Method and system for optimizing mechanical performance of rapid vacuum switch

Abstract

The invention relates to the technical field of electrical data processing, and discloses a mechanical performance optimization method and system for a fast vacuum switch, and the method comprises the steps: obtaining a vacuum state data set in the use process of the fast vacuum switch, and obtaining a vacuum state evaluation value based on the analysis of the vacuum state data set; acquiring a component state data set in the use process of the quick vacuum switch, and analyzing based on the component state data set to obtain a component state evaluation value; acquiring a mechanical motion data set in the use process of the rapid vacuum switch, and analyzing based on the mechanical motion data set to obtain a mechanical motion evaluation value; based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value, the optimization condition of the rapid vacuum switch is judged; optimizing the mechanical performance of the quick vacuum switch needing to be optimized based on the optimization condition judgment result of the quick vacuum switch; the problems that an existing vacuum switch mechanical performance optimization method is low in optimization result accuracy and optimization efficiency are solved.

Description

Technical Field

[0001] The present invention relates to the technical field of electrical data processing, and in particular to a method and system for optimizing the mechanical performance of a fast vacuum switch. Background Art

[0002] With the development of power systems and the increase in electricity demand, vacuum switches are being used more and more widely in power systems. As demand continues to increase, competition in the vacuum switch market is becoming increasingly fierce. In order to maintain competitiveness in the market, it is necessary to continuously improve product performance. With the development of science and technology, the application of new materials and new processes has continuously improved the performance of vacuum switches, prompting further optimization research on mechanical properties. Optimizing mechanical properties can reduce energy consumption, improve energy utilization efficiency, and meet the requirements of energy conservation and emission reduction.

[0003] At present, there are still some deficiencies in the research on the optimization methods of mechanical performance of vacuum switches. Specifically, the traditional optimization of mechanical performance of vacuum switches tends to be based on experience-based optimization strategies, lacks a comprehensive understanding of complex dynamic systems, and cannot make full use of modern simulation and optimization tools, resulting in limited optimization structure, and relying on the optimization of a single performance indicator, which is limited to local optimization. There are problems of low accuracy and limited applicability of optimization results, which may also lead to blindness and inefficiency in the optimization process. It can be seen that the existing optimization methods for mechanical performance of vacuum switches have the problems of low accuracy of optimization results and low optimization efficiency. Summary of the invention

[0004] The present invention provides a fast vacuum switch mechanical performance optimization method and system to solve the problems of low optimization result accuracy and low optimization efficiency in the existing vacuum switch mechanical performance optimization method.

[0005] In order to achieve the above object, the present invention is implemented by the following technical solutions: In a first aspect, the present invention provides a method for optimizing mechanical properties of a fast vacuum switch, comprising: Acquire a vacuum state data set during the use of the fast vacuum switch, and obtain a vacuum state evaluation value based on analysis of the vacuum state data set; Acquire a component status data set during the use of the fast vacuum switch, and obtain a component status evaluation value based on the component status data set; Acquire a mechanical motion data set during the use of the fast vacuum switch, and obtain a mechanical motion evaluation value based on analysis of the mechanical motion data set; Determining the optimization of the fast vacuum switch based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value; Based on the optimization judgment result of the fast vacuum switch, the mechanical performance of the fast vacuum switch that needs to be optimized is optimized.

[0006] Optionally, the vacuum status data set includes: the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used.

[0007] Optionally, obtaining a vacuum state evaluation value based on the analysis of the vacuum state data set includes: A functional relationship between the vacuum state data set and the vacuum state evaluation value is constructed, and the vacuum state evaluation value is obtained based on the constructed functional relationship. The functional relationship satisfies the following relationship: ; In the formula, Use vacuum status evaluation values ​​for quick-acting vacuum switches, For fast vacuum switch use ambient vacuum degree, Permeability of sealing materials used for fast vacuum switches, For fast vacuum switch use environment dust accumulation rate, Define the vacuum degree for the environment in which the fast vacuum switches are used stored in the database. Defined permeability of the sealing material used for the fast-acting vacuum switches stored in the database, Define dust accumulation rates for the environments in which the fast vacuum switches are used, stored in the database. Compensation factor for ambient vacuum used for the set fast vacuum switch, Use a compensation factor for the permeability of the sealing material for the set fast vacuum switch, A compensation factor for the ambient dust accumulation rate is used for the set fast vacuum switch, e being a natural constant.

[0008] Optionally, the component status data set specifically includes: mechanical strength of components used in the fast vacuum switch, and percentage of corroded area of ​​components used in the fast vacuum switch.

[0009] Optionally, obtaining a component status evaluation value based on the component status data set analysis includes: A functional relationship between the component status data set and the component status evaluation value is constructed, and the component status evaluation value is obtained based on the constructed functional relationship, and the functional relationship satisfies the following relationship: ; In the formula, Use component condition evaluation values ​​for fast-acting vacuum switches, Mechanical strength of components used for fast vacuum switching, The percentage of corroded area of ​​components used in fast vacuum switches. Reference mechanical strength for components used in fast-acting vacuum switches stored in the database, Define the percentage of corroded area of ​​the components used in the fast vacuum switch stored in the database, Use the compensation factor for the mechanical strength of the component for the set fast vacuum switch, A compensation factor for the corrosion area ratio of the components used for the set fast vacuum switch.

[0010] Optionally, the mechanical motion data set specifically includes: a disconnection response speed used by a fast vacuum switch, a disconnection vibration frequency used by a fast vacuum switch, and a disconnection position control deviation distance used by a fast vacuum switch.

[0011] Optionally, obtaining a mechanical motion evaluation value based on the mechanical motion data set analysis includes: A functional relationship between the mechanical motion data set and the mechanical motion evaluation value is constructed, and the mechanical motion evaluation value is obtained based on the constructed functional relationship. The functional relationship satisfies the following relationship: ; In the formula, Use mechanical movement evaluation values ​​for fast vacuum switches, Use disconnect response speed for fast vacuum switches, Use breaking vibration frequency for fast vacuum switching, Use the disconnect position control deviation distance for fast vacuum switches, Use the disconnect defined response speed for the fast vacuum switches stored in the database, Use the permissible vibration frequency for the quick-release vacuum switches stored in the database. Use the disconnect position control permissible deviation distance for the fast vacuum switches stored in the database, Use the compensation factor for the disconnection response speed for the set fast vacuum switch, Use the compensation factor for the opening vibration frequency for the set fast vacuum switch, Compensation factor for the open position control deviation distance used for the set fast vacuum switch.

[0012] Optionally, judging the optimization status of the fast vacuum switch based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value includes: Based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value, a comprehensive analysis is performed to obtain a mechanical performance evaluation value of a fast vacuum switch; Comparing the mechanical performance evaluation value with a fast vacuum switch mechanical performance reference evaluation value stored in a database; If the mechanical performance evaluation value of the fast vacuum switch is higher than or equal to the mechanical performance reference evaluation value of the fast vacuum switch, the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch does not need to be optimized; If the mechanical performance evaluation value of the fast vacuum switch is lower than the mechanical performance reference evaluation value of the fast vacuum switch, the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch needs to be optimized.

[0013] Optionally, the optimizing the mechanical performance of the fast vacuum switch that needs to be optimized based on the optimization judgment result of the fast vacuum switch includes: Obtaining the difference between the reference evaluation value of the mechanical performance of the fast vacuum switch and the evaluation value of the mechanical performance of the fast vacuum switch corresponding to the mechanical performance of the fast vacuum switch that needs to be optimized, and recording the difference between the reference evaluation value of the mechanical performance of the fast vacuum switch and the evaluation value of the mechanical performance of the fast vacuum switch corresponding to the mechanical performance of the fast vacuum switch that needs to be optimized as the mechanical performance deviation value of the fast vacuum switch; Compare the fast vacuum switch mechanical performance deviation value with the fast vacuum switch mechanical performance optimization scheme corresponding to each fast vacuum switch mechanical performance deviation value stored in the database to obtain the fast vacuum switch mechanical performance optimization scheme corresponding to the fast vacuum switch mechanical performance deviation value; Based on the fast vacuum switch mechanical performance optimization scheme obtained by comparison, the fast vacuum switch mechanical performance corresponding to the fast vacuum switch mechanical performance deviation value is optimized, and the mechanical performance of the fast vacuum switch that has completed the fast vacuum switch mechanical performance optimization scheme is further tested.

[0014] In a second aspect, an embodiment of the present application provides a fast vacuum switch mechanical performance optimization system, which is applied to a fast vacuum switch mechanical performance optimization method described in any one of the first aspects, including a vacuum state evaluation value acquisition module, a component state evaluation value acquisition module, a mechanical motion evaluation value acquisition module, a mechanical performance optimization judgment module, and a mechanical performance optimization scheme comparison module, wherein: The vacuum state evaluation value acquisition module is used to detect the mechanical properties of the fast vacuum switch, obtain a vacuum state data set for the fast vacuum switch, and obtain a vacuum state evaluation value for the fast vacuum switch by comprehensive analysis based on the obtained vacuum state data set for the fast vacuum switch; The component status evaluation value acquisition module is used to acquire a fast vacuum switch component status data set, and obtain a fast vacuum switch component status evaluation value by comprehensive analysis based on the acquired fast vacuum switch component status data set; The mechanical motion evaluation value acquisition module is used to acquire a mechanical motion data set used by a fast vacuum switch, and based on the acquired mechanical motion data set used by a fast vacuum switch, comprehensively analyze and obtain a mechanical motion evaluation value used by a fast vacuum switch; The mechanical performance optimization judgment module is used to judge whether the mechanical performance of the fast vacuum switch needs to be optimized based on the acquired vacuum state evaluation value of the fast vacuum switch, the state evaluation value of the component used by the fast vacuum switch, and the mechanical movement evaluation value used by the fast vacuum switch; The mechanical performance optimization scheme comparison module is used to compare and obtain the mechanical performance optimization scheme of the fast vacuum switch that needs to be optimized, and to continue to detect the mechanical performance of the fast vacuum switch that has completed the mechanical performance optimization scheme of the fast vacuum switch.

[0015] Beneficial effects: The fast vacuum switch mechanical performance optimization method provided by the present invention can comprehensively evaluate multiple key aspects of the switch, including the stability of the vacuum state, the health of the components, and the accuracy and stability of the mechanical movement, which is helpful for comprehensively understanding the operating status of the equipment, and can quickly determine whether the mechanical performance of the fast vacuum switch needs to be optimized, and can help formulate targeted optimization plans to reduce downtime and production losses caused by performance problems. By comparing the obtained optimization plans, the most suitable improvement measures can be selected, and their execution can be tracked and monitored, ensuring the effectiveness of the optimization plan and the transparency of the implementation process, which is helpful for improving the long-term stability and reliability of the equipment. Continuing to monitor and evaluate the performance of the fast vacuum switch can ensure that the equipment remains in an optimized state during long-term operation, reducing sudden problems and maintenance costs; At the same time, the present invention determines whether the mechanical performance of the fast vacuum switch needs to be optimized by comprehensively analyzing the vacuum state evaluation value of the fast vacuum switch, the component state evaluation value of the fast vacuum switch and the mechanical movement evaluation value of the fast vacuum switch, which helps to identify possible problems and optimization potential of the equipment. The comprehensive analysis of the evaluation values ​​can timely discover potential performance problems or abnormal conditions, and give early warning of possible equipment failures or performance degradation trends, which helps to take necessary maintenance measures or optimization plans early and avoid the impact of sudden equipment failures on production. Through data-driven comprehensive analysis, the actual operating status of the fast vacuum switch can be objectively evaluated, misjudgment and subjective bias can be reduced, and the scientificity and accuracy of optimization decisions can be improved.

[0016] It is further worth noting that the present invention obtains an optimization plan for the mechanical performance of the fast vacuum switch that needs to be optimized through comparison, and continues to detect the mechanical performance of the fast vacuum switch that has completed the optimization plan for the mechanical performance of the fast vacuum switch. After the comparison, selection and implementation of the optimization plan, continuing to detect the mechanical performance can ensure that the improvement measures taken are effective, and can timely discover whether the expected performance improvement effect has been achieved, and whether further adjustment or optimization is needed. Testing the sustainability of mechanical performance can establish a mechanism for continuous improvement, and constantly collect and analyze performance data to identify more optimization opportunities and improvement space, thereby further improving the efficiency, stability and reliability of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A flowchart of a method for optimizing mechanical performance of a fast vacuum switch according to a preferred embodiment of the present invention; Figure 2 It is a structural schematic diagram of a fast vacuum switch mechanical performance optimization system according to a preferred embodiment of the present invention. DETAILED DESCRIPTION

[0018] The technical solution of the present invention is described clearly and completely below. Obviously, the described embodiments are only a 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.

[0019] Unless otherwise defined, the technical terms or scientific terms used in the present invention shall have the usual meanings understood by persons with ordinary skills in the field to which the present invention belongs. The words "first", "second" and similar words used in the present invention do not indicate any order, quantity or importance, but are only used to distinguish different components. Similarly, words such as "one" or "one" do not indicate quantity restrictions, but indicate the existence of at least one. Words such as "connect" or "connected" are not limited to physical or mechanical connections, but may include electrical connections, whether direct or indirect. "Up", "down", "left", "right" and the like are only used to indicate relative positional relationships. When the absolute position of the object being described changes, the relative positional relationship also changes accordingly.

[0020] Reference Figure 1 As shown, the first aspect of the present invention provides a method for optimizing the mechanical performance of a fast vacuum switch, including: detecting the mechanical performance of the fast vacuum switch, obtaining a data set of vacuum status of the fast vacuum switch, and based on the obtained data set of vacuum status of the fast vacuum switch, comprehensively analyzing to obtain an evaluation value of the vacuum status of the fast vacuum switch.

[0021] Specifically, based on the obtained data set of vacuum status of the fast vacuum switch, a comprehensive analysis is performed to obtain an evaluation value of the vacuum status of the fast vacuum switch. The specific analysis process is: obtain a data set of vacuum status of the fast vacuum switch. The data set of vacuum status of the fast vacuum switch specifically includes the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used. The vacuum degree of the environment in which the fast vacuum switch is used refers to the vacuum level in the environment in which the fast vacuum switch is located. The vacuum degree refers to the density of the number of gas molecules per unit volume, which is used to describe the degree of vacuum and is usually expressed in Pascals or millibars. For a fast vacuum switch, a certain vacuum degree is an important condition to ensure its normal operation and reliability. The permeability of the sealing material used by the fast vacuum switch is Permeability refers to the gas permeability performance of the sealing material used in the fast vacuum switch. The lower the permeability of the sealing material, the stronger its gas barrier ability is, which can reduce the leakage of gas in the vacuum system and improve the stability of the vacuum degree. The dust accumulation rate of the fast vacuum switch operating environment refers to the dust accumulation level in the environment where the fast vacuum switch is located. The accumulation of dust will affect the working performance of the fast vacuum switch and may cause problems such as poor sealing and increased mechanical resistance. Controlling the dust accumulation rate in the environment is crucial to ensure the normal operation of the fast vacuum switch. Based on the acquired fast vacuum switch vacuum state data set, a comprehensive analysis is performed to obtain the fast vacuum switch vacuum state evaluation value, which is used as the analysis basis for judging whether the mechanical performance of the fast vacuum switch needs to be optimized.

[0022] In a specific embodiment, the higher the vacuum degree of the environment in which the fast vacuum switch is located, the lower the permeability of the sealing material should be required to ensure the stability and sealing effect of the vacuum system. Under high vacuum conditions, the permeability of the sealing material is particularly important for maintaining the vacuum degree, and it is necessary to select a sealing material with excellent airtightness. Dust accumulated in a high vacuum environment may cause the sealing performance to degrade and affect the normal operation of the vacuum system. Maintaining a low level of dust accumulation in the environment is crucial to maintaining a high vacuum degree. When designing a fast vacuum switch, it is necessary to consider how to effectively prevent the entry and accumulation of dust to ensure the normal operation of the equipment.

[0023] In a specific embodiment, a comprehensive analysis of data such as the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material, and the environmental dust accumulation rate can more comprehensively evaluate the vacuum state and its influencing factors, improve the accuracy of the evaluation, and more accurately predict the performance and potential problems of the switch, which is helpful to timely discover potential faults and take corresponding optimization measures. The acquired data set is comprehensively analyzed, and the vacuum state evaluation value obtained can quantify the vacuum state of the switch, making the evaluation result more operational. The mechanical performance of the switch can be quickly judged based on the size of the evaluation value, which is conducive to the implementation of timely maintenance and optimization measures. The fast vacuum switch uses the vacuum state evaluation value as an analytical basis for judging whether the mechanical performance of the switch needs to be optimized, which helps to provide a basis for decision-making. When determining whether the switch needs to be maintained, replaced or optimized, an objective and scientific decision can be made based on the evaluation value to improve efficiency and accuracy.

[0024] Specifically, the fast vacuum switch uses the vacuum state evaluation value, and the specific analysis process is: ; In the formula, Use vacuum status evaluation values ​​for quick-acting vacuum switches, For fast vacuum switch use ambient vacuum degree, Permeability of sealing materials used for fast vacuum switches, For fast vacuum switch use environment dust accumulation rate, Define the vacuum degree for the environment in which the fast vacuum switches are used stored in the database. Defined permeability of the sealing material used for the fast-acting vacuum switches stored in the database, Define dust accumulation rates for the environments in which the fast vacuum switches are used, stored in the database. Compensation factor for ambient vacuum used for the set fast vacuum switch, Use a compensation factor for the permeability of the sealing material for the set fast vacuum switch, A compensation factor for the ambient dust accumulation rate is used for the set fast vacuum switch, e being a natural constant.

[0025] It should be explained that the above-mentioned vacuum state evaluation value of the fast vacuum switch is calculated through the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used. It can more accurately evaluate the vacuum state, help ensure that the equipment is within the normal working range, and provide accurate basic data for performance optimization. By considering factors such as vacuum degree, sealing material permeability and dust accumulation rate, it is possible to have a more comprehensive understanding of the influencing factors of the vacuum state, improve the performance stability of the equipment in a targeted manner, reduce performance fluctuations caused by environmental factors, and improve the reliability and stability of the equipment. Evaluation based on the permeability of the sealing material helps optimize the design and selection of seals, improve the performance of sealing materials, reduce vacuum leakage, and thus improve the vacuum degree and sealing performance of the equipment. Considering the impact of the environmental dust accumulation rate on the performance of the equipment, it is possible to formulate a dust prevention strategy, reduce the clogging and damage of the equipment by dust, extend the service life of the equipment, and reduce maintenance and cleaning costs. Comprehensive evaluation of the vacuum state can timely discover potential problems and safety hazards, carry out targeted preventive maintenance, improve the safety and stability of the equipment, and reduce the occurrence of accidents. The pressure transmitter and vacuum gauge are used to measure the vacuum state of the environment in which the fast vacuum switch is used. The vacuum degree of the fast vacuum switch is measured by using a gas permeability tester, and the dust accumulation rate of the environment in which the fast vacuum switch is used is detected by using a dust counter and a particle size analyzer. With reference to the industry standard of the fast vacuum switch, the defined vacuum degree of the environment in which the fast vacuum switch is used, the defined permeability of the sealing material used by the fast vacuum switch, and the defined dust accumulation rate of the environment in which the fast vacuum switch is used stored in the database are obtained. The set compensation factors of the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used are obtained from the database. A mapping set of the historically measured vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used and the compensation factors of the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used are established based on historical data, and the vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used corresponding to the current vacuum degree of the environment in which the fast vacuum switch is used, the permeability of the sealing material used by the fast vacuum switch, and the dust accumulation rate of the environment in which the fast vacuum switch is used corresponding to the current

[0026] A fast vacuum switch component status data set is obtained, and based on the obtained fast vacuum switch component status data set, a fast vacuum switch component status evaluation value is obtained through comprehensive analysis.

[0027] Furthermore, based on the acquired status data set of the components used in the fast vacuum switch, a comprehensive analysis is performed to obtain the status evaluation value of the components used in the fast vacuum switch. The specific analysis process is as follows: the status data set of the components used in the fast vacuum switch is obtained. The status data set of the components used in the fast vacuum switch specifically includes the mechanical strength of the components used in the fast vacuum switch and the proportion of the corroded area of ​​the components used in the fast vacuum switch. The mechanical strength of the components used in the fast vacuum switch refers to the ability of these components to withstand external forces under operation and load conditions. In the fast vacuum switch, the mechanical strength of the components is very important. The components need to be able to withstand switching operations and other environmental stresses without destruction or damage. The mechanical strength of the components is evaluated to ensure that the fast vacuum switch has sufficient stability and durability under normal operation. The percentage of corroded area of ​​the components used in the fast vacuum switch refers to the proportional relationship between the corroded area of ​​the component surface and the total surface area. Corrosion refers to the process in which the surface of the component is damaged and corroded due to chemical reactions or other factors. In the fast vacuum switch, the corrosion of the components may reduce its mechanical properties, cause leakage or damage, and even affect the normal operation of the vacuum system. By evaluating the percentage of corroded area of ​​the components, it is possible to timely discover and solve the corrosion problem of the components and ensure the stability and long-term performance of the fast vacuum switch. Based on the acquired status data set of the components used in the fast vacuum switch, the status evaluation value of the components used in the fast vacuum switch is obtained through comprehensive analysis. The status evaluation value of the components used in the fast vacuum switch is used as the analysis basis for judging whether the mechanical performance of the fast vacuum switch needs to be optimized.

[0028] In a specific embodiment, the corrosion of a component may cause changes in its surface structure and properties, which may weaken the mechanical strength of the component. Corrosion may cause the surface of the component to become thinner or produce cracks, thereby affecting its load-bearing capacity and stability. There is a certain relationship between the degree of corrosion of the component and its mechanical strength. Severe corrosion may cause the component to fail. The mechanical strength of the component may also affect its resistance to corrosion. Components with high mechanical strength may be more resistant to erosion and corrosion from the external environment. The material is stronger and more difficult to be damaged by corrosion. Components with low mechanical strength may be more susceptible to corrosion, and corrosion may more easily cause them to be damaged and fail.

[0029] In a specific embodiment, the status evaluation value can objectively reflect the overall status of the components used in the fast vacuum switch. By comprehensively considering factors such as the mechanical strength of the components and the proportion of the corroded area, a comprehensive evaluation can be obtained to more accurately understand the current status of the components. Judgment based on the status evaluation value can help determine whether the mechanical properties of the fast vacuum switch need to be optimized. When the status evaluation value indicates that the mechanical strength of the component has decreased or the degree of corrosion is serious, corresponding measures may need to be taken for repair, replacement or optimization to ensure the normal operation of the fast vacuum switch. It can also realize dynamic monitoring and tracking of the status of the components used in the fast vacuum switch, timely evaluate the status of the components, and perform corresponding processing based on the evaluation results, which helps to improve the reliability and stability of the fast vacuum switch and reduce the occurrence of unexpected failures. The optimization decision made based on the status evaluation value helps to extend the life of the components used in the fast vacuum switch, reduce the cost of maintenance and replacement, and improve the production efficiency and operation benefits of the equipment.

[0030] Specifically, the fast vacuum switch uses component status assessment values, and the specific analysis process is as follows: ; In the formula, Use component condition evaluation values ​​for fast-acting vacuum switches, Mechanical strength of components used for fast vacuum switching, The percentage of corroded area of ​​components used in fast vacuum switches. Reference mechanical strength for components used in fast-acting vacuum switches stored in the database, Define the percentage of corroded area of ​​the components used in the fast vacuum switch stored in the database, Use the compensation factor for the mechanical strength of the component for the set fast vacuum switch, A compensation factor for the corrosion area ratio of the components used for the set fast vacuum switch.

[0031] It needs to be explained that the above-mentioned fast vacuum switch component status assessment value is calculated through the mechanical strength of the fast vacuum switch components and the percentage of the corroded area of ​​the fast vacuum switch components. Mechanical strength and the percentage of the corroded area are two important component status indicators. The component status assessment value can provide a more comprehensive and accurate component assessment result, which is helpful to have a more comprehensive understanding of the health status of the components, carry out targeted maintenance and repairs, obtain component status assessment values ​​regularly, timely discover the problems of decreased mechanical strength or serious corrosion of components, prevent equipment failures in advance, reduce unexpected downtime and losses, and provide an important reference for maintenance and care work. According to the changing trend of the assessment value, a more scientific and effective maintenance plan can be formulated to extend the service life of the equipment and improve the operating efficiency. Timely acquisition and calculation of component status assessment values ​​can help confirm the reliability and safety of components. According to the analysis results of the assessment value, it can be determined whether the components need to be replaced or repaired to ensure the stability and safety of equipment operation. According to the results of the component status assessment value, targeted Replace, repair or maintain parts in an orderly manner, make rational use of resources, and improve the maintenance efficiency and cost-effectiveness of equipment. Mechanical strength testing equipment includes tensile testing machine, hardness tester, impact testing machine. Equipment for detecting the corrosion condition and degree of corrosion on the surface of parts includes corrosion rate meter and corrosion tester. With reference to the fast vacuum switch industry standard, the reference mechanical strength of the fast vacuum switch parts and the defined proportion of the corrosion area of ​​the fast vacuum switch parts stored in the database are obtained. The set compensation factors of the mechanical strength of the fast vacuum switch parts and the proportion of the corrosion area of ​​the fast vacuum switch parts are obtained from the database. A mapping set of the historically measured mechanical strength of the fast vacuum switch parts and the proportion of the corrosion area of ​​the fast vacuum switch parts and the compensation factors of the mechanical strength of the fast vacuum switch parts and the proportion of the corrosion area of ​​the fast vacuum switch parts are established according to historical data to obtain the compensation factors of the mechanical strength of the fast vacuum switch parts and the proportion of the corrosion area of ​​the fast vacuum switch parts corresponding to the current mechanical strength of the fast vacuum switch parts and the proportion of the corrosion area of ​​the fast vacuum switch parts.

[0032] A data set of mechanical motion used by a fast vacuum switch is obtained, and based on the obtained data set of mechanical motion used by a fast vacuum switch, an evaluation value of the mechanical motion used by a fast vacuum switch is obtained through comprehensive analysis.

[0033] Specifically, based on the obtained fast vacuum switch using mechanical motion data set, a comprehensive analysis is performed to obtain the fast vacuum switch using mechanical motion evaluation value. The specific analysis process is: obtain the fast vacuum switch using mechanical motion data set, the fast vacuum switch using mechanical motion data set specifically includes the fast vacuum switch using disconnect response speed, the fast vacuum switch using disconnect vibration frequency, and the fast vacuum switch using disconnect position control deviation distance. The fast vacuum switch using disconnect response speed refers to the speed at which the fast vacuum switch actually disconnects after the disconnect action is triggered, reflecting the speed of the device when performing the disconnect operation. Too slow speed may affect the working efficiency of the equipment, and too fast speed may cause equipment damage or safety problems. It is necessary to control the disconnect response speed within an appropriate range. The fast vacuum switch using disconnect vibration frequency indicates that when performing the disconnect operation. , the vibration frequency of the equipment. A high vibration frequency may cause the equipment to be subjected to a large impact force, thereby affecting the stability and life of the equipment. It is necessary to pay attention to controlling the vibration frequency to ensure the stability of the equipment operation. The deviation distance of the disconnection position control used by the fast vacuum switch describes the deviation distance between the actual disconnection position and the expected disconnection position when the equipment is performing a disconnection action. This indicator reflects the accuracy of the equipment's control of the disconnection position. A large deviation may cause the equipment to work unstably or damage the equipment. Control measures are needed to reduce the deviation distance to ensure the accuracy and stability of the equipment operation; based on the acquired fast vacuum switch mechanical motion data set, a comprehensive analysis is performed to obtain the fast vacuum switch mechanical motion evaluation value. The fast vacuum switch mechanical motion evaluation value is used as the analysis basis for judging whether the mechanical performance of the fast vacuum switch needs to be optimized.

[0034] It needs to be explained that the faster the above-mentioned disconnection response speed, the higher the vibration frequency during disconnection will be. High-speed disconnection action may cause sudden changes in the equipment, resulting in increased vibration frequency. It is necessary to consider the equipment operating efficiency while also paying attention to controlling the vibration frequency to avoid damage to the equipment or safety hazards. When the disconnection response speed is fast, the position control of the equipment at disconnection may be affected and deviations may occur easily. Rapid disconnection action may cause inertia of the equipment, making it difficult for the equipment to accurately control the position, resulting in deviation distance. It is necessary to consider the accuracy of disconnection position control while improving the response speed, and reduce position deviation through appropriate control measures. Excessive vibration frequency may affect the stability of the equipment, resulting in increased deviation of disconnection position control. High-frequency vibration may interfere with the stable position control of the equipment, making it impossible for the equipment to accurately control the disconnection position, causing deviation. While controlling the vibration frequency, it is also necessary to pay attention to maintaining the accuracy of position control.

[0035] In a specific embodiment, by comprehensively considering multiple factors such as disconnection response speed, disconnection vibration frequency, and disconnection position control deviation distance, the mechanical properties of the fast vacuum switch can be comprehensively evaluated. Evaluation from multiple dimensions helps to have a more comprehensive understanding of the operating status and performance of the equipment. Comprehensive analysis of the data set can convert mechanical motion data into specific evaluation values, thereby achieving objective quantitative analysis of mechanical properties. Through analysis of the evaluation values, the differences in mechanical properties between different periods or different equipment can be clearly understood, and performance optimization can be carried out in a targeted manner. Timely optimization of mechanical performance can improve the operating efficiency of the equipment and reduce the failure rate, thereby saving maintenance costs and improving production efficiency. Regular acquisition and analysis of mechanical motion data to obtain evaluation values ​​can timely discover problems and potential risks in equipment operation. Judgments can be made based on the evaluation values, and preventive maintenance measures can be implemented to eliminate problems in advance, ensure stable and reliable operation of the equipment, and avoid the impact of unexpected failures on production.

[0036] Furthermore, the fast vacuum switch uses the mechanical motion evaluation value, and the specific analysis process is: ; In the formula, Use mechanical movement evaluation values ​​for fast vacuum switches, Use disconnect response speed for fast vacuum switches, Use breaking vibration frequency for fast vacuum switching, Use the disconnect position control deviation distance for fast vacuum switches, Use the disconnect defined response speed for the fast vacuum switches stored in the database, Use the permissible vibration frequency for the quick-release vacuum switches stored in the database. Use the disconnect position control permissible deviation distance for the fast vacuum switches stored in the database, Use the compensation factor for the disconnection response speed for the set fast vacuum switch, Use the compensation factor for the opening vibration frequency for the set fast vacuum switch, Compensation factor for the open position control deviation distance used for the set fast vacuum switch.

[0037] It should be explained that the mechanical motion evaluation value of the above-mentioned fast vacuum switch is calculated by the disconnection response speed of the fast vacuum switch, the disconnection vibration frequency of the fast vacuum switch, and the disconnection position control deviation distance of the fast vacuum switch. The mechanical motion performance of the fast vacuum switch can be understood in real time. If the disconnection response speed slows down, the vibration frequency is abnormal, or the position control deviation increases, it may indicate that there are problems with the mechanical system. Discovering and warning of these problems in advance can prevent equipment failures and avoid downtime and production losses. According to the changes in the mechanical motion evaluation value, a more scientific maintenance plan can be formulated. If the disconnection vibration frequency increases, the lubrication method may need to be adjusted. Or replace damaged parts, which can guide maintenance personnel to carry out targeted maintenance and repair work, extend the service life of the equipment, improve the performance and efficiency of the fast vacuum switch by calculating the mechanical motion evaluation value, and control the change of position deviation distance to improve the accuracy of position control, thereby improving the stability and production efficiency of the equipment. Continuous monitoring and adjustment of these parameters can continuously optimize the operating status of the equipment, accurately calculate these mechanical motion parameters, and promptly discover and solve problems in the mechanical system to avoid damage or safety hazards caused by abnormal movement of the equipment. Timely maintenance and repair of mechanical movement problems can reduce maintenance costs, ensure the safety and stability of equipment operation, and increase A speedometer or a vibration sensor can be used to monitor the vibration frequency of the fast vacuum switch, a position sensor can be used to monitor the position control deviation distance of the fast vacuum switch, a high-speed camera can be used to obtain the use and disconnection response speed of the fast vacuum switch, and with reference to the fast vacuum switch industry standard, obtain the use and disconnection defined response speed of the fast vacuum switch, the use and disconnection permitted vibration frequency of the fast vacuum switch, and the use and disconnection position control permitted deviation distance of the fast vacuum switch stored in the database, and the set compensation factors of the use and disconnection response speed of the fast vacuum switch, the use and disconnection vibration frequency of the fast vacuum switch, and the use and disconnection position control deviation distance of the fast vacuum switch are obtained from the database, and a mapping set of the historically measured use and disconnection response speed of the fast vacuum switch, the use and disconnection vibration frequency of the fast vacuum switch, and the use and disconnection position control deviation distance of the fast vacuum switch is established according to historical data to obtain the use and disconnection response speed of the fast vacuum switch, the use and disconnection vibration frequency of the fast vacuum switch, and the use and disconnection position control deviation distance of the fast vacuum switch corresponding to the current use and disconnection response speed of the fast vacuum switch, the use and disconnection vibration frequency of the fast vacuum switch, and the use and disconnection position control deviation distance of the fast vacuum switch corresponding to the fast vacuum switch

[0038] Based on the obtained vacuum state evaluation value of the fast vacuum switch, the state evaluation value of the components of the fast vacuum switch and the mechanical movement evaluation value of the fast vacuum switch, it is determined whether the mechanical performance of the fast vacuum switch needs to be optimized.

[0039] Specifically, to determine whether the mechanical performance of the fast vacuum switch needs to be optimized, the specific analysis process is: based on the obtained vacuum state evaluation value of the fast vacuum switch, the component state evaluation value of the fast vacuum switch and the mechanical movement evaluation value of the fast vacuum switch, a comprehensive analysis is performed to obtain the mechanical performance evaluation value of the fast vacuum switch, and the mechanical performance evaluation value of the fast vacuum switch is used as the analysis basis for determining whether the mechanical performance of the fast vacuum switch needs to be optimized; the mechanical performance evaluation value of the fast vacuum switch is compared with the mechanical performance reference evaluation value of the fast vacuum switch stored in the database; if the mechanical performance evaluation value of the fast vacuum switch is higher than or equal to the mechanical performance reference evaluation value of the fast vacuum switch, then the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch does not need to be optimized; if the mechanical performance evaluation value of the fast vacuum switch is lower than the mechanical performance reference evaluation value of the fast vacuum switch, then the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch needs to be optimized.

[0040] In a specific embodiment, the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value are comprehensively analyzed to obtain the mechanical performance evaluation value, which can objectively evaluate the overall performance of the equipment, and can more comprehensively understand the working state of the equipment, avoiding the one-sided evaluation of a single indicator. The obtained mechanical performance evaluation value is compared with the reference evaluation value stored in the database, which can help determine the change of the current state of the equipment relative to the past state. If the mechanical performance evaluation value is lower than the reference value, it means that the equipment performance has a downward trend and needs to be optimized in time to avoid potential failures and damage. It can provide a clear decision-making basis for equipment maintenance and optimization. If the mechanical performance evaluation value needs to be optimized, corresponding maintenance and improvement measures can be taken according to the specific evaluation results to improve the equipment performance in a targeted manner, extend the service life of the equipment, and reduce the possibility of mechanical failure. Regular mechanical performance evaluation and timely optimization can help prevent failures, reduce maintenance costs, discover and solve problems in time, avoid downtime losses caused by equipment failures, and improve production efficiency. Continuously evaluating and comparing mechanical performance can form a set of continuous improvement mechanisms to help equipment maintain an efficient and stable operating state. Continuously improving mechanical performance will improve the overall operating efficiency of the equipment and promote continuous optimization of production processes.

[0041] In a specific embodiment, the mechanical performance evaluation value of the fast vacuum switch is analyzed in the following specific process: ; In the formula, Mechanical performance evaluation value for fast vacuum switch, Use vacuum status evaluation values ​​for quick-acting vacuum switches, Use component condition evaluation values ​​for fast-acting vacuum switches, Use the mechanical movement evaluation value for the fast vacuum switch.

[0042] It should be explained that the above-mentioned comprehensive analysis of the vacuum state evaluation value of the fast vacuum switch, the component state evaluation value of the fast vacuum switch and the mechanical movement evaluation value of the fast vacuum switch can determine whether the mechanical performance of the fast vacuum switch needs to be optimized, which is helpful to identify possible problems and optimization potential of the equipment. The comprehensive analysis of the evaluation values ​​can timely discover potential performance problems or abnormal conditions, and provide early warning of possible equipment failures or performance degradation trends, which helps to take necessary maintenance measures or optimization plans as early as possible to avoid the impact of sudden equipment failures on production. Through data-driven comprehensive analysis, the actual operating status of the fast vacuum switch can be objectively evaluated, misjudgment and subjective bias can be reduced, and the scientific nature and accuracy of optimization decisions can be improved.

[0043] By comparison, an optimization scheme for the mechanical performance of the fast vacuum switch that needs to be optimized is obtained, and the mechanical performance of the fast vacuum switch that has completed the optimization scheme for the mechanical performance of the fast vacuum switch is further tested.

[0044] Specifically, an optimization scheme for the mechanical performance of a fast vacuum switch that needs to be optimized is obtained by comparison, and the mechanical performance of the fast vacuum switch that has completed the optimization scheme for the mechanical performance of a fast vacuum switch is further tested. The specific analysis process is as follows: the difference between a reference evaluation value of the mechanical performance of a fast vacuum switch and an evaluation value of the mechanical performance of a fast vacuum switch corresponding to the mechanical performance of a fast vacuum switch that needs to be optimized is obtained, and the difference between the reference evaluation value of the mechanical performance of a fast vacuum switch and the evaluation value of the mechanical performance of a fast vacuum switch corresponding to the mechanical performance of a fast vacuum switch that needs to be optimized is recorded as a deviation value of the mechanical performance of a fast vacuum switch; the deviation value of the mechanical performance of a fast vacuum switch is compared with the optimization schemes for the mechanical performance of a fast vacuum switch corresponding to each deviation value of the mechanical performance of a fast vacuum switch stored in a database to obtain the optimization scheme for the mechanical performance of a fast vacuum switch corresponding to the deviation value of the mechanical performance of a fast vacuum switch; based on the optimization scheme for the mechanical performance of a fast vacuum switch obtained by comparison, the mechanical performance of a fast vacuum switch corresponding to the deviation value of the mechanical performance of a fast vacuum switch is optimized, and the mechanical performance of a fast vacuum switch that has completed the optimization scheme for the mechanical performance of a fast vacuum switch is further tested.

[0045] In a specific embodiment, continuous optimization and testing of mechanical properties can achieve continuous performance improvement. According to the comparison between the actual difference and the optimization scheme in the database, targeted improvements are made to specific performance problems to further improve the performance and stability of the equipment. Re-testing the mechanical performance of the fast vacuum switch can verify the effectiveness and reliability of the optimization scheme to ensure that the implementation of the performance optimization scheme not only solves the problem but also avoids the emergence of new problems. Timely optimization of the mechanical performance of the fast vacuum switch can reduce the risk of equipment failure. Analysis and optimization of performance deviation values ​​can eliminate or reduce potential problems, ensure the normal operation of the equipment, and improve production efficiency. Timely optimization of the mechanical performance of the fast vacuum switch can reduce the maintenance cost of the equipment. Adjusting the performance according to the difference can extend the life of the equipment, reduce maintenance and repair costs, and improve the overall cost performance of the equipment. Optimizing the mechanical performance of the fast vacuum switch can improve the working efficiency and production capacity of the equipment. The equipment after performance optimization is more stable and reliable, which can ensure the smooth progress of the production process and improve production efficiency and output.

[0046] It needs to be explained that the above-mentioned optimization plan for the mechanical performance of the fast vacuum switch that needs to be optimized is obtained through comparison, and the mechanical performance of the fast vacuum switch that has completed the optimization plan for the mechanical performance of the fast vacuum switch is continued to be tested. After the comparison, selection and implementation of the optimization plan, continuing to test the mechanical performance can ensure that the improvement measures taken are effective, and can timely discover whether the expected performance improvement effect has been achieved, and whether further adjustment or optimization is needed. Testing the sustainability of mechanical performance can establish a mechanism for continuous improvement, and constantly collect and analyze performance data to identify more optimization opportunities and improvement space, and further improve the efficiency, stability and reliability of the equipment.

[0047] Reference Figure 2 As shown, the second aspect of the present invention provides a fast vacuum switch mechanical performance optimization system, including a vacuum state evaluation value acquisition module, a component state evaluation value acquisition module, a mechanical motion evaluation value acquisition module, a mechanical performance optimization judgment module and a mechanical performance optimization scheme comparison module.

[0048] The vacuum state evaluation value acquisition module is used to detect the mechanical properties of the fast vacuum switch, obtain the vacuum state data set of the fast vacuum switch, and obtain the vacuum state evaluation value of the fast vacuum switch through comprehensive analysis based on the obtained vacuum state data set of the fast vacuum switch.

[0049] The component status evaluation value acquisition module is used to acquire a data set of status of components used by a fast vacuum switch, and based on the acquired data set of status of components used by a fast vacuum switch, a comprehensive analysis is performed to obtain a status evaluation value of components used by a fast vacuum switch.

[0050] The mechanical motion evaluation value acquisition module is used to obtain a mechanical motion data set used by a fast vacuum switch, and based on the obtained mechanical motion data set used by the fast vacuum switch, a comprehensive analysis is performed to obtain a mechanical motion evaluation value used by the fast vacuum switch.

[0051] The mechanical performance optimization judgment module is used to judge whether the mechanical performance of the fast vacuum switch needs to be optimized based on the acquired vacuum state evaluation value of the fast vacuum switch, the component state evaluation value of the fast vacuum switch and the mechanical movement evaluation value of the fast vacuum switch.

[0052] The mechanical performance optimization scheme comparison module is used to compare and obtain the mechanical performance optimization scheme of the fast vacuum switch that needs to be optimized, and to continue to detect the mechanical performance of the fast vacuum switch that has completed the mechanical performance optimization scheme of the fast vacuum switch.

[0053] It needs to be explained that, by providing a method and system for optimizing the mechanical performance of a fast vacuum switch, a comprehensive evaluation of multiple key aspects of the switch can be performed, including the stability of the vacuum state, the health of the components, and the accuracy and stability of the mechanical movement, which helps to fully understand the operating status of the equipment and can quickly determine whether the mechanical performance of the fast vacuum switch needs to be optimized. It can help to formulate targeted optimization plans to reduce downtime and production losses caused by performance problems. By comparing the optimization plans obtained, the most suitable improvement measures can be selected, and their execution can be tracked and monitored, ensuring the effectiveness of the optimization plan and the transparency of the implementation process, which helps to improve the long-term stability and reliability of the equipment. Continuing to monitor and evaluate the performance of the fast vacuum switch can ensure that the equipment remains in an optimized state during long-term operation and reduce sudden problems and maintenance costs.

[0054] The preferred specific embodiments of the present invention are described in detail above. It should be understood that a person skilled in the art can make many modifications and changes based on the concept of the present invention without creative work. Therefore, any technical solution that can be obtained by a person skilled in the art through logical analysis, reasoning or limited experiments based on the concept of the present invention on the basis of the prior art should be within the scope of protection determined by the claims.

Claims

1. A method for optimizing the mechanical performance of a fast vacuum switch, characterized in that: include: Acquire a vacuum state data set during the use of the fast vacuum switch, and obtain a vacuum state evaluation value based on analysis of the vacuum state data set; Acquire a component status data set during the use of the fast vacuum switch, and obtain a component status evaluation value based on the component status data set; Acquire a mechanical motion data set during the use of the fast vacuum switch, and obtain a mechanical motion evaluation value based on analysis of the mechanical motion data set; Determining the optimization of the fast vacuum switch based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value; Based on the optimization judgment result of the fast vacuum switch, the mechanical performance of the fast vacuum switch that needs to be optimized is optimized.

2. A method for optimizing mechanical performance of a fast vacuum switch according to claim 1, characterized in that: The vacuum state data set includes: vacuum degree of the environment in which the fast vacuum switch is used, permeability of the sealing material used by the fast vacuum switch, and dust accumulation rate of the environment in which the fast vacuum switch is used.

3. A method for optimizing mechanical performance of a fast vacuum switch according to claim 2, characterized in that: The step of obtaining a vacuum state evaluation value based on the analysis of the vacuum state data set includes: A functional relationship between the vacuum state data set and the vacuum state evaluation value is constructed, and the vacuum state evaluation value is obtained based on the constructed functional relationship. The functional relationship satisfies the following relationship: ； In the formula, Use vacuum status evaluation values ​​for quick-acting vacuum switches, For fast vacuum switch use ambient vacuum degree, Permeability of sealing materials used for fast vacuum switches, For fast vacuum switch use environment dust accumulation rate, Define the vacuum degree for the environment in which the fast vacuum switches are used stored in the database. Defined permeability of the sealing material used for the fast-acting vacuum switches stored in the database, Define dust accumulation rates for the environments in which the fast vacuum switches are used, stored in the database. Compensation factor for ambient vacuum used for the set fast vacuum switch, Compensation factor for the permeability of the sealing material used for the set fast vacuum switch, A compensation factor for the ambient dust accumulation rate is used for the set fast vacuum switch, e being a natural constant.

4. A method for optimizing mechanical performance of a fast vacuum switch according to claim 1, characterized in that: The component status data set specifically includes: mechanical strength of components used in fast vacuum switches, and percentage of corroded areas of components used in fast vacuum switches.

5. A method for optimizing mechanical performance of a fast vacuum switch according to claim 4, characterized in that: The obtaining of a component status evaluation value based on the component status data set analysis includes: A functional relationship between the component status data set and the component status evaluation value is constructed, and the component status evaluation value is obtained based on the constructed functional relationship, and the functional relationship satisfies the following relationship: ； In the formula, Use component condition evaluation values ​​for fast-acting vacuum switches, Mechanical strength of components used for fast vacuum switching, The percentage of corroded area of ​​components used in fast vacuum switches. Reference mechanical strength for components used in fast-acting vacuum switches stored in the database, Define the percentage of corroded area of ​​the components used in the fast vacuum switch stored in the database, Use the compensation factor for the mechanical strength of the component for the set fast vacuum switch, A compensation factor for the corrosion area ratio of the components used for the set fast vacuum switch.

6. A method for optimizing mechanical performance of a fast vacuum switch according to claim 1, characterized in that: The mechanical motion data set specifically includes: a disconnection response speed of a fast vacuum switch, a disconnection vibration frequency of a fast vacuum switch, and a disconnection position control deviation distance of a fast vacuum switch.

7. A method for optimizing mechanical performance of a fast vacuum switch according to claim 6, characterized in that: The obtaining of the mechanical motion evaluation value based on the mechanical motion data set analysis includes: A functional relationship between the mechanical motion data set and the mechanical motion evaluation value is constructed, and the mechanical motion evaluation value is obtained based on the constructed functional relationship. The functional relationship satisfies the following relationship: ； In the formula, Use mechanical movement evaluation values ​​for fast vacuum switches, Use disconnect response speed for fast vacuum switches, Use breaking vibration frequency for fast vacuum switching, Use the disconnect position control deviation distance for fast vacuum switches, Use the disconnect defined response speed for the fast vacuum switches stored in the database, Use the permissible vibration frequency for the quick-release vacuum switches stored in the database. Use the disconnect position control permissible deviation distance for the fast vacuum switches stored in the database, Use the compensation factor for the disconnection response speed for the set fast vacuum switch, Use the compensation factor for the opening vibration frequency for the set fast vacuum switch, Compensation factor for the open position control deviation distance for the set fast vacuum switch.

8. A method for optimizing mechanical performance of a fast vacuum switch according to claim 1, characterized in that: The judging of the optimization status of the fast vacuum switch based on the vacuum status evaluation value, the component status evaluation value and the mechanical motion evaluation value comprises: Based on the vacuum state evaluation value, the component state evaluation value and the mechanical motion evaluation value, a comprehensive analysis is performed to obtain a mechanical performance evaluation value of a fast vacuum switch; Comparing the mechanical performance evaluation value with a fast vacuum switch mechanical performance reference evaluation value stored in a database; If the mechanical performance evaluation value of the fast vacuum switch is higher than or equal to the mechanical performance reference evaluation value of the fast vacuum switch, the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch does not need to be optimized; If the mechanical performance evaluation value of the fast vacuum switch is lower than the mechanical performance reference evaluation value of the fast vacuum switch, the mechanical performance of the fast vacuum switch corresponding to the mechanical performance evaluation value of the fast vacuum switch needs to be optimized.

9. A method for optimizing mechanical performance of a fast vacuum switch according to claim 1, characterized in that: The optimizing the mechanical performance of the fast vacuum switch that needs to be optimized based on the optimization judgment result of the fast vacuum switch includes: Obtaining the difference between the reference evaluation value of the mechanical performance of the fast vacuum switch and the evaluation value of the mechanical performance of the fast vacuum switch corresponding to the mechanical performance of the fast vacuum switch that needs to be optimized, and recording the difference between the reference evaluation value of the mechanical performance of the fast vacuum switch and the evaluation value of the mechanical performance of the fast vacuum switch corresponding to the mechanical performance of the fast vacuum switch that needs to be optimized as the mechanical performance deviation value of the fast vacuum switch; Compare the fast vacuum switch mechanical performance deviation value with the fast vacuum switch mechanical performance optimization scheme corresponding to each fast vacuum switch mechanical performance deviation value stored in the database to obtain the fast vacuum switch mechanical performance optimization scheme corresponding to the fast vacuum switch mechanical performance deviation value; Based on the fast vacuum switch mechanical performance optimization scheme obtained by comparison, the fast vacuum switch mechanical performance corresponding to the fast vacuum switch mechanical performance deviation value is optimized, and the mechanical performance of the fast vacuum switch that has completed the fast vacuum switch mechanical performance optimization scheme is further tested.

10. A fast vacuum switch mechanical performance optimization system, applied to a fast vacuum switch mechanical performance optimization method according to any one of claims 1 to 9, characterized in that: It includes a vacuum state evaluation value acquisition module, a component state evaluation value acquisition module, a mechanical motion evaluation value acquisition module, a mechanical performance optimization judgment module and a mechanical performance optimization scheme comparison module, wherein: The vacuum state evaluation value acquisition module is used to detect the mechanical properties of the fast vacuum switch, obtain a vacuum state data set for the fast vacuum switch, and obtain a vacuum state evaluation value for the fast vacuum switch by comprehensive analysis based on the obtained vacuum state data set for the fast vacuum switch; The component status evaluation value acquisition module is used to acquire a fast vacuum switch component status data set, and obtain a fast vacuum switch component status evaluation value by comprehensive analysis based on the acquired fast vacuum switch component status data set; The mechanical motion evaluation value acquisition module is used to acquire a mechanical motion data set used by a fast vacuum switch, and based on the acquired mechanical motion data set used by a fast vacuum switch, comprehensively analyze and obtain a mechanical motion evaluation value used by a fast vacuum switch; The mechanical performance optimization judgment module is used to judge whether the mechanical performance of the fast vacuum switch needs to be optimized based on the acquired vacuum state evaluation value of the fast vacuum switch, the state evaluation value of the component used by the fast vacuum switch, and the mechanical movement evaluation value used by the fast vacuum switch; The mechanical performance optimization scheme comparison module is used to compare and obtain the mechanical performance optimization scheme of the fast vacuum switch that needs to be optimized, and to continue to detect the mechanical performance of the fast vacuum switch that has completed the mechanical performance optimization scheme of the fast vacuum switch.

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