing their dimensions, and the content not described in detail in this specification belongs to the prior art well-known to those skilled in the art.
[0036] The above content is only an example and illustration of the present invention. Those skilled in the art to which the present technology pertains can make various modifications or supplements to the described specific embodiments or use similar methods for substitution. As long as they do not deviate from the invention or exceed the scope defined by this claims, they shall fall within the protection scope of the present invention.
[0037] It should be stated that: all user data collected in this application is collected with the consent and authorization of the users. Moreover, the uses of the user data are all legal and compliant, and the use and processing of the user data comply with the relevant laws, regulations and standards of the relevant regions.
Claims
1. An air volume variable control method for air conditioners based on laboratory environment monitoring, characterized in that, This method includes the following steps: S1. Use an access control device with the function of reading the researcher's identification card to identify the researchers entering and leaving the laboratory, record the total number of researchers in the laboratory in real time, and lock the total air-conditioning power in the laboratory based on the total number of researchers in the laboratory. S2. Divide the laboratory area using a preset area to obtain several partitioned areas. Install sensors in each partitioned area to obtain the environmental parameters of the corresponding partitioned area, and preliminarily adjust the air volume of the air conditioner in the partitioned area based on the calibrated standard environmental parameters of the laboratory. S3. Obtain the environmental parameters in each partitioned area in real time, and further adjust the air volume of the air conditioner in each partitioned area in combination with the determined total air-conditioning power.
2. The air volume variable control method of an air conditioner based on laboratory environment monitoring according to claim 1, characterized in that The sensors described in step S2 include: temperature and humidity sensors. The environmental parameters include: temperature and humidity. The standard environmental parameters include: standard temperature and standard humidity.
3. A variable air volume control method for an air conditioner based on laboratory environment monitoring according to claim 1, characterized in that, In step S1, the specific method for recording the total number of researchers in the laboratory in real time is as follows: S31. Install an access control device at the entrance and exit of the laboratory to monitor the researchers entering and leaving the laboratory. S32. Set a counter q, the initial value of q is 0. When a researcher enters the laboratory through the access control device, q is incremented by one. S33. If a researcher leaves the laboratory through the access control device, then q is decremented by one. S34. Based on the value of q, lock the total number of researchers q in the laboratory.
4. A variable air volume control method for an air conditioner based on laboratory environment monitoring according to claim 3, characterized in that In step S1, the specific method for locking the total air-conditioning power in the laboratory based on the total number of researchers in the laboratory includes the following: Obtain the theoretical maximum power of the air conditioner equipped in the laboratory ; Then obtain the minimum power of the air conditioner that maintains the laboratory in the standard environmental parameters , the minimum power is not a fixed value and is determined according to the current external environment where the laboratory is located; Extract the maximum total number Q of researchers that the extraction laboratory can accommodate during normal research work, and associate the maximum total number Q of researchers with the maximum power Obtain the total number q of researchers in the current laboratory, and use to obtain the ratio B of q to Q; According to calculate the adjustable power of the air conditioners equipped in this laboratory , and through , calculate the power to be adjusted , add and to obtain the total power corresponding to the total number q of researchers in the current laboratory for the air conditioners equipped in the laboratory, denoted as .
5. A variable air volume control method for air conditioners based on laboratory environment monitoring according to claim 4, characterized in that, In step S2, the specific method for dividing the laboratory area using a preset area is as follows: Determine the laboratory area S and obtain the area preset by the operator Partition the laboratory area S to obtain where is any one of them, and both i and j are counting indices, starting from 1, and i does not exceed j.
6. The air volume variable control method of an air conditioner based on laboratory environment monitoring according to claim 5, wherein, Determine the minimum power according to the current external environment of the laboratory The specific method is as follows: S61. Obtain the partition area Temperature before temperature and humidity control without turning on the air conditioner , humidity ; Extract the standard temperature calibrated for the current laboratory preset by the operator , the standard humidity ; S62. Obtain the initial air supply volume of the air conditioner preset by the operator and its associated air supply temperature and air supply humidity ; Calculated partition area The heat load within , the heat load Indicates the heat reduced or increased in the current partition area ; Re-partitioned area The wet load within , said wet load is the amount of moisture that needs to be removed or added to adjust the humidity level within the partitioned area ; S63. Calculate the current partition area using temperature drive The minimum air volume required to reach the standard temperature ; S64. Similarly, use humidity drive to calculate the current partition area The minimum air volume required to reach the standard humidity ; S65. Take , The maximum value among them is used as the final minimum air volume, denoted as ; S66. Obtain the final minimum air volume of the j partition regions according to the method described in S61 to S65, and denote it as ; Then, take the total power required to adjust the temperature and humidity of the laboratory to the standard temperature and humidity as the minimum power under the current external environment of the laboratory, denoted as .
7. A variable air volume control method for an air conditioner based on laboratory environment monitoring according to claim 6, characterized in that In step S2, the specific method for preliminarily adjusting the air volume of the air conditioner in the partitioned area is as follows: The air volume variable valve of the air conditioner for regulating each partition area is the determined .
8. A variable air volume control method for air conditioners based on laboratory environment monitoring according to claim 7, characterized in that, In step S3, the specific method for further adjusting the air volume of the air conditioner in each partitioned area is as follows: Determine the total power based on the total number of researchers q in the laboratory. Extract the time interval t preset by the operator. Every time interval t, extract the temperature inside any partition area , humidity ; Compare and separately with and , and calculate the difference rate of and and the difference rate of and ; If , both do not exceed the difference rate threshold preset by the operator , it is determined that the environmental parameters in the current partition area are in a normal state and no processing is required; If , Among them, if any of the difference rates exceeds , then it is determined that the environmental parameters within the current partition area are in an abnormal state; Partition area extracted as abnormal state Temperature at the current time interval t , humidity , calculate the temperature using temperature drive Minimum air volume required to reach the standard temperature ; , calculate the humidity using humidity drive Minimum air volume required to reach the standard humidity ; , and determine , The maximum value in, denoted as ; Adjust the partition area The air volume control valve of the air conditioner within is used as the air volume of the air conditioner within this partition area.
9. An air volume variable control system for air conditioners based on laboratory environment monitoring, characterized in that, It includes the following: An access control identification module, including an access control device and an identification card. The access control device is used to identify the researchers entering and leaving the laboratory. The identification card stores the identity information of the corresponding researcher. An environmental acquisition module, including a temperature sensor and a humidity sensor, for obtaining the environmental parameters of the corresponding partitioned area. A terminal processing module, reads and runs a variable air volume control method for air conditioners based on laboratory environment monitoring stored in the memory to implement the steps of the method described in any one of claims 1-8. A storage module, used to store the analysis results and calculation results of the method described in any one of claims 1-8, and save a variable air volume control method for air conditioners based on laboratory environment monitoring. An adjustment control module, receives the regulation command sent by the terminal processing module, adjusts the air-conditioning power; regulates the air volume valve of the air conditioner.
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