Intelligent environment management system based on precision equipment operation

Abstract

The invention discloses an intelligent environment management system based on precision equipment operation, relates to the field of intelligent management, solves the problem that whether the precision equipment operation environment is abnormal or not cannot be accurately judged, and comprises an initial detection analysis module, a first analysis module, a second analysis module, a comprehensive analysis module and a regulation and control terminal, the initial detection analysis module analyzes the loss condition of a target instrument to obtain a corresponding instrument initial detection grade, and the first analysis module analyzes the environment condition of the target instrument to obtain a corresponding first environment influence coefficient; the second analysis module analyzes the interference condition of the target instrument to obtain a corresponding second environmental influence coefficient; and the comprehensive analysis module analyzes the comprehensive condition of the target instrument to obtain a corresponding adjustment signal, and the regulation and control terminal adjusts the corresponding environment parameters according to the adjustment signal, so that the abnormal condition of the operation environment of the precision equipment is accurately judged, and the intelligent management of the operation environment of the precision equipment is further realized.

Description

Technical Field

[0001] The present invention belongs to the field of intelligent management, and specifically relates to an intelligent environment management system based on the operation of precision equipment. Background Art

[0002] Precision equipment is a type of high-precision, high-performance mechanical, electronic, or optical equipment used for precise measurement, manufacturing, control, or analysis tasks; these equipment usually have a high degree of automation and precision, and are used to meet application fields with extremely high requirements for precision, stability, and reliability. Therefore, the operating environment of precision equipment is extremely harsh, and abnormal operating environments can cause great damage to precision equipment.

[0003] However, at the present stage, when managing the environment of precision equipment operation, the determination conditions for identifying abnormal environments are often fixed and single, without multi-faceted analysis of the environment corresponding to precision equipment, nor different determination conditions for different precision equipment, resulting in the inability to accurately adjust the environment of precision equipment operation at the present stage.

[0004] Therefore, we propose an intelligent environment management system based on the operation of precision equipment. Summary of the Invention

[0005] The purpose of the present invention is to propose an intelligent environment management system based on the operation of precision equipment to solve the problems raised in the above background art.

[0006] To achieve the above purpose, the present invention adopts the following technical solutions:

[0007] An intelligent environment management system based on the operation of precision equipment, comprising:

[0008] A database for storing the technical specification manual corresponding to the target instrument, the total number of precision instruments of the same model as the target instrument sold in the previous quarter, and the number of damaged instruments among the sold instruments;

[0009] A preliminary inspection analysis module for analyzing the loss situation of the target instrument, obtaining the corresponding initial inspection grade of the target instrument and sending it to the data acquisition module;

[0010] A data acquisition module for setting multiple groups of acquisition devices according to the initial inspection grade of the target instrument, simultaneously collecting the first environmental information of the target instrument and sending it to the first analysis module, and collecting the second interference information and sending it to the second analysis module;

[0011] A first analysis module for analyzing the environmental situation of the target instrument, obtaining the corresponding first environmental impact coefficient of the target instrument and sending it to the comprehensive analysis module;

[0012] A second analysis module, configured to analyze the interference situation of the target instrument, obtain a second environmental impact coefficient corresponding to the target instrument, and send it to the comprehensive analysis module;

[0013] A comprehensive analysis module, configured to analyze the comprehensive situation of the target instrument, obtain a first-level adjustment signal, a second-level adjustment signal or a normal signal corresponding to the target instrument, send the first-level adjustment signal or the second-level adjustment signal to the control terminal, and send the normal signal to the user terminal;

[0014] A control terminal, configured to receive the first-level adjustment signal or the second-level adjustment signal and regulate the environment of the target instrument, and generate a regulation completion signal to send to the user terminal;

[0015] A user terminal, configured to receive an abnormal signal, a normal signal or a regulation completion signal corresponding to the target instrument.

[0016] Further, the technical specification manual records the suitable environmental humidity and suitable environmental temperature of the target instrument;

[0017] The first environmental information includes multiple groups of environmental temperature values and environmental humidity values corresponding to the target instrument;

[0018] The second interference information includes multiple groups of electromagnetic intensity values and static voltage values corresponding to the target instrument.

[0019] Further, the analysis process of the initial inspection analysis module is specifically as follows:

[0020] Obtain the number of sold instruments and the number of damaged instruments corresponding to the target instrument, and obtain the instrument damage rate corresponding to the target instrument by dividing the number of damaged instruments by the number of sold instruments;

[0021] Compare the instrument damage rate of the target instrument with the damage rate threshold;

[0022] If the instrument damage rate of the target instrument is less than or equal to the first damage rate threshold, record the initial inspection level of the target instrument as the first-level initial inspection;

[0023] If the instrument damage rate of the target instrument is greater than the first damage rate threshold and less than or equal to the second damage rate threshold, record the initial inspection level of the target instrument as the second-level initial inspection;

[0024] If the instrument damage rate of the target instrument is greater than the second damage rate threshold, record the initial inspection level of the target instrument as the third-level initial inspection.

[0025] Further, the first damage rate threshold is less than the second damage rate threshold, the detection intensity corresponding to the first-level initial inspection of the target instrument is less than the detection intensity corresponding to the second-level initial inspection of the target instrument; the detection intensity corresponding to the second-level initial inspection of the target instrument is less than the detection intensity corresponding to the third-level initial inspection of the target instrument.

[0026] Further, the acquisition process of the data acquisition module is as follows:

[0027] Obtain the initial inspection level of the target instrument, and set the corresponding number of groups of data acquisition devices according to the initial inspection level of the instrument;

[0028] Start the data acquisition device and collect multiple groups of real-time temperature values, real-time humidity values, electromagnetic intensity values, and real-time static voltage values corresponding to the target instrument;

[0029] Record the ambient temperature value and ambient humidity value corresponding to the target instrument as the first ambient information corresponding to the target instrument;

[0030] Record the corresponding electromagnetic intensity value and static voltage value as the second interference information corresponding to the target instrument.

[0031] Further, the relationship between the initial inspection level of the instrument and the corresponding number of groups of data acquisition devices is as follows:

[0032] Set up X1 groups of data acquisition devices for the target instrument corresponding to the first-level initial inspection;

[0033] Set up X2 groups of data acquisition devices for the target instrument corresponding to the second-level initial inspection;

[0034] Set up X3 groups of data acquisition devices for the target instrument corresponding to the third-level initial inspection; where X1 < X2 < X3, and X1, X2, and X3 are all positive integers.

[0035] Further, the analysis process of the first analysis module is as follows:

[0036] Obtain the first ambient information corresponding to the target instrument, and obtain multiple groups of ambient temperature values and multiple groups of ambient humidity values corresponding to the target instrument;

[0037] If there is any group of ambient temperature values greater than the ambient temperature threshold among the multiple groups of ambient temperature values, or there is any group of ambient humidity values greater than the ambient humidity threshold among the multiple groups of ambient humidity values, generate an abnormal signal;

[0038] If all the multiple groups of ambient temperature values are less than the ambient temperature threshold and all the multiple groups of ambient humidity values are less than the ambient humidity threshold, add up and sum the multiple groups of ambient temperature values and take the average to calculate the ambient temperature average value JHW corresponding to the target instrument, and add up and sum the multiple groups of ambient humidity values and take the average to calculate the ambient humidity average value JHS corresponding to the target instrument;

[0039] Through the formula Calculate the first environmental impact coefficient corresponding to the target instrument; in the formula, e is the natural constant, BHW is the standard ambient temperature value, and BHS is the standard ambient humidity value;

[0040] If the first environmental impact coefficient is greater than the impact coefficient threshold, generate an abnormal signal and send it to the user terminal;

[0041] If the first influence coefficient is less than or equal to the influence coefficient threshold, the first environmental influence coefficient corresponding to the target instrument is sent to the comprehensive analysis module.

[0042] Further, the analysis process of the second analysis module is specifically as follows:

[0043] Obtain the second interference information corresponding to the target instrument, and obtain multiple groups of electromagnetic intensity values and multiple groups of static voltage values corresponding to the target instrument;

[0044] Traverse and compare the multiple groups of electromagnetic intensity values, select the maximum value among the multiple groups of electromagnetic intensity values and denote it as the peak electromagnetic intensity value DCQ;

[0045] Traverse and compare the multiple groups of static voltage values, select the maximum value among the multiple groups of static voltage values and denote it as the peak static voltage value JDY;

[0046] Calculate the second environmental influence coefficient EHY corresponding to the target instrument through the formula EHY = DCQ × JDY / e;

[0047] If the second environmental influence coefficient is greater than the influence coefficient threshold, generate an abnormal signal and send it to the user terminal;

[0048] If the second influence coefficient is less than or equal to the influence coefficient threshold, the second environmental influence coefficient corresponding to the target instrument is sent to the comprehensive analysis module.

[0049] Further, the analysis process of the comprehensive analysis module is specifically as follows:

[0050] Obtain the first environmental influence coefficient YHY and the second environmental influence coefficient EHY corresponding to the target instrument;

[0051] Calculate the environmental comprehensive anomaly value HZD corresponding to the target instrument through the formula. The formula is specifically as follows:

[0052] HZD = A1 × YHY + A2 × YHY; where A1 and A2 are weight coefficients with fixed values, and the values of A1 and A2 are both greater than zero. If the first environmental influence coefficient is greater than or equal to the second environmental influence coefficient, A1 > A2; if the first environmental influence coefficient is less than the second environmental influence coefficient, A1 < A2;

[0053] Compare the environmental comprehensive anomaly value corresponding to the target instrument with the environmental anomaly threshold;

[0054] If the environmental comprehensive anomaly value is greater than or equal to the first environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a first-level anomaly and generate a first-level adjustment signal;

[0055] If the comprehensive environmental anomaly value is less than the first environmental anomaly threshold and greater than or equal to the second environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a secondary anomaly and generate a secondary adjustment signal;

[0056] If the comprehensive environmental anomaly value is less than the second environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a tertiary anomaly and generate a normal signal;

[0057] Among them, the first environmental anomaly threshold is greater than the second environmental anomaly threshold, and the probability of a fault occurring in the target instrument corresponding to a primary anomaly is higher than that of the target instrument corresponding to a secondary anomaly; the probability of a fault occurring in the target instrument corresponding to a secondary anomaly is higher than that of the target instrument corresponding to a tertiary anomaly.

[0058] Furthermore, the regulation process of the regulation terminal is specifically as follows:

[0059] Obtain the primary adjustment signal or secondary adjustment signal corresponding to the target instrument;

[0060] For the target instrument corresponding to the primary adjustment signal, adjust the power line corresponding to the target instrument to ground the power line, use electromagnetic shielding equipment to reduce electromagnetic interference, and then generate a regulation completion signal;

[0061] For the target instrument corresponding to the secondary adjustment signal, adjust the humidity value of the environment where the target instrument is located to a suitable humidity and adjust the temperature value of the environment where the target instrument is located to a suitable temperature, and set an electromagnetic shielding cover at a fixed distance from the target instrument to eliminate electromagnetic interference, and then generate a regulation completion signal.

[0062] To sum up, due to the adoption of the above technical solutions, the beneficial effects of the present invention are:

[0063] The present invention first conducts a preliminary inspection and analysis of the loss situation of the target instrument through a preliminary inspection and analysis module to obtain the instrument preliminary inspection level corresponding to the target instrument, sets multiple groups of acquisition devices according to the instrument preliminary inspection level corresponding to the target instrument. On the one hand, uses the first analysis module to analyze the environmental situation of the target instrument to obtain the first environmental impact coefficient corresponding to the target instrument, and on the other hand, uses the second analysis module to analyze the interference situation of the target instrument to obtain the second environmental impact coefficient corresponding to the target instrument. The comprehensive analysis module combines the first environmental impact coefficient and the second environmental impact coefficient to analyze the comprehensive situation of the target instrument to obtain the primary adjustment signal, secondary adjustment signal or normal signal corresponding to the target instrument. The regulation terminal regulates the environment of the target instrument according to the adjustment signals of different levels, and the present invention realizes the intelligent management of the operating environment of precision equipment. Description of the Drawings

[0064] For the convenience of those skilled in the art to understand, the present invention will be further described below in conjunction with the accompanying drawings.

[0065] Figure 1 This is the overall system block diagram of the present invention.

[0066] Figure 2 This is the method flow chart of the present invention. Specific embodiments

[0067] The technical solution of the present invention will be clearly and completely described below in conjunction with the embodiments. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative work belong to the scope of protection of the present invention.

[0068] Embodiment 1

[0069] Please refer to Figure 1 , the technical solution provided by the present invention is: an environment intelligent management system based on the operation of precision equipment, including a data acquisition module, a preliminary inspection and analysis module, a first analysis module, a second analysis module, a comprehensive analysis module, a database, a control terminal, and a user terminal;

[0070] In this embodiment, the precision equipment to be analyzed is defined as the target instrument;

[0071] The database is used to store the technical specification manual corresponding to the target instrument, and the appropriate environmental humidity and appropriate environmental temperature of the target instrument are recorded in the technical specification manual, where the appropriate environmental humidity and appropriate environmental temperature can be specific values or an interval;

[0072] The database is also used to store the total number of sold instruments of precision instruments of the same model as the target instrument in the previous quarter and the number of damaged instruments among the sold instruments;

[0073] The preliminary inspection and analysis module is used to conduct a preliminary inspection and analysis of the loss situation of the target instrument, and the specific analysis process is as follows:

[0074] Obtain the number of sold instruments and the number of damaged instruments corresponding to the target instrument, and divide the number of damaged instruments by the number of sold instruments to obtain the instrument damage rate corresponding to the target instrument;

[0075] Compare the instrument damage rate of the target instrument with the damage rate threshold;

[0076] If the instrument damage rate of the target instrument is less than or equal to the first damage rate threshold, record the instrument preliminary inspection level of the target instrument as the first-level preliminary inspection;

[0077] If the instrument damage rate of the target instrument is greater than the first damage rate threshold and less than or equal to the second damage rate threshold, record the initial inspection level of the target instrument as the secondary initial inspection;

[0078] If the instrument damage rate of the target instrument is greater than the second damage rate threshold, record the initial inspection level of the target instrument as the tertiary initial inspection;

[0079] Among them, the first damage rate threshold is less than the second damage rate threshold, and the detection intensity corresponding to the primary initial inspection of the target instrument is less than the detection intensity corresponding to the secondary initial inspection of the target instrument; the detection intensity corresponding to the secondary initial inspection of the target instrument is less than the detection intensity corresponding to the tertiary initial inspection of the target instrument;

[0080] The initial inspection analysis module sends the initial inspection level of the target instrument to the data acquisition module;

[0081] The data acquisition module is used to collect the first environmental information and the second interference information of the environment where the target instrument is located. The specific acquisition process is as follows:

[0082] Obtain the initial inspection level of the target instrument. For the target instrument corresponding to the primary initial inspection, set up X1 groups of data acquisition devices; for the target instrument corresponding to the secondary initial inspection, set up X2 groups of data acquisition devices; for the target instrument corresponding to the tertiary initial inspection, set up X3 groups of data acquisition devices. The data acquisition devices specifically include a temperature sensor, a humidity sensor, an electromagnetic intensity sensor, and an electrostatic meter; X1 < X2 < X3, and X1, X2, and X3 are all positive integers;

[0083] Start the data acquisition devices and collect multiple groups of real-time temperature values, real-time humidity values, electromagnetic intensity values, and real-time electrostatic voltage values corresponding to the target instrument;

[0084] Record the environmental temperature value and environmental humidity value corresponding to the target instrument as the first environmental information corresponding to the target instrument;

[0085] Record the corresponding electromagnetic intensity value and electrostatic voltage value as the second interference information corresponding to the target instrument;

[0086] The data acquisition module sends the first environmental information corresponding to the target instrument to the first analysis module, and sends the second interference information corresponding to the target instrument to the second analysis module;

[0087] The first analysis module is used to analyze the environmental situation of the target instrument. The specific analysis process is as follows:

[0088] Obtain the first environmental information corresponding to the target instrument to obtain multiple groups of environmental temperature values and multiple groups of environmental humidity values corresponding to the target instrument;

[0089] If any one of multiple groups of ambient temperature values is greater than the ambient temperature threshold, or any one of multiple groups of ambient humidity values is greater than the ambient humidity threshold, an abnormal signal is generated;

[0090] If multiple groups of ambient temperature values are all less than the ambient temperature threshold and multiple groups of ambient humidity values are all less than the ambient humidity threshold, the sum of multiple groups of ambient temperature values is added up and averaged to calculate the ambient temperature mean value JHW corresponding to the target instrument, and the sum of multiple groups of ambient humidity values is added up and averaged to calculate the ambient humidity mean value JHS corresponding to the target instrument;

[0091] The first environmental impact coefficient corresponding to the target instrument is calculated through the formula, and the specific formula is as follows:

[0092] In the formula, e is the natural constant, BHW is the standard ambient temperature value, and BHS is the standard ambient humidity value; the standard ambient temperature value and the standard ambient humidity value are obtained by reading the technical specification manual of the corresponding target instrument. If the technical specification manual provides the specific suitable ambient temperature value and suitable ambient humidity value of the target instrument, the suitable ambient temperature value is directly selected as the standard ambient temperature value, and the suitable ambient humidity value is selected as the standard ambient humidity value; if the technical specification manual provides an ambient temperature range and an ambient humidity range suitable for a target instrument, the median value of the ambient temperature range is selected as the standard ambient temperature value, and the median value of the ambient humidity range is selected as the standard ambient humidity value;

[0093] If the first environmental impact coefficient is greater than the impact coefficient threshold, an abnormal signal is generated and sent to the user terminal;

[0094] If the first impact coefficient is less than or equal to the impact coefficient threshold, the first environmental impact coefficient corresponding to the target instrument is sent to the comprehensive analysis module;

[0095] The second analysis module is used to analyze the interference situation of the target instrument, and the specific analysis process is as follows:

[0096] Obtain the second interference information corresponding to the target instrument to obtain multiple groups of electromagnetic intensity values and multiple groups of static voltage values corresponding to the target instrument;

[0097] Traverse and compare multiple groups of electromagnetic intensity values, and select the maximum value among multiple groups of electromagnetic intensity values and record it as the peak electromagnetic intensity value DCQ;

[0098] Traverse and compare multiple groups of static voltage values, and select the maximum value among multiple groups of static voltage values and record it as the peak static voltage value JDY; among them, the traversal comparison is a prior art;

[0099] The second environmental impact coefficient EHY corresponding to the target instrument is calculated through the formula, and the specific formula is as follows:

[0100] EHY = DCQ × JDY / e;

[0101] If the second environmental impact coefficient is greater than the impact coefficient threshold, an abnormal signal is generated and sent to the user terminal;

[0102] If the second impact coefficient is less than or equal to the impact coefficient threshold, the second environmental impact coefficient corresponding to the target instrument is sent to the comprehensive analysis module;

[0103] The comprehensive analysis module is used to analyze the comprehensive situation corresponding to the target instrument. The specific analysis process is as follows:

[0104] Obtain the first environmental impact coefficient YHY and the second environmental impact coefficient EHY corresponding to the target instrument;

[0105] Calculate the environmental comprehensive anomaly value HZD corresponding to the target instrument through the formula. The specific formula is as follows:

[0106] HZD = A1 × YHY + A2 × YHY, where A1 and A2 are weight coefficients with fixed values, and the values of A1 and A2 are both greater than 0. When the first environmental impact coefficient is greater than or equal to the second environmental impact coefficient, A1 > A2; when the first environmental impact coefficient is less than the second environmental impact coefficient, A1 < A2;

[0107] Compare the environmental comprehensive anomaly value corresponding to the target instrument with the environmental anomaly threshold;

[0108] If the environmental comprehensive anomaly value is greater than or equal to the first environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a first-level anomaly and generate a first-level adjustment signal; if the environmental comprehensive anomaly value is less than the first environmental anomaly threshold and greater than or equal to the second environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a second-level anomaly and generate a second-level adjustment signal; if the environmental comprehensive anomaly value is less than the second environmental anomaly threshold, record the environmental anomaly level corresponding to the target instrument as a third-level anomaly and generate a normal signal;

[0109] Among them, the first environmental anomaly threshold is greater than the second environmental anomaly threshold. The probability of the target instrument corresponding to the first-level anomaly having a fault is higher than that of the target instrument corresponding to the second-level anomaly; the probability of the target instrument corresponding to the second-level anomaly having a fault is higher than that of the target instrument corresponding to the third-level anomaly;

[0110] The comprehensive analysis module sends the first-level adjustment signal and the second-level adjustment signal corresponding to the target instrument to the control terminal, and sends the normal signal corresponding to the target instrument to the user terminal;

[0111] The control terminal is used to adjust the environment according to the environmental anomaly level corresponding to the target instrument. The specific adjustment process is as follows:

[0112] Obtain the primary adjustment signal or secondary adjustment signal corresponding to the target instrument;

[0113] For the target instrument corresponding to the primary adjustment signal, adjust the power supply line corresponding to the target instrument to ground the power supply line to eliminate the static electricity influence. At the same time, use basic electromagnetic shielding devices such as shielded cables or filters to reduce electromagnetic interference, and then generate a regulation completion signal;

[0114] For the target instrument corresponding to the secondary adjustment signal, adjust the humidity value of the environment where the target instrument is located to the appropriate humidity recorded in the technical specification manual through a humidity adjustment device, and adjust the temperature value of the environment where the target instrument is located to the appropriate humidity recorded in the technical specification manual through a temperature adjustment device; at the same time, set an electromagnetic shielding cover at a fixed distance from the target instrument to eliminate electromagnetic interference, and then generate a regulation completion signal;

[0115] The regulation terminal sends the regulation completion signal to the user terminal;

[0116] The user terminal is used to receive the abnormal signal, normal signal or regulation completion signal corresponding to the target instrument, and the user obtains the current state of the target instrument by reading the user terminal;

[0117] In this application, if there are corresponding calculation formulas, the above calculation formulas are all dimensionless and take their numerical values for calculation. The coefficients such as weight coefficients and proportionality coefficients in the formulas are set to obtain a result value by quantifying each parameter. Regarding the magnitudes of the weight coefficients and proportionality coefficients, as long as they do not affect the proportional relationship between the parameters and the result value, it is fine.

[0118] Embodiment 2

[0119] Based on another concept of the same invention, a method for intelligent management of the environment for the operation of local precision equipment is proposed, including the following steps:

[0120] Step S101, the preliminary inspection analysis module conducts a preliminary inspection analysis on the loss situation of the target instrument, obtains the instrument preliminary inspection level corresponding to the target instrument and sends it to the data acquisition module;

[0121] Step S102, the data acquisition module sets multiple groups of acquisition devices according to the instrument preliminary inspection level corresponding to the target instrument and acquires the first environmental information of the target instrument and sends it to the first analysis module, and acquires the second interference information and sends it to the second analysis module.

[0122] Step S103, the first analysis module analyzes the environmental situation of the target instrument, analyzes and obtains the first environmental impact coefficient corresponding to the target instrument and sends it to the comprehensive analysis module;

[0123] Step S104: The second analysis module analyzes the interference situation of the target instrument, obtains the second environmental impact coefficient corresponding to the target instrument, and sends it to the comprehensive analysis module;

[0124] Step S105: The comprehensive analysis module analyzes the comprehensive situation of the target instrument, obtains the first-level adjustment signal, the second-level adjustment signal, or the normal signal corresponding to the target instrument, sends the first-level adjustment signal or the second-level adjustment signal to the control terminal, and sends the normal signal to the user terminal;

[0125] Step S106: The control terminal receives the first-level adjustment signal or the second-level adjustment signal, controls the environment of the target instrument, and generates a control completion signal to send to the user terminal; The user terminal receives the abnormal signal, normal signal, or control completion signal corresponding to the target instrument;

[0126] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific implementation manners described. Obviously, according to the content of this specification, many modifications and variations can be made. These embodiments are selected and specifically described in this specification to better explain the principles and practical applications of the present invention, so that those skilled in the art in the relevant technical field can well understand and utilize the present invention. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. An intelligent environmental management system based on precision equipment operation, characterized in that: include: A database for storing the technical specification manual corresponding to the target instrument, the total number of precision instruments of the same model as the target instrument sold in the previous quarter, and the number of damaged instruments among the sold instruments; The initial inspection analysis module is used to analyze the loss of the target instrument, obtain the initial inspection level of the target instrument and send it to the data acquisition module; A data acquisition module, used to set multiple groups of acquisition devices according to the instrument initial inspection level corresponding to the target instrument, and simultaneously collect the first environmental information of the target instrument and send it to the first analysis module and collect the second interference information and send it to the second analysis module; A first analysis module is used to analyze the environmental conditions of the target instrument, and obtain a first environmental impact coefficient corresponding to the target instrument and send it to the comprehensive analysis module; The second analysis module is used to analyze the interference situation of the target instrument, obtain the second environmental impact coefficient corresponding to the target instrument and send it to the comprehensive analysis module; A comprehensive analysis module is used to analyze the comprehensive situation of the target instrument, obtain the primary adjustment signal, the secondary adjustment signal or the normal signal corresponding to the target instrument, send the primary adjustment signal or the secondary adjustment signal to the control terminal, and send the normal signal to the user terminal; A control terminal is used to receive the primary adjustment signal or the secondary adjustment signal and control the environment of the target instrument, and generate a control completion signal to send to the user terminal; The user terminal is used to receive an abnormal signal, a normal signal or a control completion signal corresponding to the target instrument.

2. According to claim 1, an intelligent environmental management system based on precision equipment operation is characterized in that: The technical specification manual records the appropriate ambient humidity and temperature of the target instrument; The first environmental information includes multiple groups of environmental temperature values ​​and environmental humidity values ​​corresponding to the target instrument; The second interference information includes multiple sets of electromagnetic intensity values ​​and electrostatic voltage values ​​corresponding to the target instrument.

3. According to claim 1, an intelligent environmental management system based on precision equipment operation is characterized in that: The analysis process of the initial inspection analysis module is as follows: Obtain the number of sold instruments and the number of damaged instruments corresponding to the target instrument, and obtain the instrument damage rate corresponding to the target instrument by dividing the number of damaged instruments by the number of sold instruments; comparing the instrument damage rate of the target instrument with a damage rate threshold; If the instrument damage rate of the target instrument is less than or equal to the first damage rate threshold, the instrument initial inspection level of the target instrument is recorded as the first-level initial inspection; If the instrument damage rate of the target instrument is greater than the first damage rate threshold and less than or equal to the second damage rate threshold, the instrument initial inspection level of the target instrument is recorded as the second-level initial inspection; If the instrument damage rate of the target instrument is greater than the second damage rate threshold, the instrument initial inspection level of the target instrument is recorded as the third-level initial inspection.

4. According to claim 3, an intelligent environmental management system based on precision equipment operation is characterized in that: The first damage rate threshold is lower than the second damage rate threshold, the detection strength of the target instrument corresponding to the first-level initial inspection is lower than the detection strength of the target instrument corresponding to the second-level initial inspection; the detection strength of the target instrument corresponding to the second-level initial inspection is lower than the detection strength of the target instrument corresponding to the third-level initial inspection.

5. According to claim 1, an intelligent environmental management system based on precision equipment operation is characterized in that: The data acquisition process of the data acquisition module is as follows: Obtain the instrument initial inspection level corresponding to the target instrument, and set the corresponding number of data acquisition devices according to the instrument initial inspection level; Start the data acquisition device and collect the real-time temperature values, real-time humidity values, electromagnetic intensity values ​​and real-time electrostatic voltage values ​​corresponding to multiple groups of target instruments; Recording the ambient temperature value and the ambient humidity value corresponding to the target instrument as the first environmental information corresponding to the target instrument; The corresponding electromagnetic intensity value and electrostatic voltage value are recorded as the second interference information corresponding to the target instrument.

6. According to claim 5, an intelligent environmental management system based on precision equipment operation is characterized in that: The relationship between the initial inspection level of the instrument and the corresponding number of groups of data acquisition equipment is: For the target instruments corresponding to the first-level initial inspection, set up X1 group of data acquisition equipment; For the target instruments corresponding to the secondary initial inspection, set up X2 groups of data acquisition equipment; For the third-level initial inspection, X3 groups of data acquisition equipment are set up corresponding to the target instrument; among them, X1<X2<X3, and X1, X2 and X3 are all positive integers.

7. According to claim 5, an intelligent environmental management system based on precision equipment operation is characterized in that: The analysis process of the first analysis module is as follows: Acquire first environmental information corresponding to the target instrument, and obtain multiple groups of environmental temperature values ​​and multiple groups of environmental humidity values ​​corresponding to the target instrument; If any one of the multiple sets of ambient temperature values ​​is greater than the ambient temperature threshold, or any one of the multiple sets of ambient humidity values ​​is greater than the ambient humidity threshold, an abnormal signal is generated; If multiple sets of ambient temperature values ​​are all less than the ambient temperature threshold and multiple sets of ambient humidity values ​​are all less than the ambient humidity threshold, the multiple sets of ambient temperature values ​​are added and averaged to obtain the ambient temperature mean value JHW corresponding to the target instrument, and the multiple sets of ambient humidity values ​​are added and averaged to obtain the ambient humidity mean value JHS corresponding to the target instrument; By formula Calculate the first environmental impact coefficient corresponding to the target instrument; where e is a natural constant, BHW is a standard ambient temperature value, and BHS is a standard ambient humidity value; If the first environmental impact coefficient is greater than the impact coefficient threshold, an abnormal signal is generated and sent to the user terminal; If the first impact coefficient is less than or equal to the impact coefficient threshold, the first environmental impact coefficient corresponding to the target instrument is sent to the comprehensive analysis module.

8. The intelligent environmental management system based on precision equipment operation according to claim 7 is characterized in that: The analysis process of the second analysis module is as follows: Acquire second interference information corresponding to the target instrument, and obtain multiple sets of electromagnetic intensity values ​​and multiple sets of electrostatic voltage values ​​corresponding to the target instrument; The multiple sets of electromagnetic intensity values ​​are traversed and compared, and the maximum value among the multiple sets of electromagnetic intensity values ​​is selected and recorded as the peak electromagnetic intensity value DCQ; The multiple groups of electrostatic voltage values ​​are traversed and compared, and the maximum value among the multiple groups of electrostatic voltage values ​​is selected and recorded as the peak electrostatic voltage value JDY; Calculate the second environmental impact coefficient EHY corresponding to the target instrument by the formula EHY = DCQ × JDY / e; If the second environmental impact coefficient is greater than the impact coefficient threshold, an abnormal signal is generated and sent to the user terminal; If the second impact coefficient is less than or equal to the impact coefficient threshold, the second environmental impact coefficient corresponding to the target instrument is sent to the comprehensive analysis module.

9. The intelligent environmental management system based on precision equipment operation according to claim 8 is characterized in that: The analysis process of the comprehensive analysis module is as follows: Obtain the first environmental impact coefficient YHY and the second environmental impact coefficient EHY corresponding to the target instrument; The environmental comprehensive abnormal value HZD corresponding to the target instrument is calculated by the formula, and the specific formula is as follows: HZD=A1×YHY+A2×YHY; A1 and A2 are weight coefficients with fixed values, and the values ​​of A1 and A2 are both greater than zero. If the first environmental impact coefficient is greater than or equal to the second environmental impact coefficient, A1>A2; if the first environmental impact coefficient is less than the second environmental impact coefficient, A1<A2; Compare the environmental comprehensive abnormal value corresponding to the target instrument with the environmental abnormal threshold; If the comprehensive environmental abnormality value is greater than or equal to the first environmental abnormality threshold, the environmental abnormality level corresponding to the target instrument is recorded as a first-level abnormality, and a first-level adjustment signal is generated; If the comprehensive environmental abnormality value is less than the first environmental abnormality threshold and greater than or equal to the second environmental abnormality threshold, the environmental abnormality level corresponding to the target instrument is recorded as a secondary abnormality, and a secondary adjustment signal is generated; If the comprehensive environmental abnormality value is less than the second environmental abnormality threshold, the environmental abnormality level corresponding to the target instrument is recorded as a level 3 abnormality, and a normal signal is generated; Among them, the first environmental abnormality threshold is greater than the second environmental abnormality threshold, the probability of a target instrument failure corresponding to the first-level abnormality is higher than the probability of a target instrument failure corresponding to the second-level abnormality; the probability of a target instrument failure corresponding to the second-level abnormality is higher than the probability of a target instrument failure corresponding to the third-level abnormality.

10. The intelligent environmental management system based on precision equipment operation according to claim 1 is characterized in that: The control process of the control terminal is as follows: Obtaining a primary adjustment signal or a secondary adjustment signal corresponding to a target instrument; For the target instrument corresponding to the first-level adjustment signal, adjust the power line corresponding to the target instrument to ground the power line, use electromagnetic shielding equipment to reduce electromagnetic interference, and then generate a control completion signal; For the target instrument corresponding to the secondary adjustment signal, the humidity value of the environment where the target instrument is located is adjusted to an appropriate humidity and the temperature value of the environment where the target instrument is located is adjusted to an appropriate temperature, and an electromagnetic shielding cover is set at a fixed distance from the target instrument to eliminate electromagnetic interference, and then a control completion signal is generated.

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