Rope technical equipment testing system and method under multi-environment condition

Abstract

The invention discloses a rope technical equipment testing system and method under multi-environment conditions, and relates to the technical field of rope testing, and the system comprises the steps: building target testing equipment, and activating an environment simulation cabin module to set a plurality of environment simulation conditions; connecting the to-be-tested rope equipment to target test equipment and activating a mechanical loading module; performing various mechanical tests on the to-be-tested rope equipment, and generating a test data sensing record log; evaluating the to-be-tested rope equipment according to the test data sensing record log to generate a rope performance evaluation index; and performing test analysis on the to-be-tested rope equipment, generating a test report, and generating optimization suggestions of the to-be-tested rope equipment. The technical problem that the rope is lack of safety and reliability due to inaccurate performance test of the rope in the prior art is solved, and the technical effects of accurately simulating a complex environment, comprehensively evaluating the performance of the rope and improving the use safety and reliability of the rope are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of rope testing, and in particular to a rope technical equipment testing system and method under multiple environmental conditions. Background Art

[0002] Rope technology equipment plays an indispensable role in many fields and is widely used in fire rescue, outdoor sports, industrial lifting and other scenarios. With the development of society and the advancement of related industry technologies, the requirements for rope performance in various fields are constantly rising, which has prompted the continuous evolution of rope testing technology. Traditional single environment tests or simple environment simulation tests can no longer meet the needs of accurate evaluation of rope performance. On the one hand, most existing tests are conducted under standard environments and cannot truly reflect the performance of ropes in actual complex environments, resulting in a large deviation between the test results and actual usage, making it difficult to ensure the safety and reliability of ropes in actual applications. On the other hand, some tests that attempt to simulate complex environments have many defects.

[0003] The prior art has the technical problem that the performance test of the rope is inaccurate, resulting in the lack of safety and reliability of the rope. Summary of the invention

[0004] The present application provides a rope technical equipment testing system and method under multiple environmental conditions, which is used to solve the technical problem in the prior art that the performance test of the rope is inaccurate, resulting in the lack of safety and reliability of the rope.

[0005] In view of the above problems, the present application provides a rope technology equipment testing system and method under multiple environmental conditions.

[0006] In a first aspect of the present application, a rope technical equipment testing system under multiple environmental conditions is provided, the system comprising:

[0007] a target test equipment construction unit, the target test equipment construction unit is used to construct the target test equipment, introduce the target test scenario through the target test equipment, and activate the environmental simulation cabin module to set multiple environmental simulation conditions; a mechanical loading module activation unit, the mechanical loading module activation unit connects the rope equipment to be tested to the target test equipment and activates the mechanical loading module based on the multiple environmental simulation conditions; a mechanical testing unit, the mechanical testing unit is used to perform multiple mechanical tests on the rope equipment to be tested through the mechanical loading module in combination with the multiple environmental simulation conditions, and generate a test data sensor record log; a rope performance evaluation index generation unit, the rope performance evaluation index generation unit is used to evaluate the rope equipment to be tested according to the test data sensor record log, and generate a rope performance evaluation index; a test report generation unit, the test report generation unit is used to test and analyze the rope equipment to be tested according to the rope performance evaluation index, generate a test report, synchronize the test report to the control system module for storage and analysis, and generate optimization suggestions for the rope equipment to be tested through the control system module.

[0008] A second aspect of the present application provides a method for testing rope technical equipment under multiple environmental conditions, the method comprising:

[0009] Build a target test device, introduce a target test scenario through the target test device, activate the environmental simulation cabin module to set multiple environmental simulation conditions; based on the multiple environmental simulation conditions, connect the rope equipment to be tested to the target test device and activate the mechanical loading module; perform multiple mechanical tests on the rope equipment to be tested through the mechanical loading module in combination with the multiple environmental simulation conditions, and generate a test data sensor record log; evaluate the rope equipment to be tested according to the test data sensor record log, and generate a rope performance evaluation index; perform test analysis on the rope equipment to be tested according to the rope performance evaluation index, generate a test report, synchronize the test report to the control system module for storage and analysis, and generate optimization suggestions for the rope equipment to be tested through the control system module.

[0010] One or more technical solutions provided in this application have at least the following technical effects or advantages:

[0011] Build the target test equipment, activate the environmental simulation cabin module to set multiple environmental simulation conditions; connect the rope equipment to be tested to the target test equipment and activate the mechanical loading module; perform multiple mechanical tests on the rope equipment to be tested and generate a test data sensor record log; evaluate the rope equipment to be tested according to the test data sensor record log and generate rope performance evaluation indicators; perform test analysis on the rope equipment to be tested based on the rope performance evaluation indicators, generate a test report, and generate optimization suggestions for the rope equipment to be tested. The technical effect of accurately simulating complex environments, comprehensively evaluating rope performance, and improving the safety and reliability of rope use has been achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0013] Figure 1 A schematic diagram of the structure of a rope technical equipment testing system under multiple environmental conditions provided in an embodiment of the present application;

[0014] Figure 2 A schematic flow chart of a method for testing rope technical equipment under multiple environmental conditions provided in an embodiment of the present application.

[0015] Description of the accompanying drawings: target test equipment construction unit 10, mechanical loading module activation unit 20, mechanical testing unit 30, rope performance evaluation index generation unit 40, test report generation unit 50. DETAILED DESCRIPTION

[0016] The present application provides a rope technical equipment testing system and method under multiple environmental conditions, so as to solve the technical problem in the prior art that the performance test of the rope is inaccurate, resulting in the lack of safety and reliability of the rope.

[0017] The technical solutions in the embodiments of the present application will be described clearly and completely below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of this application.

[0018] Embodiment 1, as Figure 1 As shown, the present application provides a rope technical equipment testing system under multiple environmental conditions, the system comprising:

[0019] The target test equipment construction unit 10 is used to construct the target test equipment, introduce the target test scenario through the target test equipment, and activate the environmental simulation cabin module to set multiple environmental simulation conditions.

[0020] Specifically, the target test equipment construction unit 10 plays a crucial foundational role in the entire rope technology equipment testing process. First, according to the test requirements and expected test scenarios, carefully select and assemble various types of adaptive hardware components, such as building a stable and highly adjustable test scaffolding to ensure that its structural strength is sufficient to withstand various mechanical loads in subsequent tests and can adapt to the spatial layout requirements under different test scenarios. At the same time, it is equipped with accurate and suitable range sensors, including pressure sensors, tension sensors, etc., to accurately capture the mechanical change data of the rope during the test. Then, through clever connection and wiring, these hardware components are integrated into an organic whole to construct the target test equipment. Then, with the help of the target test equipment, a specific target test scenario is introduced, such as the application of ropes in high temperature, thick smoke and complex building structures in simulated fire rescue scenarios. On this basis, the environmental simulation cabin module is activated, which contains multiple different types of environmental simulation cabins, each of which can independently and accurately control key environmental parameters such as temperature, humidity, pressure, chemical pollutant concentration and ultraviolet radiation intensity. Through the careful regulation and combination of these parameters, a number of environmental simulation conditions that meet the characteristics of actual complex environments are set, such as high temperatures of up to hundreds of degrees at simulated fire scenes, high humidity environments, and specific concentrations of chemical pollutants, etc., laying a solid environmental foundation for subsequent comprehensive and accurate testing of the performance of rope technical equipment.

[0021] The mechanical loading module activation unit 20 connects the rope equipment to be tested to the target test equipment and activates the mechanical loading module based on the multiple environmental simulation conditions.

[0022] Specifically, according to the specific requirements of the test task and the target test scenario to be simulated, appropriate structural materials and components are selected to carefully build the target test equipment. For example, when simulating the test scenario of rope equipment in a high-altitude environment, a test frame with precisely adjustable height and angle is built to restore the complex terrain conditions in high-altitude areas. At the same time, high-precision sensors, such as sensors for measuring atmospheric pressure and temperature changes, are installed to ensure that environmental parameters can be accurately captured. Through the target test equipment built in this way, the target test scenario is successfully introduced, such as simulating the force of the rope in a chemical pollution environment, and activating the environmental simulation cabin module. Each environmental simulation cabin in this module starts working, and independently and accurately controls environmental parameters such as temperature, humidity, pressure, chemical pollutant concentration and ultraviolet radiation intensity according to the scene requirements. For example, to simulate a chemical pollution environment, the concentration of chemical pollutants is set to a specific value, and the temperature and humidity are adjusted to the corresponding level, thereby setting multiple complex and realistic environmental simulation conditions. The mechanical loading module activation unit 20 works based on the multiple environmental simulation conditions that have been set, and accurately connects the rope equipment to be tested to the connection points pre-set on the target test equipment in a simulated environment of high temperature and chemical pollution. For example, a special high-strength connecting buckle is used to firmly connect the rope to the loading end of the test equipment to ensure the stability and reliability of the connection. Then, the mechanical loading module is activated according to the environmental simulation conditions. When simulating the force on the rope in a strong wind environment, the corresponding drive device in the mechanical loading module, such as a hydraulic or electric drive system, is started according to the mechanical parameters corresponding to the set wind speed, so that it enters the working state and is ready to apply precise mechanical loading to the rope equipment, so as to be fully prepared for the subsequent comprehensive evaluation of the mechanical properties of the rope in a complex environment.

[0023] The mechanical testing unit 30 is used to perform a variety of mechanical tests on the rope equipment to be tested by combining the mechanical loading module with the multiple environmental simulation conditions, and generate a test data sensor record log.

[0024] Specifically, the operation of the mechanical test unit 30 is closely dependent on the conditions created by the mechanical loading module and the environmental simulation cabin module. During the test, firstly, based on the various loading modes of the mechanical loading module (such as static stretching, dynamic impact and fatigue loading, etc.) and the multiple environmental simulation conditions set by the environmental simulation cabin (including different temperatures, humidity, pressure, chemical pollutant concentrations and ultraviolet radiation intensity, etc.), scientific and reasonable test grouping is carried out to determine multiple test scheme groups, including the overhanging pressure distribution test group, the impact test group, the slope operation test group, the crossing operation test group, etc. For the overhanging pressure distribution test group, the first environmental simulation condition corresponding to it is accurately extracted from multiple environmental simulation conditions (for example, simulating the overhanging state of outdoor rope equipment at a specific humidity and temperature), and the test is performed according to this condition. The dummy to be tested is connected to the rope equipment to be tested as required, and a flexible pressure sensor is placed at the key contact part between the dummy and the safety belt to connect them, and then the overhanging pressure distribution test is performed, and dynamic data acquisition is performed using a high-precision pressure sensor to obtain pressure sensing data. The pressure dispersion uniformity is calculated based on these data, and the pressure value of the pressure sensing data is marked based on this, thereby constructing a human body pressure distribution map, which is finally added to the first test data sensing record.

[0025] For the fall test group, the second environmental simulation condition (such as simulating a fall scene at a certain height and wind speed) is determined from the environmental simulation conditions according to the characteristics of the fall test. The rope equipment to be tested is accurately connected to the weight to be tested according to this condition, and the specified hanging distance is left. The fall test is performed, and dynamic data is collected through the tension sensor to generate tension sensing data. Then, the tension fluctuation analysis is carried out on the tension sensing data, the tension fluctuation value is calculated and the tension peak value is extracted, and the fall curve is drawn according to the tension fluctuation value and the tension peak value, and the curve is fully added to the second test data sensing record.

[0026] In the slope application test group, the third environmental simulation conditions are extracted according to the slope application scenario (for example, the force of the rope under a specific slope and ground friction is simulated), and the slope slide rail is built according to this condition. The slider to be tested is properly connected to the rope equipment to be tested, and then the slope application test is performed. During this process, multiple tension data and multiple pressure data are collected through sensors. Based on these tension data, in-depth tensile analysis is performed to determine the tensile performance data, and dynamic analysis is performed based on the data to draw the first dynamic tension curve; at the same time, the pressure data is subjected to force analysis to determine the force uniformity data, and the first pressure distribution diagram is analyzed and drawn based on this data. Finally, the first dynamic tension curve diagram and the first pressure distribution diagram are integrated into the first integration result and added to the third test data sensor record.

[0027] For the crossing application test group, find the fourth environmental simulation condition from the environmental simulation conditions according to the crossing scenario (such as simulating the crossing situation under the influence of specific water flow speed and wind direction), build the crossing system according to this condition, accurately connect the rope equipment to be tested with the dummy to be tested, perform the rope crossing test, and use sensors to collect dynamic data according to the time series to obtain tension sequence data and pressure sequence data. Peak value extraction is performed based on the tension sequence data to draw the second dynamic tension curve graph, and force uniformity analysis is performed based on the pressure sequence data to draw the second pressure distribution graph, and the two are integrated into the second integrated result and added to the fourth test data sensing record. Finally, the first test data sensing record, the second test data sensing record, the third test data sensing record, and the fourth test data sensing record generated by the above four test scheme groups are fully integrated to generate a test data sensing record log containing rich information, providing a detailed data basis for subsequent rope performance evaluation.

[0028] The rope performance evaluation index generating unit 40 is used to evaluate the rope equipment to be tested according to the test data sensing record log and generate a rope performance evaluation index.

[0029] Specifically, the core function of the rope performance evaluation index generation unit 40 is to conduct an in-depth and systematic evaluation of the rope equipment to be tested based on a comprehensive and detailed test data sensor record log, and then generate accurate rope performance evaluation indicators. The unit first carefully classifies and sorts the test data sensor record log, and extracts and organizes the data in different test scenarios (such as suspension pressure distribution test, fall test, slope operation test, crossing operation test, etc.). When processing the suspension pressure distribution test data, the key information such as the uniformity of pressure dispersion and the average pressure size in the human body pressure distribution diagram is deeply analyzed, and the overall performance of the rope in the test is combined to evaluate the protection performance of the rope to the human body and its own structural stability when subjected to static pressure. For the fall curve generated by the fall test, the focus is on studying the peak value of the tension, the amplitude of the tension fluctuation, and the change trend of the curve, so as to measure the energy absorption capacity, fracture resistance and dynamic response characteristics of the rope when subjected to sudden impact. When analyzing the slope application test data, the law of the change of tension with time and slope angle in the first dynamic tension curve diagram, as well as the pressure distribution of the contact part between the slider and the rope in the first pressure distribution diagram, are comprehensively considered to judge the tensile performance, wear resistance and collaborative working ability of the rope in a complex environment with oblique force and friction. For the crossing application test data, by observing the fluctuation of tension in the rope crossing process in the second dynamic tension curve diagram, and the pressure change of the rope when the dummy is in different positions in the second pressure distribution diagram, the stability, torsion resistance and adaptability of the rope to different loads under lateral force and under the influence of water or air flow are evaluated. Through the comprehensive and in-depth analysis and comprehensive consideration of the above test data, a set of comprehensive and accurate rope performance evaluation indicators are finally generated. These indicators cover multiple key dimensions such as rope strength, durability, stability, flexibility, wear resistance and adaptability in complex environments, providing a scientific basis for accurately judging the quality and applicability of rope equipment.

[0030] A test report generating unit 50 is used to perform test analysis on the rope equipment to be tested according to the rope performance evaluation index, generate a test report, synchronize the test report to the control system module for storage and analysis, and generate optimization suggestions for the rope equipment to be tested through the control system module.

[0031] Specifically, the test report generation unit 50 obtains the rope performance evaluation index calculated by the rope performance evaluation index generation unit, and conducts in-depth test analysis of the rope equipment to be tested for these indexes. For the strength performance index, the gap between the standard value or the ideal value under different environmental simulation conditions is analyzed to determine the reliability of the rope when it is subjected to mechanical effects such as tension and impact; for the durability index, the life expectancy of the rope under long-term use or repeated stress is evaluated in combination with the data change trend in multiple test cycles; for the stability index, the fluctuation amplitude of the mechanical properties of the rope under complex environmental combinations (such as high temperature and humidity and chemical pollution and mechanical loading) is considered. Based on these detailed analyses, a test report is generated, which covers the specific values ​​of various performance indicators of the rope, the performance advantages and disadvantages in different test scenarios, the comparison with industry standards or similar products, and the comprehensive evaluation of the overall performance of the rope. Then, this test report is synchronized to the control system module. After receiving the report, the control system module stores it in a specific database for subsequent retrieval and reference at any time. At the same time, the data in the test report is deeply mined using its own built-in data analysis algorithm. For example, by comparing the test data of different batches of ropes, the reasons for performance differences can be analyzed; according to the performance of the ropes in specific environments, combined with the actual application scenario requirements, the optimization algorithm model is used to calculate the direction and magnitude of improvement. Finally, optimization suggestions for the rope equipment to be tested are generated. These suggestions involve the improvement direction of rope materials (such as adjusting the material formula to enhance chemical corrosion resistance), optimization ideas for structural design (such as changing the rope braiding method to improve stability), and adjustment points for production processes (such as optimizing heat treatment processes to improve strength). These suggestions provide rope manufacturers with valuable references for improving their products and promote the continuous development and progress of rope technology.

[0032] In a possible implementation, the target test equipment construction unit further includes:

[0033] Based on the target test scenario, the target test equipment is tested and analyzed to obtain target test requirement information; the target test requirement information is traversed to perform cluster analysis and multiple types of environmental simulation cabins are set; the multiple types of environmental simulation cabins are communicatively connected to construct an environmental simulation cabin module; the environmental simulation cabin module is started to set multiple environmental simulation parameters according to the target test requirement information; the multiple environmental simulation parameters are associated and combined to set the multiple environmental simulation conditions.

[0034] Specifically, in the entire rope technical equipment testing system, testing and analyzing the target test equipment based on the target test scenario is a key step in building a precise test environment. When the target test scenario is set to simulate the application of ropes in a chemical production environment, it is necessary to conduct in-depth research on the various complex situations that the rope may encounter in this scenario. For example, the corrosive gases and liquids in the chemical environment corrode the rope material, the changes in the mechanical loads borne by the rope in different production process links, and the potential impact of temperature and humidity fluctuations in the environment on the performance of the rope. By conducting detailed testing and analysis on the performance of the target test equipment under these simulated working conditions, comprehensive and targeted target test demand information can be obtained. This includes the quantitative requirements for the degree of chemical corrosion, the clear requirements for the range and mode of mechanical loading, and the definition of the range of changes in environmental parameters such as temperature and humidity.

[0035] After obtaining the target test demand information, it is traversed and deeply processed by cluster analysis. The demand information related to chemical corrosion, such as different corrosive substance concentrations and erosion time, is classified into one category; the demand involving mechanical loading, such as tensile force, impact force size and frequency, is classified into another category; similarly, the environmental parameter requirements such as temperature and humidity are classified separately. According to these clustering results, multiple types of environmental simulation cabins are carefully set up. In response to chemical corrosion requirements, a professional chemical pollution simulation cabin is equipped with a corrosion-resistant liner and a precise chemical substance concentration control system, which can accurately simulate various corrosive gas and liquid environments. For mechanical loading requirements, a mechanical environment simulation cabin is built, which is equipped with advanced mechanical loading devices, such as a ball screw loading system driven by a servo motor, which can realize multiple modes of mechanical loading. At the same time, a temperature and humidity control cabin is set up to create different temperature and humidity environments through high-precision temperature and humidity adjustment equipment.

[0036] Next, multiple types of environmental simulation chambers are connected through special communication lines and interfaces to build an integrated environmental simulation chamber module. High-speed and stable communication protocols, such as industrial Ethernet protocols, are used between the chambers to ensure the real-time and accuracy of data transmission. For example, the chemical pollution simulation chamber transmits the real-time monitored chemical concentration data to the mechanical environment simulation chamber, so that the mechanical loading device can consider the impact of chemical corrosion on the mechanical properties of the rope when conducting mechanical tests; the mechanical environment simulation chamber feeds back the force data during the mechanical loading process to the temperature and humidity control chamber, so that it can simulate the impact of temperature and humidity changes on the rope under different force states.

[0037] After the construction is completed, the environmental simulation cabin module is started, and multiple environmental simulation parameters are set for each simulation cabin according to the target test requirements. In the chemical pollution simulation cabin, the concentration values ​​of corrosive gases or liquids such as sulfuric acid and hydrochloric acid, as well as gas flow rate and other parameters are accurately set according to the actual corrosive substance composition and concentration data in the chemical production environment; in the mechanical environment simulation cabin, according to the mechanical load that the rope may bear in the chemical production process, the size, frequency and direction of the static tensile force and dynamic impact force are set; in the temperature and humidity control cabin, according to the temperature and humidity change range of the chemical production workshop, the corresponding temperature value, humidity value and temperature and humidity change rate and other parameters are set.

[0038] Finally, multiple environmental simulation parameters set in each simulation chamber are combined and correlated. For example, when simulating a specific process in chemical production, the high-concentration acid gas environmental parameters in the chemical pollution simulation chamber are combined with the high-frequency low-amplitude vibration dynamic loading parameters in the mechanical environment simulation chamber and the high temperature and high humidity parameters in the temperature and humidity control chamber to simulate the actual working conditions of the rope in this complex process, such as chemical corrosion, mechanical vibration, and harsh temperature and humidity environment. In this way, multiple environmental simulation conditions that are highly consistent with actual application scenarios are set, providing a solid environmental foundation for the subsequent accurate evaluation of the performance of rope technology equipment in chemical environments.

[0039] In a possible implementation, the mechanical testing unit further includes:

[0040] Based on the mechanical loading module and the multiple environmental simulation conditions, test grouping is performed to determine multiple test scheme groups, and the multiple test scheme groups include a suspension pressure distribution test group, a fall test group, a slope operation test group, and a crossing operation test group. Based on the multiple environmental simulation conditions, a first environmental simulation condition is extracted, and the suspension pressure distribution test group is executed according to the first environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a first test data sensing record is generated. There is a corresponding relationship between the first environmental simulation condition and the suspension pressure distribution test group. Based on the multiple environmental simulation conditions, a second environmental simulation condition is extracted, and the fall test group is executed according to the second environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a second test data sensing record is generated. There is a corresponding relationship between the second environmental simulation condition and the fall test group. Based on the multiple environmental simulation conditions, a third environmental simulation condition is extracted, and the slope operation test group is executed according to the third environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a third test data sensing record is generated. There is a corresponding relationship between the third environmental simulation condition and the slope operation test group. A fourth environmental simulation condition is extracted based on the multiple environmental simulation conditions, and the crossing operation test group is executed according to the fourth environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a fourth test data sensing record is generated, wherein the fourth environmental simulation condition corresponds to the crossing operation test group. The first test data sensing record, the second test data sensing record, the third test data sensing record, and the fourth test data sensing record are integrated to generate a test data sensing record log.

[0041] Specifically, in the rope technical equipment test under multiple environmental conditions, test grouping based on mechanical loading modules and multiple environmental simulation conditions is an important link to ensure a comprehensive evaluation of rope performance. First, combined with the multiple loading modes of the mechanical loading module, such as static tension, dynamic impact and fatigue loading, and the complex environmental simulation conditions created by the environmental simulation chamber module (such as different combinations of temperature, humidity, pressure, chemical pollutant concentration and ultraviolet radiation intensity), the test is divided into multiple test scheme groups. Among them, the suspension pressure distribution test group is designed to evaluate the distribution of pressure when the rope is under load in a vertical suspension state; the impact test group focuses on the mechanical response of the rope under the impact of a sudden fall; the slope application test group is used to simulate the force and performance of the rope in an inclined slope environment; the crossing application test group focuses on the mechanical properties of the rope in a horizontal crossing scenario.

[0042] For the draping pressure distribution test group, the first environmental simulation condition that is adapted to it is accurately extracted from multiple environmental simulation conditions. For example, when simulating the draping scene of outdoor ropes under a specific humidity and temperature environment, the corresponding humidity value, temperature range, and possible low-intensity chemical pollution degree (if applicable) and other parameters are determined as the first environmental simulation condition. According to this condition, a stable test scaffold is built, the dummy to be tested and the rope equipment to be tested are connected through a safety belt, and flexible pressure sensors are placed at the key contact parts such as the shoulders, back, waist, and legs of the dummy and the safety belt. Then the draping pressure distribution test is performed. During the test, high-precision pressure sensors are used to collect pressure sensing data in real time to record the pressure changes on different parts of the rope in the draped state. Based on these data, the uniformity of pressure dispersion is calculated, and a specific algorithm is used to analyze whether the pressure distribution on the dummy is uniform and reasonable, and the average pressure size is obtained at the same time. The data such as the uniformity of pressure dispersion and the average pressure size are integrated to construct a human pressure distribution diagram, which intuitively shows the pressure distribution of the rope equipment on the human body when it is suspended under specific environmental simulation conditions. Finally, the human pressure distribution diagram and related data are added to the first test data sensing record.

[0043] The test process of the fall test group is similar, and the second environmental simulation condition is extracted based on multiple environmental simulation conditions. For example, when simulating the fall of a rope under a certain height and wind speed environment, the corresponding height value, wind speed, ambient temperature, atmospheric pressure and other parameters are determined as the second environmental simulation condition. According to this condition, one end of the rope to be tested is firmly connected to the anchor point, and the other end is connected to the weight to be tested of known weight (such as 60kg), and the specified hanging distance (such as 2m) is left, and the tension sensor is placed at the connection between the anchor point and the rope. Then the fall test is performed. When the weight is released, the tension sensor data is quickly collected through the tension sensor to record the tension changes of the rope at the moment of falling and in the subsequent process. The tension sensor data is deeply analyzed, and the tension fluctuation value is calculated to evaluate the severity of the tension change, and the tension peak value is accurately extracted, which reflects the maximum tension that the rope bears during the fall process. A fall curve is drawn based on the tension fluctuation value and the tension peak value. This curve clearly presents the mechanical response characteristics of the rope when it falls under specific environmental simulation conditions. The fall curve and related data are fully added to the second test data sensor record.

[0044] In terms of the slope application test group, the third environmental simulation condition is extracted based on multiple environmental simulation conditions. For example, when simulating the application scenario of the rope under a specific slope, ground friction and chemically contaminated ground environment, the slope angle, ground friction coefficient, chemical pollutant type and concentration, ambient temperature and humidity and other parameters are determined as the third environmental simulation conditions. According to this condition, a slope slide is built, the slider to be tested is connected to the rope equipment to be tested, pressure sensors are installed at the contact point between the slider and the slide rail and the key force point of the rope, and tension sensors are installed at the connection between the rope and the fixed point. Then the slope application test is performed. During the pulling of the slider, multiple tension data and multiple pressure data are continuously collected through the sensor. Based on these tension data, tensile analysis is performed, and tensile performance data such as average tensile strength and tensile strength change trend over time are calculated. Dynamic analysis is performed based on the tensile performance data, and the first dynamic tension curve is drawn. The curve shows the dynamic change of the tension of the rope during the slope pulling process. At the same time, the pressure data is subjected to stress analysis, and the stress uniformity data, such as the standard deviation or coefficient of variation of the pressure distribution, is calculated. The first pressure distribution diagram is drawn based on the stress uniformity data to intuitively present the pressure distribution state of the contact part between the slider and the rope. Finally, the first dynamic tension curve diagram is integrated with the first pressure distribution diagram, and the integration result is added to the third test data sensor record.

[0045] The same is true for the crossing application test group. The fourth environmental simulation condition is extracted based on multiple environmental simulation conditions. For example, when simulating the crossing scene of the rope under a specific water flow speed, wind direction and chemically polluted water environment, the water flow speed, flow direction, wind speed direction and intensity, water chemical pollutant concentration, ambient temperature and humidity and other parameters are determined as the fourth environmental simulation condition. According to this condition, the crossing system is built, the rope equipment to be tested is connected to the dummy to be tested, and tension sensors and pressure sensors are installed at the two ends of the rope and the contact point between the dummy and the rope. Perform the rope crossing test, and use the sensor to collect dynamic data according to the time series during the crossing process to generate tension sequence data and pressure sequence data. Based on the tension sequence data, the peak value is extracted to obtain the tension peak value and the time node of its occurrence during the crossing process, and the second dynamic tension curve is drawn. The curve shows the change of the tension of the rope over time during the crossing, including the fluctuation of the tension peak value. Based on the pressure sequence data, the force uniformity analysis is performed, the uniformity index of the pressure borne by the rope when the dummy is in different positions is calculated, and the second pressure distribution diagram is drawn to intuitively display the distribution change of the pressure of the dummy on the rope during the crossing process. The second dynamic tension curve diagram is integrated with the second pressure distribution diagram, and the integration result is added to the fourth test data sensing record.

[0046] Finally, the first test data sensor record, the second test data sensor record, the third test data sensor record, and the fourth test data sensor record generated by the above four test scheme groups are fully integrated. During the integration process, the integrity and accuracy of the data are ensured, and the data are arranged and combined according to a unified data format and time series to generate a detailed and comprehensive test data sensor record log. The log contains the mechanical test data of the rope in different environmental simulation conditions under various test scenarios such as hanging, falling, slope operation, and crossing operation, which provides a data basis for the subsequent in-depth analysis of rope performance and evaluation of its applicability in actual complex environments, and helps to fully and accurately grasp the performance characteristics and potential problems of rope technical equipment.

[0047] In a possible implementation, the mechanical testing unit further includes:

[0048] A first index is set based on the overhang pressure distribution test group, and the multiple environmental simulation conditions are traversed according to the first index to determine a first environmental simulation condition. According to the first environmental simulation condition, the dummy to be tested is connected to the rope equipment to be tested, and a overhang pressure distribution test is performed to collect dynamic data and generate pressure sensing data. The pressure dispersion uniformity is calculated according to the pressure sensing data, and the pressure value of the pressure sensing data is marked according to the pressure dispersion uniformity to construct a human body pressure distribution map. The human body pressure distribution map is added to the first test data sensing record.

[0049] Specifically, in the rope technical equipment test under multiple environmental conditions, for the overhang pressure distribution test, the first index is first set based on the characteristics and requirements of the overhang pressure distribution test group. This first index can help us accurately find the conditions that match the overhang pressure distribution test in many complex environmental simulation conditions. According to the first index, multiple environmental simulation conditions are traversed one by one. These environmental simulation conditions include different combinations of various factors such as temperature, humidity, pressure, chemical pollutant concentration and ultraviolet radiation intensity. For example, it may traverse environmental conditions with high temperature, high humidity and certain chemical pollution, or environmental conditions with low temperature and low pressure. Through careful comparison and screening, the first environmental simulation condition is finally determined.

[0050] After determining the first environmental simulation conditions, the actual test preparation work begins. The 60kg dummy to be tested is reliably connected to the rope equipment to be tested through a specially designed safety belt. High-precision flexible pressure sensors are carefully placed at the key contact points between the dummy and the safety belt, such as the shoulders, back, waist, and legs. These sensors can keenly sense changes in pressure and convert them into electrical signals for transmission. Next, the overhang pressure distribution test is performed. The connected dummy is slowly lowered so that it hangs 1m away. During this process, the pressure sensor starts to work in real time and collects dynamic data. The raw data collected by the sensor is the pressure sensing data, which records the changes in the pressure on various parts of the dummy in the overhanging state over time. After obtaining the pressure sensing data, the pressure dispersion uniformity is calculated based on these data. The specific calculation method is to first find the average value of all pressure sensing data, then calculate the difference between each data point and the average value, and then perform specific mathematical processing on these differences (such as summing, averaging, etc.) to obtain the value of pressure dispersion uniformity.

[0051] According to the value of pressure dispersion uniformity, the pressure sensing data is labeled with pressure values. For example, if the pressure value of a certain part deviates greatly from the average value, it can be labeled as an area with uneven pressure distribution according to the calculation result of pressure dispersion uniformity. Through such labeling, the distribution of pressure on the dummy can be more intuitively understood. Finally, these data with pressure value labels are integrated and visualized to construct a human body pressure distribution map. This figure clearly shows the pressure distribution of various parts of the dummy in a suspended state in a graphical way, where different colors or grayscales can represent different pressure ranges.

[0052] After the human body pressure distribution map is constructed, it is completely added to the first test data sensor record. The first test data sensor record is specifically used to store all data and results generated during the suspension pressure distribution test, including pressure sensor data, pressure dispersion uniformity calculation results, pressure value identification information, and human body pressure distribution map. In this way, when evaluating and analyzing the rope performance in the subsequent period, these data can be easily retrieved, providing an important basis for a comprehensive understanding of the performance of the rope in the suspended state.

[0053] In a possible implementation, the mechanical testing unit further includes:

[0054] A second index is set based on the fall test group, and the multiple environmental simulation conditions are traversed according to the second index to determine the second environmental simulation condition; according to the second environmental simulation condition, the rope equipment to be tested is connected to the weight to be tested, and a fall test is performed to collect dynamic data and generate tension sensor data; tension fluctuation analysis is performed based on the tension sensor data to generate a tension fluctuation value, and a tension peak value is extracted based on the tension fluctuation value; a fall curve is drawn based on the tension fluctuation value and the tension peak value, and the fall curve is added to the second test data sensor record.

[0055] Specifically, in the rope technical equipment testing system under multiple environmental conditions, for the fall test link, the second index is first carefully set based on the unique requirements and characteristics of the fall test group. This second index quickly locates the specific conditions that are adapted to it among the numerous and complex environmental simulation conditions. According to the second index, all environmental simulation conditions are systematically and comprehensively traversed. These environmental simulation conditions cover different combinations of factors such as temperature, humidity, pressure, concentration of chemical pollutants, and intensity of ultraviolet radiation. For example, the environmental combination of low temperature and dryness with certain chemical pollution, or the special environment of high temperature and high pressure accompanied by ultraviolet radiation, etc., are screened in turn. Through a rigorous and meticulous comparison and screening process, the second environmental simulation conditions are finally accurately determined.

[0056] Once the second environment simulation conditions are determined, the preliminary preparations for the fall test are carried out. The rope equipment to be tested is firmly fixed on the firmly constructed scaffolding to ensure that it will not move or loosen during the subsequent test process. At the same time, a precise 2m hanging distance is reserved to simulate the hanging state that the rope may appear in the actual application scenario. Then, the weight to be tested with a mass of 60kg is safely and reliably connected to the rope equipment system. At this time, special attention should be paid to the firmness and stability of the connection part to prevent accidental falling off or loosening during the fall process.

[0057] After the preparations are completed, the fall test is officially carried out. At the moment the weight is released, the entire test system enters a highly dynamic data acquisition phase. The tension sensor connected to the rope equipment system responds quickly and begins to collect and record tension sensor data in real time, recording in detail the instantaneous change in the tension of the rope over time when the weight is dropped.

[0058] After obtaining the tension sensor data, we immediately conduct an in-depth tension fluctuation analysis. Using professional data analysis algorithms and tools, we carefully process the tension sensor data and calculate the tension fluctuation value, which can accurately reflect the amplitude and intensity of the tension change during the fall process, and accurately extract the tension peak value from the tension sensor data. This tension peak represents the maximum tension that the rope withstands during the fall process, and is one of the key indicators for evaluating the impact resistance of the rope.

[0059] Finally, according to the calculated tension fluctuation value and tension peak value, a fall curve is drawn using professional drawing software or tools. The fall curve presents the mechanical response characteristics of the rope during the fall process in an intuitive and vivid graphical way, and clearly shows the trend of tension change over time, the size of the tension peak value, and the tension fluctuation. After the drawing is completed, the fall curve is added completely and accurately to the second test data sensor record. The second test data sensor record is specifically used to store all data and results generated during the entire fall test, including important information such as tension sensor data, tension fluctuation value, tension peak value, and fall curve. In this way, when conducting a comprehensive evaluation and in-depth analysis of the rope performance in the subsequent period, these detailed data records will provide a comprehensive and accurate basis for the test personnel, which will help to gain a deeper understanding of the performance of the rope in the fall scenario, thereby providing strong data support for the optimization and improvement of the rope and its practical application.

[0060] In a possible implementation, the mechanical testing unit further includes:

[0061] A third index is set based on the slope operation test group, and the multiple environmental simulation conditions are traversed according to the third index to determine the third environmental simulation condition; a slope slide rail is built according to the third environmental simulation condition, the slider to be tested is connected to the rope equipment to be tested, and a slope operation test is performed to collect dynamic data to obtain multiple tension data and multiple pressure data; a tensile analysis is performed based on the multiple tension data to determine the tensile performance data, a dynamic analysis is performed based on the tensile performance data, and a first dynamic tension curve graph is drawn; a force analysis is performed based on the multiple pressure data to determine the force uniformity data, an analysis is performed based on the force uniformity data, and a first pressure distribution graph is drawn; the first dynamic tension curve graph is integrated with the first pressure distribution graph, and the first integration result is added to the third test data sensor record.

[0062] Specifically, in the test process of rope technical equipment under multiple environmental conditions, for the slope application test part, the third index is first set according to the test objectives and demand characteristics of the slope application test group. This third index guides the test process to accurately locate in many complex environmental simulation conditions, and all environmental simulation conditions are carefully traversed one by one according to the third index. These environmental simulation conditions include different combinations of various factors such as temperature, humidity, pressure, chemical pollutant concentration, and ultraviolet radiation intensity. For example, it may involve slope environmental simulation conditions with low temperature, high humidity and chemical pollution, or slope scene settings under high temperature and low pressure. After rigorous screening and comparison, the third environmental simulation conditions were finally determined.

[0063] After determining the simulation conditions of the third environment, we started to build the slope slide according to its requirements. The construction of the slope slide must ensure that its structure is stable and the angle can be precisely adjusted to meet the test requirements of different slope angles. A slider to be tested with a mass of 60kg is installed on the slide, and pressure sensors are accurately installed at key contact points between the slider and the slide and at the connection points between the rope and the slider to monitor pressure changes in real time. At the same time, a tension sensor is installed at a suitable position on the rope to accurately obtain tension data. After completing the construction and installation, the slope application test is performed. During the process of pulling the slider, the test system starts dynamic data acquisition. As the slider moves on the slope slide, the tension sensor and pressure sensor continue to work, recording multiple tension data and multiple pressure data. These data reflect the tension and pressure conditions that the rope is subjected to at different times and positions during the slope pulling process.

[0064] After obtaining multiple tensile force data, we conduct in-depth tensile analysis. Through professional data analysis methods, we calculate tensile performance data such as average tensile strength and tensile strength variation range, which can reflect the rope's ability to resist stretching in a slope environment. Based on the tensile performance data, we further conduct dynamic analysis, observe the changing trend of tensile strength over time or slider position movement, and use drawing tools to draw the first dynamic tensile curve. This curve shows the changing law of the tensile performance of the rope during slope use in an intuitive graphical way.

[0065] Based on the collected multiple pressure data, force analysis is performed. The force uniformity data such as the standard deviation and coefficient of variation of the pressure distribution are calculated to evaluate the uniformity of the pressure between the slider and the rope and on different parts of the rope. Based on the force uniformity data, an in-depth analysis is performed to draw the first pressure distribution diagram, which can clearly show the distribution of pressure on the contact surface between the rope and the slider.

[0066] Finally, the first dynamic tension curve and the first pressure distribution diagram are integrated to form the first integrated result. This integrated result fully reflects the mechanical performance of the rope in the slope application test, including the tensile and compressive properties. The first integrated result is completely added to the third test data sensor record, which is specifically used to store all data and analysis results generated during the slope application test, providing a data basis for the subsequent comprehensive evaluation of the performance of the rope in the slope scenario, which helps to further optimize the rope design and application strategy.

[0067] In a possible implementation, the mechanical testing unit further includes:

[0068] A fourth index is set based on the crossing application test group, and the multiple environmental simulation conditions are traversed according to the fourth index to determine the fourth environmental simulation condition. A crossing system is built according to the fourth environmental simulation condition, the rope equipment to be tested is connected to the dummy to be tested, and the rope crossing is performed to collect dynamic data according to the time series to generate tension sequence data and pressure sequence data. Peak value extraction is performed based on the tension sequence data, and a second dynamic tension curve graph is drawn. A uniform force analysis is performed based on the pressure sequence data, and a second pressure distribution graph is drawn. The second dynamic tension curve graph is integrated with the second pressure distribution graph, and the second integration result is added to the fourth test data sensor record.

[0069] Specifically, in the process of testing rope technical equipment under multiple environmental conditions, for the crossing application test link, the fourth index is first carefully constructed based on the specific needs of the crossing application test group. The fourth index guides the test process to accurately find the conditions that match it in many complex environmental simulation conditions. Following the fourth index, a comprehensive and detailed traversal of all environmental simulation conditions is carried out. These environmental simulation conditions cover a variety of combinations of factors such as temperature, humidity, pressure, concentration of chemical pollutants, and intensity of ultraviolet radiation. For example, it may encounter low temperature and high humidity and chemically polluted water environment simulation conditions, or a crossing scene setting with strong wind interference under high temperature and low pressure. After careful screening and comparison, the fourth environmental simulation conditions were finally determined.

[0070] After determining the fourth environmental simulation conditions, the crossing system is built strictly in accordance with its requirements. The construction of the crossing system must ensure that its structure is stable and reliable, and can truly simulate various working conditions in the actual crossing scene. A pressure sensor dummy with a mass of 60kg to be tested is loaded into the system to accurately obtain the pressure data generated by the dummy on the rope during the crossing process. The rope equipment to be tested is firmly connected to the dummy, and tension sensors and pressure sensors are accurately installed at both ends of the rope and at the key contact points between the dummy and the rope to ensure that the mechanical state of the rope during the crossing process can be fully monitored.

[0071] After the preparations are completed, the rope crossing test is performed. During the crossing process, the test system collects dynamic data strictly in time series. As time goes by, the tension sensor and pressure sensor continue to record data, thereby generating tension sequence data and pressure sequence data. These data accurately reflect the changes in tension and pressure that the rope is subjected to at different times during the crossing process, providing rich original materials for subsequent in-depth analysis.

[0072] After obtaining the tension sequence data, the peak extraction work was immediately carried out to accurately identify and extract the tension peaks from the tension sequence data. These peaks represent the maximum tension moment that the rope bears during the crossing process. Based on these data, the second dynamic tension curve was drawn using drawing software. The curve clearly presents the change trend of tension during the crossing time process, including the size of the peak, the time node of occurrence, and the frequency and amplitude of tension fluctuations, which intuitively shows the dynamic changes in the tensile performance of the rope.

[0073] For the pressure sequence data, a force uniformity analysis is performed. By calculating statistical indicators such as the standard deviation and coefficient of variation of the pressure distribution, the uniformity of the pressure on the contact surface between the dummy and the rope is determined. According to the analysis results, a second pressure distribution diagram is drawn, which shows the distribution of pressure at different positions in an intuitive graphical way, which helps to judge the force balance of the rope when it is under load. Finally, the second dynamic tension curve diagram and the second pressure distribution diagram are integrated to form the second integrated result. This integrated result comprehensively integrates the tensile and compressive performance of the rope in the crossing application test, and provides a key basis for comprehensively evaluating the performance of the rope in the crossing scenario. The second integrated result is fully added to the fourth test data sensor record. The fourth test data sensor record is specifically used to store the data and analysis results generated during the entire crossing application test, laying a solid data foundation for subsequent in-depth research on rope performance, optimizing rope design, and improving crossing application strategies.

[0074] Embodiment 2 is based on the same inventive concept as the rope technical equipment test under multiple environmental conditions in the previous embodiment. Figure 2 As shown, the present application provides a method for testing rope technology equipment under multiple environmental conditions. The method in the embodiment of the present application and the system embodiment are based on the same inventive concept. The method includes:

[0075] Step S100: Build a target test device, introduce a target test scenario through the target test device, activate the environmental simulation cabin module to set multiple environmental simulation conditions. Step S200: Based on the multiple environmental simulation conditions, connect the rope equipment to be tested to the target test device and activate the mechanical loading module. Step S300: Perform multiple mechanical tests on the rope equipment to be tested in combination with the multiple environmental simulation conditions through the mechanical loading module, and generate a test data sensor record log. Step S400: Evaluate the rope equipment to be tested according to the test data sensor record log, and generate a rope performance evaluation index. Step S500: Perform a test analysis of the rope equipment to be tested according to the rope performance evaluation index, generate a test report, synchronize the test report to the control system module for storage and analysis, and generate optimization suggestions for the rope equipment to be tested through the control system module.

[0076] Furthermore, step S100 also includes: step S110: performing test analysis on the target test equipment based on the target test scenario to obtain target test requirement information. Step S120: traversing the target test requirement information to perform cluster analysis and set up multiple types of environmental simulation cabins. Step S130: connecting the multiple types of environmental simulation cabins for communication and constructing an environmental simulation cabin module. Step S140: starting the environmental simulation cabin module to set multiple environmental simulation parameters according to the target test requirement information. Step S150: associating and combining the multiple environmental simulation parameters to set the multiple environmental simulation conditions.

[0077] Further, step S300 also includes: step S310: based on the mechanical loading module and the multiple environmental simulation conditions, test grouping is performed to determine multiple test scheme groups, and the multiple test scheme groups include a suspension pressure distribution test group, a fall test group, a slope operation test group, and a crossing operation test group. Step S320: based on the multiple environmental simulation conditions, a first environmental simulation condition is extracted, and the suspension pressure distribution test group is executed according to the first environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a first test data sensing record is generated, and there is a corresponding relationship between the first environmental simulation condition and the suspension pressure distribution test group. Step S330: based on the multiple environmental simulation conditions, a second environmental simulation condition is extracted, and the fall test group is executed according to the second environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and a second test data sensing record is generated, and there is a corresponding relationship between the second environmental simulation condition and the fall test group. Step S340: Extract the third environmental simulation condition based on the multiple environmental simulation conditions, execute the slope operation test group according to the third environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and generate a third test data sensing record, and the third environmental simulation condition and the slope operation test group have a corresponding relationship. Step S350: Extract the fourth environmental simulation condition based on the multiple environmental simulation conditions, execute the crossing operation test group according to the fourth environmental simulation condition to perform a mechanical test on the rope equipment to be tested, and generate a fourth test data sensing record, and the fourth environmental simulation condition and the crossing operation test group have a corresponding relationship. Step S360: Integrate the first test data sensing record, the second test data sensing record, the third test data sensing record, and the fourth test data sensing record to generate a test data sensing record log.

[0078] Furthermore, step S320 also includes: step S321: setting a first index based on the overhang pressure distribution test group, traversing the multiple environmental simulation conditions according to the first index, and determining the first environmental simulation condition. Step S322: connecting the dummy to be tested with the rope equipment to be tested according to the first environmental simulation condition, and performing the overhang pressure distribution test to perform dynamic data collection and generate pressure sensing data. Step S323: calculating the pressure dispersion uniformity according to the pressure sensing data, marking the pressure value of the pressure sensing data according to the pressure dispersion uniformity, and constructing a human body pressure distribution map. Step S324: adding the human body pressure distribution map to the first test data sensing record.

[0079] Furthermore, step S330 also includes: step S331: setting a second index based on the fall test group, traversing the multiple environmental simulation conditions according to the second index, and determining the second environmental simulation condition. Step S332: connecting the rope equipment to be tested with the weight to be tested according to the second environmental simulation condition, and performing a fall test to collect dynamic data and generate tension sensing data. Step S333: performing tension fluctuation analysis based on the tension sensing data, generating a tension fluctuation value, and extracting a tension peak value based on the tension fluctuation value. Step S334: drawing a fall curve based on the tension fluctuation value and the tension peak value, and adding the fall curve to the second test data sensing record.

[0080] Further, step S340 also includes: step S341: setting a third index based on the slope operation test group, traversing the multiple environmental simulation conditions according to the third index, and determining the third environmental simulation condition. Step S342: building a slope slide rail according to the third environmental simulation condition, connecting the slider to be tested with the rope equipment to be tested, and performing a slope operation test to perform dynamic data acquisition to obtain multiple tension data and multiple pressure data. Step S343: performing a tensile analysis based on the multiple tension data, determining the tensile performance data, performing a dynamic analysis based on the tensile performance data, and drawing a first dynamic tension curve. Step S344: performing a force analysis based on the multiple pressure data, determining the force uniformity data, performing an analysis based on the force uniformity data, and drawing a first pressure distribution diagram. Step S345: integrating the first dynamic tension curve diagram with the first pressure distribution diagram, and adding the first integration result to the third test data sensor record.

[0081] Furthermore, step S350 also includes: step S351: setting a fourth index based on the crossing application test group, traversing the multiple environmental simulation conditions according to the fourth index, and determining the fourth environmental simulation condition. Step S352: building a crossing system according to the fourth environmental simulation condition, connecting the rope equipment to be tested with the dummy to be tested, and performing rope crossing to perform dynamic data collection according to a time series to generate tension sequence data and pressure sequence data. Step S353: performing peak extraction based on the tension sequence data, drawing a second dynamic tension curve graph, performing force uniformity analysis based on the pressure sequence data, and drawing a second pressure distribution graph. Step S354: integrating the second dynamic tension curve graph with the second pressure distribution graph, and adding the second integration result to the fourth test data sensor record.

[0082] It should be noted that the above-mentioned sequence of the embodiments of the present application is only for description and does not represent the advantages and disadvantages of the embodiments. And the above-mentioned specific embodiments of this specification are described. In addition, the processes depicted in the accompanying drawings do not necessarily require the specific order or continuous order shown to achieve the desired results. In some embodiments, multitasking and parallel processing are also possible or may be advantageous.

[0083] The above description is only a preferred embodiment of the present application and is not intended to limit the present application. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present application should be included in the protection scope of the present application.

[0084] This specification and the drawings are merely exemplary illustrations of the present application and are deemed to cover any and all modifications, variations, combinations or equivalents within the scope of the present application. Obviously, a person skilled in the art may make various modifications and variations to the present application without departing from the scope of the present application. Thus, if these modifications and variations of the present application fall within the scope of the present application and its equivalents, the present application intends to include these modifications and variations.

Claims

1. A test system for rope access equipment under multiple environmental conditions, characterized in that: The system comprises: A target test equipment construction unit, wherein the target test equipment construction unit is used to construct a target test equipment, introduce a target test scenario through the target test equipment, and activate an environmental simulation cabin module to set a plurality of environmental simulation conditions; a mechanical loading module activation unit, which connects the rope equipment to be tested to the target test equipment and activates the mechanical loading module based on the multiple environmental simulation conditions; A mechanical testing unit, the mechanical testing unit is used to perform a variety of mechanical tests on the rope equipment to be tested by combining the mechanical loading module with the multiple environmental simulation conditions, and generate a test data sensor record log; A rope performance evaluation index generating unit, the rope performance evaluation index generating unit is used to evaluate the rope equipment to be tested according to the test data sensor record log and generate a rope performance evaluation index; A test report generating unit, the test report generating unit is used to perform test analysis on the rope equipment to be tested according to the rope performance evaluation index, generate a test report, synchronize the test report to the control system module for storage and analysis, and generate optimization suggestions for the rope equipment to be tested through the control system module.

2. The rope access equipment testing system under multiple environmental conditions according to claim 1, characterized in that: The target test equipment construction unit also includes: Performing test analysis on the target test equipment based on the target test scenario to obtain target test requirement information; Traversing the target test requirement information to perform cluster analysis and setting multiple types of environmental simulation cabins; Connecting multiple types of environmental simulation chambers for communication to construct an environmental simulation chamber module; Start the environmental simulation chamber module to set multiple environmental simulation parameters according to the target test requirement information; The plurality of environmental simulation parameters are associated and combined to set the plurality of environmental simulation conditions.

3. The rope access equipment testing system under multiple environmental conditions according to claim 1, characterized in that: The mechanical testing unit also includes: Perform test grouping based on the mechanical loading module in combination with the multiple environmental simulation conditions to determine multiple test scheme groups, wherein the multiple test scheme groups include a suspension pressure distribution test group, a fall test group, a slope operation test group, and a crossing operation test group; Extracting a first environmental simulation condition based on the multiple environmental simulation conditions, executing the overhang pressure distribution test group to perform a mechanical test on the rope equipment to be tested according to the first environmental simulation condition, and generating a first test data sensing record, wherein the first environmental simulation condition corresponds to the overhang pressure distribution test group; Extracting a second environmental simulation condition based on the multiple environmental simulation conditions, executing the fall test group to perform a mechanical test on the rope equipment to be tested according to the second environmental simulation condition, and generating a second test data sensing record, wherein the second environmental simulation condition corresponds to the fall test group; Extracting a third environmental simulation condition based on the multiple environmental simulation conditions, executing the slope operation test group to perform a mechanical test on the rope equipment to be tested according to the third environmental simulation condition, and generating a third test data sensing record, wherein the third environmental simulation condition corresponds to the slope operation test group; Extracting a fourth environmental simulation condition based on the multiple environmental simulation conditions, executing the crossing operation test group to perform a mechanical test on the rope equipment to be tested according to the fourth environmental simulation condition, and generating a fourth test data sensing record, wherein the fourth environmental simulation condition corresponds to the crossing operation test group; The first test data sensing record, the second test data sensing record, the third test data sensing record, and the fourth test data sensing record are integrated to generate a test data sensing record log.

4. The rope access equipment testing system under multiple environmental conditions according to claim 3, characterized in that: The mechanical testing unit also includes: Setting a first index based on the drape pressure distribution test group, traversing the plurality of environmental simulation conditions according to the first index, and determining a first environmental simulation condition; According to the first environmental simulation condition, the dummy to be tested is connected to the rope equipment to be tested, and a hanging pressure distribution test is performed to collect dynamic data and generate pressure sensing data; Calculating pressure dispersion uniformity according to the pressure sensing data, marking pressure values ​​of the pressure sensing data according to the pressure dispersion uniformity, and constructing a human body pressure distribution map; The human body pressure distribution map is added to the first test data sensing record.

5. The rope access equipment testing system under multiple environmental conditions according to claim 3, characterized in that: The mechanical testing unit also includes: Setting a second index based on the fall test group, traversing the plurality of environmental simulation conditions according to the second index, and determining a second environmental simulation condition; According to the second environmental simulation condition, the rope equipment to be tested is connected to the weight to be tested, and a fall test is performed to collect dynamic data and generate tension sensing data; Performing tension fluctuation analysis according to the tension sensing data to generate a tension fluctuation value, and extracting a tension peak value based on the tension fluctuation value; A fall curve is drawn according to the tension fluctuation value and the tension peak value, and the fall curve is added to the second test data sensing record.

6. The rope access equipment testing system under multiple environmental conditions according to claim 3, characterized in that: The mechanical testing unit also includes: Setting a third index based on the slope operation test group, traversing the plurality of environmental simulation conditions according to the third index, and determining a third environmental simulation condition; Building a slope slide rail according to the third environmental simulation condition, connecting the slider to be tested with the rope equipment to be tested, and performing a slope operation test to collect dynamic data to obtain a plurality of tension data and a plurality of pressure data; Performing tensile analysis based on the plurality of tensile force data to determine tensile performance data, performing dynamic analysis based on the tensile performance data, and drawing a first dynamic tensile force curve graph; Performing force analysis based on the multiple pressure data to determine force uniformity data, and performing analysis according to the force uniformity data to draw a first pressure distribution diagram; The first dynamic tension curve diagram is integrated with the first pressure distribution diagram, and a first integration result is added to the third test data sensing record.

7. The rope access equipment testing system under multiple environmental conditions according to claim 3, characterized in that: The mechanical testing unit also includes: Setting a fourth index based on the crossing operation test group, traversing the plurality of environmental simulation conditions according to the fourth index, and determining a fourth environmental simulation condition; Building a crossing system according to the fourth environmental simulation condition, connecting the rope equipment to be tested with the dummy to be tested, and performing rope crossing to collect dynamic data in time series to generate tension sequence data and pressure sequence data; Perform peak value extraction based on the tension sequence data to draw a second dynamic tension curve graph, and perform force uniformity analysis based on the pressure sequence data to draw a second pressure distribution graph; The second dynamic tension curve diagram is integrated with the second pressure distribution diagram, and a second integration result is added to the fourth test data sensing record.

8. A method for testing rope access equipment under multiple environmental conditions, characterized in that: The method is applied to the rope technical equipment testing system under multiple environmental conditions as described in any one of claims 1 to 7, and the method comprises: Build the target test equipment, introduce the target test scenario through the target test equipment, activate the environmental simulation cabin module and set multiple environmental simulation conditions; Based on the multiple environmental simulation conditions, connecting the rope equipment to be tested to the target test equipment and activating the mechanical loading module; Performing a variety of mechanical tests on the rope equipment to be tested by combining the multiple environmental simulation conditions with the mechanical loading module, and generating a test data sensor record log; Evaluate the rope equipment to be tested according to the test data sensor record log to generate rope performance evaluation indicators; The rope equipment to be tested is tested and analyzed according to the rope performance evaluation index, a test report is generated, the test report is synchronized to the control system module for storage and analysis, and optimization suggestions for the rope equipment to be tested are generated through the control system module.

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