An intelligent laboratory environment control system

Abstract

The invention discloses an intelligent laboratory environment control system, relates to the technical field of laboratory environment control, and solves the technical problem in the prior art that the vibration isolation effect and electromagnetic interference effect in the laboratory cannot be analyzed, so that such effects cannot be timely controlled during actual operation. Specifically, a temperature and humidity monitoring unit monitors the indoor temperature and humidity of the laboratory, and collects temperature and humidity monitoring information at the same time, substitutes the information into a formula to calculate a monitoring coefficient, and judges whether the temperature and humidity monitoring is qualified according to the comparison of the monitoring coefficient; a vibration isolation effect analysis unit performs vibration isolation effect analysis on an instrument use area in an environmental control area, collects vibration isolation control data and vibration isolation effect data in the environmental control area, and judges whether the vibration isolation effect is normal according to data analysis; an electromagnetic interference monitoring unit performs electromagnetic interference monitoring and analysis on the environmental control area, collects external influence information and internal control information in the environmental control area, and judges whether the electromagnetic interference has an impact according to information comparison.

Description

Technical Field

[0001] The invention relates to the technical field of laboratory environment control, and in particular to an intelligent laboratory environment control system. Background Art

[0002] A laboratory is a general term for locations where various experiments are conducted, which can be various chemical experiments, physical experiments, biological and other natural sciences, or humanities; a laboratory is a system that includes a series of instruments, objects, and personnel related to the corresponding experiments, and is a system integration; in the process of building a laboratory, in order to ensure the accuracy of the experiment, technical measures need to be taken to control the environmental conditions.

[0003] However, in the existing technology, it is impossible to monitor the temperature and humidity in real time during laboratory operation to determine whether the temperature and humidity need to be adjusted. At the same time, it is impossible to analyze the impact of vibration isolation and electromagnetic interference in the laboratory, so that such impacts cannot be adjusted in time during actual operation, reducing the operating efficiency of the laboratory.

[0004] In view of the above technical defects, a solution is now proposed. Summary of the invention

[0005] The purpose of the present invention is to solve the above-mentioned problems and to provide an intelligent laboratory environment control system.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] An intelligent laboratory environment control system includes an environment control platform, which is communicatively connected to a temperature and humidity monitoring unit, a vibration isolation impact analysis unit, and an electromagnetic interference monitoring unit;

[0008] The temperature and humidity monitoring unit monitors the indoor temperature and humidity of the laboratory, sets the laboratory area as the environmental control area, sets the monitoring time period to collect the environmental measurement data ratio within the monitoring time period, and collects the temperature and humidity monitoring information at the same time, substitutes it into the formula to calculate the monitoring coefficient, and judges whether the temperature and humidity monitoring is qualified based on the comparison of the monitoring coefficient, and adjusts and controls according to the results;

[0009] The vibration isolation impact analysis unit performs vibration isolation impact analysis on the instrument use area in the environmental control area, collects the vibration isolation control data and vibration isolation impact data of the environmental control area, determines whether the vibration isolation impact is normal based on data analysis, and performs regulation based on the results;

[0010] The electromagnetic interference monitoring unit monitors and analyzes the electromagnetic interference in the environmental control area, collects external impact information and internal control information of the environmental control area, determines whether the electromagnetic interference has an impact based on information comparison, and performs regulation based on the results.

[0011] As a preferred embodiment of the present invention, the environmental measurement ratio is expressed as the numerical ratio of the fluctuation of the temperature and humidity parameters in the environmental control area during the monitoring period to the measurement accuracy of the temperature and humidity sensor.

[0012] As a preferred embodiment of the present invention, the temperature and humidity monitoring information includes the numerical deviation between the temperature floating control speed of the inner wall insulation material in the environmental control area during the monitoring period and the temperature numerical floating speed of the current area, the numerical deviation between the ventilation volume of the same vent corresponding to the synchronous operation of multiple ventilation paths and the single operation of a single ventilation path when the ventilation paths overlap in the environmental control area during the monitoring period, and the peak update span of the real-time temperature and humidity values ​​in the environmental control area during the monitoring period that exceed the set range.

[0013] As a preferred embodiment of the present invention, the monitoring coefficient comparison process is as follows:

[0014] If the temperature and humidity monitoring coefficient in the environmental control area is within the temperature and humidity monitoring coefficient threshold range, a temperature and humidity qualified signal is generated and sent to the environmental control platform;

[0015] If the temperature and humidity monitoring coefficient in the environmental control area exceeds the maximum value of the temperature and humidity monitoring coefficient threshold range, a temperature and humidity abnormality signal is generated and sent to the environmental control platform;

[0016] If the temperature and humidity monitoring coefficient in the environmental control area does not exceed the minimum value of the temperature and humidity monitoring coefficient threshold range, a control inefficiency signal is generated and sent to the environmental control platform.

[0017] As a preferred embodiment of the present invention, the vibration isolation control data and the vibration isolation influence data are respectively the ratio of the numerical value ratio of the self-weight of different instruments in the instrument use area in the environmental control area to the numerical value ratio of the corresponding instrument vibration influence measurement frequency, and the maximum deviation value of the observation speed of the instrument measurement parameter before and after the corresponding vibration is generated in the same measurement cycle of the same instrument in the instrument use area in the environmental control area.

[0018] As a preferred embodiment of the present invention, the data analysis process is as follows:

[0019] If the vibration isolation control data exceeds the corresponding ratio deviation threshold of the numerical ratio, or the vibration isolation impact data exceeds the maximum deviation threshold of the observed speed, a vibration isolation high impact signal is generated and sent to the environmental control platform;

[0020] If the vibration isolation control data does not exceed the numerical ratio corresponding ratio deviation threshold, and the vibration isolation impact data does not exceed the observation speed maximum deviation threshold, a vibration isolation low impact signal is generated and sent to the environmental control platform.

[0021] As a preferred embodiment of the present invention, the external impact information and the internal control information are respectively the maximum ratio of the internal electromagnetic intensity value of the area to the external electromagnetic intensity value when the external electromagnetic intensity coverage area of ​​the environmental control area involves the environmental control area during the operation of the instrument in the environmental control area, and the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference in the environmental control area and the end point of the external electromagnetic interference in the environmental control area after the environmental control area receives external electromagnetic interference during the operation of the instrument in the environmental control area.

[0022] As a preferred embodiment of the present invention, the information comparison process is as follows:

[0023] If the external impact information exceeds the maximum value ratio threshold of the electromagnetic intensity value, and the internal control information exceeds the maximum speed reduction deviation threshold, an electromagnetic interference low impact signal is generated and sent to the environmental control platform;

[0024] If the external impact information does not exceed the maximum value proportion threshold of the electromagnetic intensity value, or the internal control information exceeds the maximum speed reduction deviation threshold, an electromagnetic interference high impact signal is generated and sent to the environmental control platform.

[0025] Compared with the prior art, the present invention has the following beneficial effects:

[0026] In the present invention, the indoor temperature and humidity of the laboratory are monitored, and the temperature and humidity are controlled and regulated according to the indoor temperature and humidity monitoring results of the laboratory to ensure the efficiency of temperature and humidity monitoring in the laboratory. At the same time, the temperature and humidity can be regulated in time to ensure that the temperature and humidity in the laboratory meet the operation requirements and ensure the high efficiency of the laboratory operation; the vibration isolation impact analysis is performed on the instrument use area in the environmental control area to determine whether the vibration isolation of the instrument use area in the current environmental control area affects the use requirements of the instrument, so as to further regulate the laboratory operation environment to ensure the regulation efficiency of the laboratory environment and ensure the operation efficiency of the laboratory; the electromagnetic interference monitoring and analysis is performed on the environmental control area, and it is determined based on real-time monitoring and analysis whether the impact of the electromagnetic interference in the current environmental control area meets the laboratory operation requirements, so as to avoid electromagnetic interference affecting the laboratory operation progress, resulting in an increase in instrument errors in the laboratory, a decrease in the feasibility of laboratory operation, and unnecessary costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0028] Figure 1 This is a principle block diagram of Embodiment 1 of the present invention;

[0029] Figure 2 This is a principle block diagram of the second embodiment of the present invention. DETAILED DESCRIPTION

[0030] In order to enable those skilled in the art to better understand the scheme of the present invention, the technical scheme in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0031] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present invention. The appearance of the phrase in various places in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0032] Embodiment 1

[0033] See also Figure 1 As shown, an intelligent laboratory environment control system includes an environment control platform, which is communicatively connected to a temperature and humidity monitoring unit, a vibration isolation impact analysis unit, and an electromagnetic interference monitoring unit; this embodiment performs real-time analysis on the internal environment of the laboratory, and performs environment control according to the analysis impact results to ensure that the environment control in the laboratory meets actual needs, and can also be controlled in time when the laboratory environment is abnormal, thereby improving the operation efficiency of the laboratory;

[0034] The environmental control platform generates temperature and humidity monitoring signals and sends them to the temperature and humidity monitoring unit. After receiving the temperature and humidity monitoring signals, the temperature and humidity monitoring unit monitors the indoor temperature and humidity of the laboratory, and controls the temperature and humidity according to the indoor temperature and humidity monitoring results of the laboratory to ensure the efficiency of temperature and humidity monitoring in the laboratory. At the same time, the temperature and humidity can be adjusted in time to ensure that the temperature and humidity in the laboratory meet the operation requirements and ensure the high efficiency of the laboratory operation.

[0035] The laboratory area is set as the environmental control area, the monitoring time period is set, and the numerical ratio of the temperature and humidity parameter fluctuation in the environmental control area to the measurement accuracy of the temperature and humidity sensor within the monitoring time period is collected, and the numerical ratio of the temperature and humidity parameter fluctuation in the environmental control area to the measurement accuracy of the temperature and humidity sensor within the monitoring time period is marked as the environmental measurement ratio, and the label is set to α;

[0036] The numerical deviation between the temperature floating control speed of the inner wall insulation material in the environmental control area and the temperature numerical floating speed of the current area within the monitoring period is obtained, and the numerical deviation between the temperature floating control speed of the inner wall insulation material in the environmental control area and the temperature numerical floating speed of the current area within the monitoring period is set as a label WSC; wherein, when the numerical deviation of the temperature numerical floating speed is a positive value, the temperature numerical floating speed is lower than the temperature floating control speed, and the temperature control efficiency is low; conversely, when the numerical deviation of the temperature numerical floating speed is a negative value, the temperature numerical floating speed is higher than the temperature floating control speed, and the temperature control efficiency is abnormal;

[0037] The numerical deviation of the ventilation volume of the same vent corresponding to the synchronous operation of multiple ventilation paths and the single operation of a single ventilation path when the ventilation paths overlap in the environmental control area during the monitoring period is obtained, and the numerical deviation of the ventilation volume of the same vent corresponding to the synchronous operation of multiple ventilation paths and the single operation of a single ventilation path when the ventilation paths overlap in the environmental control area during the monitoring period is set as TFC; the peak update span of the real-time values ​​of temperature and humidity in the environmental control area during the monitoring period exceeding the set range is obtained, and the peak update span of the real-time values ​​of temperature and humidity in the environmental control area during the monitoring period exceeding the set range is marked as GXK;

[0038] The above collected data are uniformly marked as temperature and humidity monitoring information, and substituted into the formula to calculate the temperature and humidity monitoring coefficient G in the environmental control area, where the formula is:

[0039] , where jhy1, jky2 and jhy3 are the numerical deviation of the numerical floating speed, the numerical deviation of the ventilation volume and the preset proportional coefficient of the peak update span, and α is the ring measurement ratio. When the excess or less than the ring measurement ratio does not exceed the set threshold, α is substituted for calculation. When the excess or less than the ring measurement ratio exceeds the set threshold, α is substituted for calculation with the actual value.

[0040] Compare the temperature and humidity monitoring coefficient G in the environmental control area with the temperature and humidity monitoring coefficient threshold range:

[0041] If the temperature and humidity monitoring coefficient G in the environmental control area is within the temperature and humidity monitoring coefficient threshold range, the temperature and humidity monitoring of the environmental control area is determined to be qualified, a temperature and humidity qualified signal is generated and sent to the environmental control platform;

[0042] If the temperature and humidity monitoring coefficient G in the environmental control area exceeds the maximum value of the temperature and humidity monitoring coefficient threshold range, the temperature and humidity monitoring in the environmental control area is determined to be abnormal, and a temperature and humidity abnormality signal is generated and sent to the environmental control platform; after receiving the temperature and humidity abnormality signal, the environmental control platform will perform temperature and humidity numerical control on the corresponding environmental control area;

[0043] If the temperature and humidity monitoring coefficient G in the environmental control area does not exceed the minimum value of the temperature and humidity monitoring coefficient threshold range, the temperature and humidity monitoring in the environmental control area is determined to be inefficient, and an inefficient control signal is generated and sent to the environmental control platform; after receiving the inefficient control signal, the environmental control platform performs numerical control on the temperature and humidity control operation of the corresponding environmental control area to reduce the actual input cost of control. The control operation is represented by temperature and humidity control equipment control, manual control, etc.;

[0044] At the same time, a vibration isolation impact analysis signal is generated and sent to the vibration isolation impact analysis unit. After receiving the vibration isolation impact analysis signal, the vibration isolation impact analysis unit performs a vibration isolation impact analysis on the instrument use area in the environmental control area to determine whether the vibration isolation of the instrument use area in the current environmental control area affects the use requirements of the instrument, thereby further regulating the laboratory operating environment to ensure the control efficiency of the laboratory environment and the operating efficiency of the laboratory;

[0045] Obtain the corresponding ratio deviation of the numerical ratio of the self-weight of different instruments in the instrument use area in the environmental control area and the numerical ratio of the corresponding instrument vibration affecting the measurement frequency, and at the same time obtain the maximum deviation of the instrument measurement parameter observation speed before and after the corresponding vibration is generated in the same measurement period of the same instrument in the instrument use area in the environmental control area, and mark the corresponding ratio deviation of the numerical ratio of the self-weight of different instruments in the instrument use area in the environmental control area and the numerical ratio of the corresponding instrument vibration affecting the measurement frequency, and the maximum deviation of the instrument measurement parameter observation speed before and after the corresponding vibration is generated in the same measurement period of the same instrument in the instrument use area in the environmental control area as vibration isolation control data and vibration isolation influence data, respectively, and compare them with the corresponding ratio deviation threshold and the observation speed maximum deviation threshold respectively: wherein, the self-weight numerical ratio is expressed as the ratio of the weight values ​​of different instruments in the same use area, and the instrument vibration affecting the measurement frequency is expressed as the frequency at which the instrument vibration in the use area affects the accuracy of the instrument measurement value; such data can be directly obtained through corresponding sensors, such as weight sensors and counters;

[0046] If the corresponding ratio deviation of the numerical ratio of the weight of different instruments in the instrument use area in the environmental control area and the numerical ratio of the vibration impact measurement frequency of the corresponding instrument exceeds the numerical ratio corresponding ratio deviation threshold, or the maximum deviation of the instrument measurement parameter observation speed before and after the corresponding vibration of the same instrument in the same measurement cycle in the instrument use area in the environmental control area exceeds the observation speed maximum deviation threshold, then the vibration isolation impact analysis in the environmental control area is judged to be abnormal, and a vibration isolation high impact signal is generated and sent to the environmental control platform. After receiving the vibration isolation high impact signal, the environmental control platform monitors and controls the source of vibration in the environmental control area, and controls its propagation path after the vibration is generated, such as strengthening the connection area and reducing the continuous frequency of vibration;

[0047] If the corresponding ratio deviation of the numerical ratio of the weight of different instruments in the instrument use area in the environmental control area and the numerical ratio of the vibration impact measurement frequency of the corresponding instrument does not exceed the numerical ratio corresponding ratio deviation threshold, and the maximum deviation of the instrument measurement parameter observation speed before and after the corresponding vibration of the same instrument in the same measurement cycle in the instrument use area in the environmental control area does not exceed the observation speed maximum deviation threshold, then it is determined that the vibration isolation impact analysis in the environmental control area is normal, and a vibration isolation low impact signal is generated and sent to the environmental control platform;

[0048] After receiving the low-impact vibration isolation signal, the environmental control platform generates an electromagnetic interference monitoring signal and sends it to the electromagnetic interference monitoring unit. After receiving the electromagnetic interference monitoring signal, the electromagnetic interference monitoring unit performs electromagnetic interference monitoring and analysis on the environmental control area. Based on the real-time monitoring and analysis, it is determined whether the impact of the electromagnetic interference in the current environmental control area meets the laboratory operation requirements, so as to avoid electromagnetic interference affecting the laboratory operation progress, causing an increase in instrument errors in the laboratory, reducing the feasibility of laboratory operation, and generating unnecessary costs.

[0049] The maximum value ratio of the internal electromagnetic intensity value to the external electromagnetic intensity value in the environmental control area when the external electromagnetic intensity coverage area in the environmental control area involves the environmental control area during the operation of the instrument in the environmental control area is obtained. At the same time, the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference in the environmental control area and the end point of the external electromagnetic interference in the environmental control area after the environmental control area receives external electromagnetic interference during the operation of the instrument in the environmental control area is obtained. The maximum value ratio of the internal electromagnetic intensity value to the external electromagnetic intensity value when the external electromagnetic intensity coverage area in the environmental control area involves the environmental control area during the operation of the instrument in the environmental control area, and the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference in the environmental control area and the end point of the external electromagnetic interference in the environmental control area after the environmental control area receives external electromagnetic interference during the operation of the instrument in the environmental control area are marked as external influence information and internal control information, respectively, and are compared with the maximum value ratio threshold of the electromagnetic intensity value and the maximum reduction speed deviation threshold, respectively:

[0050] If during the operation of the instrument in the environmental control area, when the external electromagnetic intensity coverage area of ​​the environmental control area involves the environmental control area, the maximum value ratio of the electromagnetic intensity value inside the area to the external electromagnetic intensity value exceeds the maximum value ratio threshold of the electromagnetic intensity value, and during the operation of the instrument in the environmental control area, after the environmental control area receives external electromagnetic interference, the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference and the end point of the external electromagnetic interference in the environmental control area exceeds the maximum reduction speed deviation threshold, then it is determined that the electromagnetic interference monitoring of the environmental control area is qualified, and an electromagnetic interference low impact signal is generated and sent to the environmental control platform;

[0051] If during the operation of the instrument in the environmental control area, when the external electromagnetic intensity coverage area of ​​the environmental control area involves the environmental control area, the maximum value ratio of the electromagnetic intensity value inside the area to the external electromagnetic intensity value does not exceed the maximum value ratio threshold of the electromagnetic intensity value, or after the environmental control area receives external electromagnetic interference during the operation of the instrument in the environmental control area, the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference in the environmental control area and the end point of the external electromagnetic interference in the environmental control area exceeds the maximum reduction speed deviation threshold, then the electromagnetic interference monitoring of the environmental control area is determined to be unqualified, and an electromagnetic interference high impact signal is generated and sent to the environmental control platform. After receiving the electromagnetic interference high impact signal, the environmental control platform performs performance control on the external electromagnetic blocking of the environmental control area to increase the blocking electromagnetic strength, and at the same time performs performance control on the electromagnetic propagation inside the environmental control area, that is, increases the electromagnetic strength consumed by the propagation path;

[0052] Embodiment 2

[0053] In the previous embodiment, the environment of the smart laboratory is regulated. Based on the previous embodiment, this embodiment performs regulation efficiency detection during the environmental regulation process. Figure 2 As shown, the environmental control platform is connected to the control efficiency detection signal and sends the control efficiency detection signal to the control efficiency detection unit. After receiving the control efficiency detection signal, the control efficiency detection unit performs control efficiency detection on the environmental control area, and performs control efficiency detection and evaluation according to real-time control to determine whether the control efficiency of the environmental control area meets the demand, so as to ensure that the environmental control in the environmental control area is effective and timely, ensure the operation stability of the laboratory, and reduce the impact of environmental control fluctuations;

[0054] The maximum growth span value of the environmental control duration in adjacent operating cycles in the environmental control area and the peak growth rate of the cycle shortening span of the environmental control interval period corresponding to non-adjacent operating cycles in the environmental control area are collected, and the maximum growth span value of the environmental control duration in adjacent operating cycles in the environmental control area and the peak growth rate of the cycle shortening span of the environmental control interval period corresponding to non-adjacent operating cycles in the environmental control area are marked as control duration data and control cycle data, respectively, and compared with the maximum growth span value threshold of the duration and the peak growth rate threshold of the cycle shortening span, respectively:

[0055] If the maximum growth span value of the environmental control duration in adjacent operating cycles within the environmental control area exceeds the maximum growth span value threshold of the duration, or the cycle shortening span peak growth rate of the environmental control interval period corresponding to non-adjacent operating cycles within the environmental control area exceeds the cycle shortening span peak growth rate threshold, then it is determined that the control efficiency detection in the environmental control area is abnormal, and a control inefficiency signal is generated and sent to the environmental control platform. After receiving the control inefficiency signal, the environmental control platform reorganizes the control of the environmental control area to ensure that the control time is within the set time and the control value is controlled;

[0056] If the maximum growth span value of the environmental control duration in adjacent operating cycles within the environmental control area does not exceed the maximum growth span value threshold of the duration, and the cycle shortening span peak growth rate of the environmental control interval period corresponding to the non-adjacent operating cycles within the environmental control area does not exceed the cycle shortening span peak growth rate threshold, then it is determined that the control efficiency detection in the environmental control area is normal, and a control efficiency signal is generated and sent to the environmental control platform;

[0057] The above formulas are obtained by collecting a large amount of data and performing software simulation, and a formula close to the actual value is selected. The coefficients in the formula are set by technicians in this field according to actual conditions;

[0058] When the present invention is in use, the temperature and humidity monitoring unit monitors the indoor temperature and humidity of the laboratory, sets the laboratory area as the environmental control area, sets the monitoring time period to collect the environmental measurement ratio within the monitoring time period, and collects the temperature and humidity monitoring information at the same time, substitutes it into the formula to calculate the monitoring coefficient, and judges whether the temperature and humidity monitoring is qualified according to the monitoring coefficient comparison, and adjusts according to the result; the vibration isolation impact analysis unit performs vibration isolation impact analysis on the instrument use area in the environmental control area, collects the vibration isolation control data and vibration isolation impact data of the environmental control area, judges whether the vibration isolation impact is normal according to the data analysis, and adjusts according to the result; the electromagnetic interference monitoring unit performs electromagnetic interference monitoring and analysis on the environmental control area, collects the external impact information and internal control information of the environmental control area, judges whether the electromagnetic interference has an impact according to the information comparison, and adjusts according to the result.

[0059] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An intelligent laboratory environment control system, characterized in that: It includes an environment control platform, which is connected to a temperature and humidity monitoring unit, a vibration isolation impact analysis unit, and an electromagnetic interference monitoring unit; The temperature and humidity monitoring unit monitors the indoor temperature and humidity of the laboratory, sets the laboratory area as the environmental control area, sets the monitoring time period to collect the environmental measurement ratio within the monitoring time period, and collects the temperature and humidity monitoring information at the same time, substitutes it into the formula to calculate the monitoring coefficient, and judges whether the temperature and humidity monitoring is qualified according to the comparison of the monitoring coefficient, and adjusts according to the result; the temperature and humidity monitoring information includes the value deviation between the temperature floating control speed of the inner wall insulation material in the environmental control area during the monitoring period and the temperature value floating speed of the current area, the value deviation between the synchronous operation of multiple ventilation paths and the single operation of a single ventilation path corresponding to the same vent when the ventilation paths overlap in the environmental control area during the monitoring period, and the peak update span of the real-time temperature and humidity values ​​in the environmental control area during the monitoring period exceeding the set range, and the labels WSC, TFC and GXK are set respectively; the formula is: , where jhy1, jky2 and jhy3 are the numerical deviation of the numerical floating speed, the numerical deviation of the ventilation volume and the preset proportional coefficient of the peak update span, and α is the ring measurement ratio. When the ring measurement ratio is more or less than one and does not exceed the set threshold, α is substituted for calculation. When the ring measurement ratio is more or less than one and exceeds the set threshold, α is substituted for calculation with the actual value. The ring measurement ratio is expressed as the numerical ratio of the floating amount of the temperature and humidity parameters in the environmental control area to the measurement accuracy of the temperature and humidity sensor during the monitoring period. The vibration isolation impact analysis unit performs vibration isolation impact analysis on the instrument use area in the environmental control area, collects the vibration isolation control data and vibration isolation impact data of the environmental control area, determines whether the vibration isolation impact is normal based on data analysis, and performs regulation based on the results; The electromagnetic interference monitoring unit monitors and analyzes the electromagnetic interference in the environmental control area, collects external impact information and internal control information of the environmental control area, determines whether the electromagnetic interference has an impact based on information comparison, and performs regulation based on the results.

2. The intelligent laboratory environment control system according to claim 1, characterized in that: The monitoring coefficient comparison process is as follows: If the temperature and humidity monitoring coefficient in the environmental control area is within the temperature and humidity monitoring coefficient threshold range, a temperature and humidity qualified signal is generated and sent to the environmental control platform; If the temperature and humidity monitoring coefficient in the environmental control area exceeds the maximum value of the temperature and humidity monitoring coefficient threshold range, a temperature and humidity abnormality signal is generated and sent to the environmental control platform; If the temperature and humidity monitoring coefficient in the environmental control area does not exceed the minimum value of the temperature and humidity monitoring coefficient threshold range, a control inefficiency signal is generated and sent to the environmental control platform.

3. The intelligent laboratory environment control system according to claim 1, characterized in that: The vibration isolation control data and vibration isolation influence data are respectively the ratio of the weight values ​​of different instruments in the instrument use area in the environmental control area to the numerical ratio of the corresponding instrument vibration influence measurement frequency, and the maximum deviation value of the instrument measurement parameter observation speed before and after the corresponding vibration is generated in the same measurement cycle of the same instrument in the instrument use area in the environmental control area.

4. The intelligent laboratory environment control system according to claim 3, characterized in that: The data analysis process is as follows: If the vibration isolation control data exceeds the corresponding ratio deviation threshold of the numerical ratio, or the vibration isolation impact data exceeds the maximum deviation threshold of the observed speed, a vibration isolation high impact signal is generated and sent to the environmental control platform; If the vibration isolation control data does not exceed the numerical ratio corresponding ratio deviation threshold, and the vibration isolation impact data does not exceed the observation speed maximum deviation threshold, a vibration isolation low impact signal is generated and sent to the environmental control platform.

5. The intelligent laboratory environment control system according to claim 1, characterized in that: The external influence information and internal control information are respectively the maximum ratio of the internal electromagnetic intensity value of the area to the external electromagnetic intensity value when the external electromagnetic intensity coverage area of ​​the environmental control area involves the environmental control area during the operation of the instrument in the environmental control area, and the maximum reduction speed deviation of the electromagnetic intensity corresponding to the starting point of the external electromagnetic interference in the environmental control area and the end point of the external electromagnetic interference in the environmental control area after the environmental control area receives external electromagnetic interference during the operation of the instrument in the environmental control area.

6. The intelligent laboratory environment control system according to claim 5, characterized in that: The information comparison process is as follows: If the external impact information exceeds the maximum value ratio threshold of the electromagnetic intensity value, and the internal control information exceeds the maximum speed reduction deviation threshold, an electromagnetic interference low impact signal is generated and sent to the environmental control platform; If the external impact information does not exceed the maximum value proportion threshold of the electromagnetic intensity value, or the internal control information exceeds the maximum speed reduction deviation threshold, an electromagnetic interference high impact signal is generated and sent to the environmental control platform.

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