Fire extinguishing training integrated test system and test method

Abstract

The invention discloses a fire extinguishing training integrated test system and method, and the method comprises the steps: employing a test tool for clamping and connecting a cable according to the type of fire extinguishing equipment, and guaranteeing the normal standby of the equipment; in the testing process, the module detection host monitors the state of the equipment through a sensor, the state comprises LED indication and function reaction, and the working state is displayed in real time; if the equipment is normal, the LED lamp is turned on or the screen displays green; if the equipment fails, the LED flickers or the screen displays an abnormal prompt; the system generates a detection report and records equipment information and faults; if the performance is disqualified, the system automatically adjusts subsequent detection steps or prompts tool replacement, and automatically adjusts a detection plan according to a result; according to the fire extinguishing training integrated test system and test method, the test tool and the detection host are connected through the cable, the fire extinguishing equipment is placed in the tool clamping position, operation is carried out according to a specification, information of an LED indicating lamp or a display screen is observed in real time, and whether the equipment function is normal or not is judged.

Description

Technical Field

[0001] The present invention belongs to the field of integrated fire-fighting training testing, and in particular relates to an integrated fire-fighting training testing system and a testing method. Background Art

[0002] The integrated firefighting training test system is a comprehensive equipment and software system primarily used to simulate and test the performance of firefighting systems. It tests the response and effectiveness of fire extinguishers, firefighting equipment, and firefighting systems in various situations by simulating actual fire scenarios. Such systems are commonly used in firefighting training, equipment inspection, and fire safety drills. It is used to simulate different fire scenarios and control hardware equipment. It analyzes data from the firefighting process in real time and generates firefighting effectiveness reports to evaluate system performance and firefighting efficiency. The system simulates different fire scenarios, such as oil fires, electrical fires, and gas fires, adjusting the type, size, and burning rate of the fire source to approximate actual fire conditions. In the simulated fire scenarios, different types of fire extinguishers or firefighting systems are used to extinguish fires, testing their reaction speed, firefighting effectiveness, and extinguishing agent spray range. Real-time data such as temperature, smoke concentration, and pressure are collected during the firefighting process to evaluate the responsiveness and firefighting efficiency of the firefighting system under different conditions. Based on the data collected during the test, the performance of the firefighting equipment is analyzed to identify potential problems and optimize or adjust the equipment.

[0003] However, although the existing integrated fire-fighting training test system and test method have made progress in many aspects, there are still some defects and shortcomings. The existing fire-fighting equipment inspection mostly relies on manual inspection and single equipment testing, which is inefficient and difficult to conduct comprehensive and accurate evaluation. Summary of the Invention

[0004] In response to the shortcomings of the existing technology, the purpose of the present invention is to provide an integrated fire-fighting training test system and test method. By connecting the modular test tooling and the modular detection host through cables, comprehensive testing of fire-fighting equipment can be achieved. By placing the fire-fighting equipment to be tested in the test tooling position and operating according to the instruction manual, the LED indicator light of the equipment or the display information on the modular detection host display screen is observed in real time to determine whether the function of the tested equipment is normal.

[0005] The technical solution adopted by the present invention to solve its technical problem is:

[0006] The integrated fire fighting training test system includes:

[0007] The test fixture module is used to fix the fire extinguishing equipment to be tested in a designated position. Different types of fire extinguishing equipment are equipped with corresponding fixture positions. The fixture adopts a modular design and can be adapted according to different types of fire extinguishing equipment.

[0008] The detection host module is used to receive and process sensor data from the test fixture and display the test results in real time on the display screen. The detection host and the test fixture are connected by a cable;

[0009] Cable connection device module, used to connect the module test fixture to the module detection host to ensure that the data transmission between the modules is not disturbed;

[0010] The display and feedback module is used to display the working status of the tested equipment in real time. It detects whether the equipment is working properly through the LED indicator light or the module's display screen. Based on the test results, the operator determines whether to repair or replace the equipment.

[0011] The integrated test method for fire fighting training includes the following steps:

[0012] Use the corresponding test fixture slot according to the type of fire extinguishing equipment to be tested, place the equipment in the slot, connect the cable connection device to the module detection host, ensure that the cable is stable and undamaged, turn on the module host power, and enter the standby state;

[0013] Follow the steps in the instruction manual to operate the module test host. During the test, the test host uses sensors to monitor the working status of the equipment in real time, including LED light indication and functional response. Based on the real-time information on the display, it can determine whether the equipment is working properly.

[0014] If the equipment is working properly, the LED indicator will light up or the display will show green. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record.

[0015] The system collects and records data during the test in real time and performs data analysis. Operators can maintain or repair the equipment based on the generated reports.

[0016] If the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent inspection steps or remind the operator to replace the test tooling, and automatically adjust the subsequent inspection plan based on the equipment's inspection results.

[0017] Preferably, the corresponding test fixture position is used according to the type of fire extinguishing equipment to be tested, the equipment is placed in the position, the cable connection device is connected to the module detection host, the cable is stable and undamaged, the module host is powered on, and the method of entering the standby state is as follows:

[0018] Equipment placement and card slot adaptation:

[0019] Input variables:

[0020] T = type of fire extinguishing equipment to be tested;

[0021] C(T) = card position of the corresponding type;

[0022] According to the fire extinguisher type T, use the corresponding card position C(T) to place the fire extinguisher in the card position; if the card position does not match, return an error prompt or use a new card position;

[0023] Cable connection device connected to the detection host:

[0024] Input variables:

[0025] D = cable connection device;

[0026] M=module detection host;

[0027] S = connection stability status;

[0028] Operation process:

[0029] S is connected to M through a physical connection C(T), ensuring that cable S=1;

[0030] If S=0, the system will automatically alarm or disconnect the prompt;

[0031] Module host power startup and standby status:

[0032] Input variables:

[0033] P=module host power status;

[0034] S idle =Host standby state;

[0035] Operation process:

[0036] The module host power supply P=1 is turned on and enters the standby state S idle =1;

[0037] If P=0, wait for the power to turn on;

[0038] The formula is:

[0039] Card matching process:

[0040] C(T)=find suitable slot for type T

[0041] Cable connection check:

[0042] S=check cable stability (whether stable and undamaged)

[0043] S=1(if stable and undamaged)else S=0

[0044] Power and standby mode:

[0045] P=1(turn on power)

[0046] S idle =1(enter standby mode).

[0047] Preferably, the module detection host is operated according to the steps in the instruction manual. During the test, the detection host monitors the working status of the equipment in real time through sensors, including LED light indication and functional response. Based on the real-time information on the display screen, the method for identifying whether the equipment is working properly is as follows:

[0048] Detection process input variable definition:

[0049] S = sensor monitoring status;

[0050] LED = LED light status;

[0051] F = functional response status;

[0052] I = display information;

[0053] Step 1: Sensor status monitoring:

[0054] S status =Check sensor status (1 if normal, 0 if abnormal) Step 2: LED indicator

[0055]

[0056] Step 3: Functional response

[0057]

[0058] Step 4: Display Information

[0059]

[0060] Based on the above data, the following formula can be used to determine whether the equipment is working properly:

[0061] Status work =S status ×LED status ×F status ×I status

[0062] If Statuswork =1, it means the equipment is working normally;

[0063] If Status work =0, it means there is a problem or malfunction in the equipment.

[0064] Preferably, if the equipment is working properly, the LED indicator will light up or the display will show a green status. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record as follows:

[0065] Input variable definition:

[0066] led status =LED indicator status;

[0067] I status =Display status;

[0068] E status =Whether the equipment is working properly;

[0069] device_info = device details;

[0070] error_message=error message;

[0071] fault_record=fault record;

[0072] Determine whether the equipment is working properly based on the status of the LED indicator and display:

[0073]

[0074] Among them, LED status =1 means the LED indicator is on normally;

[0075] I status =1 means the display screen shows green status;

[0076] If the equipment is working properly, then E status =1, if a fault occurs, E status =0;

[0077] According to the working status of the equipment status , the system generates a test report and records detailed information:

[0078] report=generate report based on E status =1

[0079] If the equipment is working properly, the report will include: device_info, equipment working properly, and recorded detection time;

[0080] Fault condition:

[0081] report=generate report based on E status =0

[0082] If there is a fault in the device, the report will include: device_info, error_message, fault_record, and record detection time;

[0083] If there is a fault in the equipment, the system will generate and record a fault log:

[0084] fault_record=log failure details including error_message,device_info,timestamp

[0085] Fault records include: error_message, device_info, and detection time.

[0086] As a preferred method, the system collects and records data during the test in real time, performs data analysis, and the operator performs maintenance or repair on the equipment based on the generated report as follows:

[0087] Input variable definition:

[0088] D = data collected in real time during the test;

[0089] E status = Equipment working status;

[0090] I status =Display status;

[0091] led status =LED indicator status;

[0092] device_info = device details;

[0093] error_message=error message;

[0094] maintenance_recommendation=Maintenance Recommendation;

[0095] repair_recommendation=Repair Recommendation;

[0096] During the test, the system collects data in real time. All collected real-time data includes but is not limited to sensor data, LED indication status, and display information;

[0097] Collect data:

[0098] D=collect real-time data from sensors, LED, display screen, and functionality tests

[0099] Analyze the collected data, evaluate the working status of the equipment, and make judgments based on the fault type:

[0100]

[0101] If C status =1, indicating that the equipment is working normally. If E status =0, it means there is a problem with the equipment.

[0102] Will be further analyzed;

[0103] Based on the analysis results, the system generates a test report that includes detailed equipment information, working status, fault information, and maintenance or repair recommendations;

[0104] Report Contents:

[0105]

[0106] If the equipment is working properly, a normal status report will be generated. If there is a fault, the report will include fault description, equipment information, fault record and suggestions;

[0107] Based on the report content, the operator decides whether to perform maintenance or repair according to the analysis results and the recommendations in the report;

[0108] Maintenance or Repair Decisions:

[0109] If E status =1, the operator determines that the equipment is normal and does not require maintenance or repair;

[0110] If E status =0, the operator makes a decision based on the recommendations in the report:

[0111]

[0112] Based on the type of equipment failure, the system generates maintenance or repair recommendations;

[0113] If the equipment requires maintenance:

[0114] perform maintenance=adjust calibration, replace parts, update software, etc.

[0115] If the equipment needs repair:

[0116] perform repair=replace broken components, fix hardware issues, etc..

[0117] As a preference, if the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent test steps or remind the operator to change the test tooling, and automatically adjust the subsequent test plan according to the test results of the equipment as follows:

[0118] Input variable definition:

[0119] P = equipment performance at the current detection stage;

[0120] P threshold = performance standard threshold;

[0121] E status =Current equipment working status;

[0122] T step =Current detection step;

[0123] T next =Subsequent testing steps;

[0124] tooling_status=Test tooling status;

[0125] adjustment_status=Adjustment status;

[0126] repair_recommendation=Recommendation for repair or replacement of tooling;

[0127] adjusted_plan=adjusted testing plan;

[0128] The system collects and identifies the performance of the equipment at the current stage. If the equipment performance is unqualified, it will be judged according to the preset threshold;

[0129] Equipment performance determination:

[0130]

[0131] Among them, P threshold performance standard thresholds for the equipment;

[0132] If the equipment performance fails to meet the requirements, the system will adjust subsequent testing steps based on the results or generate a prompt to remind the operator to replace the test tooling;

[0133] Adjust subsequent detection steps:

[0134]

[0135] If the equipment performance fails to meet the standards and there is a problem with the test fixture, the system will generate a prompt to remind the operator to replace the test fixture;

[0136] Test tooling status judgment:

[0137]

[0138] If there is a problem with the tooling (tooling_status = 0), the system will generate a reminder and notify the operator to replace the test tooling:

[0139]

[0140] The system automatically updates subsequent inspection plans based on current equipment performance results, inspection step adjustments, and the status of test tool changes;

[0141] Adjusted testing plan:

[0142]

[0143] The adjustments include but are not limited to:

[0144] Adjust the testing order;

[0145] Retest certain stages;

[0146] Replace the test tooling;

[0147] Modify the detection parameters.

[0148] Another technical problem to be solved by the present invention is to provide an electronic device, including a memory, a processor, and a computer program stored in the memory and runnable on the processor. When the processor executes the program, it implements the integrated fire-fighting training test system and test method as described above.

[0149] Another technical problem to be solved by the present invention is to provide a computer-readable storage medium having a computer program stored thereon, which, when executed by a processor, implements, for example, an integrated fire-fighting training test system and test method.

[0150] The beneficial effects of the present invention are:

[0151] The system monitors the working status of fire extinguishing equipment in real time through sensors and displays real-time information on the display screen. When there is a fault or abnormality in the equipment, the system will automatically identify the fault type through LED indicators or display screens; if it detects that the equipment performance is unqualified, the system will automatically adjust the subsequent detection steps or remind the operator to replace the test tooling. The system can generate a detection report in real time, record the detailed information and fault records of the equipment, and help operators quickly analyze the problem and take quick measures; the system automatically generates a fault record and records the detailed information of the equipment for later tracking and maintenance. The system performs real-time analysis of the data during the test process, which helps to quickly diagnose equipment faults, thereby ensuring the normal operation and timely maintenance of the equipment; the system's automatic fault judgment and subsequent step adjustment reduce the need for manual labor. The system eliminates interference from other factors, avoiding misjudgments or incomplete detections caused by operator negligence; operates the module detection host according to the instruction manual to ensure that each test follows a unified process and standard, thereby improving the consistency and accuracy of the operation; by ensuring that the cable connection is stable and undamaged, and using the corresponding test tooling, it can avoid the impact of tooling problems on the test results; when it is detected that the equipment performance is unqualified, the system will remind the operator to replace the test tooling or adjust the subsequent steps; the system helps operators to detect equipment problems in a timely manner through real-time monitoring and fault prompts, avoid unqualified equipment from being put into use, enhance the safety of equipment use, and reduce safety hazards caused by improper human operation through automated detection, fault judgment, report generation and data analysis. BRIEF DESCRIPTION OF THE DRAWINGS

[0152] Figure 1 It is a flow chart of the integrated fire-fighting training test system of the present invention. DETAILED DESCRIPTION

[0153] The principles and features of the present invention are described below. The examples provided are intended to illustrate the present invention only and are not intended to limit the scope of the present invention. The following paragraphs describe the present invention in more detail by way of example. The advantages and features of the present invention will become more apparent from the following description and claims.

[0154] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the art to which this invention pertains. The terms used in this specification of the present invention are for the purpose of describing specific embodiments only and are not intended to limit the present invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0155] Example

[0156] The technical solution adopted by the present invention to solve its technical problem is:

[0157] The integrated fire fighting training test system includes:

[0158] The test fixture module is used to fix the fire extinguishing equipment to be tested in a designated position. Different types of fire extinguishing equipment are equipped with corresponding fixture positions. The fixture adopts a modular design and can be adapted according to different types of fire extinguishing equipment.

[0159] The detection host module is used to receive and process sensor data from the test fixture and display the test results in real time on the display screen. The detection host and the test fixture are connected by a cable;

[0160] Cable connection device module, used to connect the module test fixture to the module detection host to ensure that the data transmission between the modules is not disturbed;

[0161] The display and feedback module is used to display the working status of the tested equipment in real time. It detects whether the equipment is working properly through the LED indicator light or the module's display screen. Based on the test results, the operator determines whether to repair or replace the equipment.

[0162] The test fixture module adopts a modular design, which enables it to be flexibly adjusted according to different types of fire-fighting equipment; the detection host module receives and processes sensor data from the test fixture, and can reflect the working status of the fire-fighting equipment in real time; the cable connection device module ensures that data transmission between modules is not interfered with, avoiding loss or errors of test data due to cable damage or poor contact; the display and feedback module provides real-time feedback on the working status of the equipment through LED indicators or display screens; the entire test process is automated and systematized, reducing the impact of human factors on test results, thereby improving detection efficiency and accuracy; the system can record every data and test result during the test process and generate detailed reports; the real-time equipment monitoring and fault feedback mechanism improves the safety of the system, and avoids accidents caused by equipment failures by timely detection and feedback of equipment problems, ensuring the safety of the test process.

[0163] The integrated test method for fire fighting training includes the following steps:

[0164] Use the corresponding test fixture slot according to the type of fire extinguishing equipment to be tested, place the equipment in the slot, connect the cable connection device to the module detection host, ensure that the cable is stable and undamaged, turn on the module host power, and enter the standby state;

[0165] Follow the steps in the instruction manual to operate the module test host. During the test, the test host uses sensors to monitor the working status of the equipment in real time, including LED light indication and functional response. Based on the real-time information on the display, it can determine whether the equipment is working properly.

[0166] If the equipment is working properly, the LED indicator will light up or the display will show green. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record.

[0167] The system collects and records data during the test in real time and performs data analysis. Operators can maintain or repair the equipment based on the generated reports.

[0168] If the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent inspection steps or remind the operator to replace the test tooling, and automatically adjust the subsequent inspection plan based on the equipment's inspection results.

[0169] The solution reduces interference from human operations through automated testing steps, ensuring the accuracy and consistency of test results. The system monitors the working status of the equipment in real time through sensors and provides instant feedback through LED indicators or display screens. The system generates a detailed test report based on the test results, recording the equipment's usage and fault history. If equipment performance is found to be unqualified during testing, the system will automatically adjust subsequent test steps or remind the operator to replace the test tooling to ensure the accuracy of the test results and the normal operation of the equipment. Through real-time monitoring and feedback, the system can respond immediately when equipment problems occur and promptly determine whether the equipment needs to be repaired or replaced. The entire testing process has clear operating procedures and feedback mechanisms to help operators perform equipment testing according to standardized procedures.

[0170] Use the corresponding test fixture slot according to the type of fire extinguishing equipment to be tested, place the equipment in the slot, connect the cable connection device to the module detection host, ensure that the cable is stable and undamaged, turn on the module host power, and enter the standby state as follows:

[0171] Equipment placement and card slot adaptation:

[0172] Input variables:

[0173] T = type of fire extinguishing equipment to be tested;

[0174] C(T) = card position of the corresponding type;

[0175] According to the type of fire extinguisher T, use the corresponding card position C(T) to place the fire extinguisher in the card position;

[0176] If the card position does not match, an error message will be returned or the card position will be re-adopted;

[0177] Cable connection device connected to the detection host:

[0178] Input variables:

[0179] D = cable connection device;

[0180] M=module detection host;

[0181] S = connection stability status;

[0182] Operation process:

[0183] D is connected to M through physical connection C(T), ensuring that cable S=1;

[0184] If S=0, the system will automatically alarm or disconnect the prompt;

[0185] Module host power startup and standby status:

[0186] Input variables:

[0187] P=module host power status;

[0188] S idle =Host standby state;

[0189] Operation process:

[0190] The module host power P=0 is turned on and enters the standby state S idle =1;

[0191] If P=0, wait for the power to turn on;

[0192] The formula is:

[0193] Card matching process:

[0194] C(T)=find suitable slot for type T

[0195] Cable connection check:

[0196] S=check cable stability (whether stable and updated)

[0197] S=1(if stable and undamaged)else S=0

[0198] Power and standby mode:

[0199] P=1(turn on power)

[0200] S idle =1(enter standby mode).

[0201] This solution effectively reduces human intervention and operational errors through automated positioning, cable connection checking, and power management, ensuring a smooth test process. Through real-time sensors and status monitoring, the system can immediately provide feedback on abnormal situations to ensure test accuracy and the normal operation of the equipment. The system can monitor the status of each link in real time, optimize equipment maintenance and testing processes through data collection and analysis, and improve equipment management efficiency. The system enhances the safety of the entire process by monitoring and providing feedback on each step, avoiding safety hazards caused by operational errors or equipment failures.

[0202] Follow the steps in the instruction manual to operate the module test host. During the test, the test host uses sensors to monitor the working status of the equipment in real time, including LED light indication and functional response. Based on the real-time information on the display, the method for determining whether the equipment is working properly is as follows:

[0203] Detection process input variable definition:

[0204] S = sensor monitoring status;

[0205] LED = LED light status;

[0206] F = functional response status;

[0207] I = display information;

[0208] Step 1: Sensor status monitoring:

[0209] S status =check sensor status(1 if normal,0 if abnormal)

[0210] Step 2: LED light indication

[0211]

[0212] Step 3: Functional response

[0213]

[0214] Step 4: Display Information

[0215]

[0216] Based on the above data, the following formula can be used to determine whether the equipment is working properly:

[0217] Status work =S status ×LED status ×F status ×I status

[0218] If Statis work =1, it means the equipment is working normally;

[0219] If Status work =0, it means there is a problem or malfunction in the equipment.

[0220] The solution comprehensively monitors the equipment status through multiple input variables to ensure that every working status of the equipment can be effectively detected; by monitoring various data in real time, the system can promptly alarm or prompt when there is a problem with the equipment, so that the operator can quickly locate the problem and take measures; using the above formula, the system can automatically determine whether the equipment is working properly without manual intervention, which not only improves work efficiency but also avoids human omissions; by recording and monitoring various status data, it can assist in the subsequent maintenance and management of the equipment, identify equipment problems in a timely manner, reduce downtime, and increase the service life of the equipment.

[0221] If the equipment is working properly, the LED indicator will light up or the display will show green. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record as follows:

[0222] Input variable definition:

[0223] led status =LED indicator status;

[0224] I status =Display status;

[0225] E statis =Whether the equipment is working properly;

[0226] device_info = device details;

[0227] error_message=error message;

[0228] fault_record=fault record;

[0229] Determine whether the equipment is working properly based on the status of the LED indicator and display:

[0230]

[0231] Among them, LED status =1 means the LED indicator is on normally;

[0232] I status =1 means the display screen shows green status;

[0233] If the equipment is working properly, then E status =1, if a fault occurs, E status =0;

[0234] According to the working status of the equipment status , the system generates a test report and records detailed information:

[0235] report=generate report based on E status =1

[0236] If the equipment is working properly, the report will include: device_info, equipment working properly, and recorded detection time;

[0237] Fault condition:

[0238] report=generate report based on E status =0

[0239] If there is a fault in the device, the report will include: device_info, error_message, fault_record, and record detection time;

[0240] If there is a fault in the equipment, the system will generate and record a fault log:

[0241] fault_record=log failure details including err_message,device_info,timestamp

[0242] Fault records include: error_message, device_info, and detection time.

[0243] By real-time monitoring of the status of LED indicators and display screens, this solution can determine whether the equipment is working properly at the first time, and generate reports and records based on the results; the system automatically generates detailed inspection reports and fault records based on the working status of the equipment, which reduces the workload of manual recording and makes equipment maintenance and management more efficient and accurate; the system will generate fault logs based on the equipment's fault information to help maintenance personnel analyze the causes of equipment failures and then formulate more effective maintenance plans, reduce equipment downtime, and improve equipment reliability and stability; this solution can provide maintenance personnel with accurate information by generating detailed reports and fault records, which means that maintenance personnel can quickly locate problems, reduce diagnosis time, and improve maintenance efficiency; automatically generated reports and records can reduce human input errors and ensure data accuracy. The system automatically evaluates the working status based on pre-set judgment criteria, which ensures that the judgment of the working status is more scientific and unified.

[0244] The system collects and records data from the test process in real time and performs data analysis. Operators can perform maintenance or repairs on the equipment based on the generated reports as follows:

[0245] Input variable definition:

[0246] D = data collected in real time during the test;

[0247] E status = Equipment working status;

[0248] I status =Display status;

[0249] led status =LED indicator status;

[0250] device_info = device details;

[0251] error_message=error message;

[0252] maintenance_recommendation=Maintenance Recommendation;

[0253] repair_recommendation=Repair Recommendation;

[0254] During the test, the system collects data in real time. All collected real-time data includes but is not limited to sensor data, LED indication status, and display information;

[0255] Collect data:

[0256] D=collect real-time data from sensors, LED, display screen, and functionality tests

[0257] Analyze the collected data, evaluate the working status of the equipment, and make judgments based on the fault type:

[0258]

[0259] If E status =1, indicating that the equipment is working normally. If E status =0, it means there is a problem with the equipment.

[0260] Will be further analyzed;

[0261] Based on the analysis results, the system generates a test report that includes detailed equipment information, working status, fault information, and maintenance or repair recommendations;

[0262] Report Contents:

[0263]

[0264] If the equipment is working properly, a normal status report will be generated. If there is a fault, the report will include fault description, equipment information, fault record and suggestions;

[0265] Based on the report content, the operator decides whether to perform maintenance or repair according to the analysis results and the recommendations in the report;

[0266] Maintenance or Repair Decisions:

[0267] If E status =1, the operator determines that the equipment is normal and does not require maintenance or repair;

[0268] If E status =0, the operator makes a decision based on the recommendations in the report:

[0269]

[0270] Based on the type of equipment failure, the system generates maintenance or repair recommendations;

[0271] If the equipment requires maintenance:

[0272] perform maintenance=adjust calibration, replace parts, update software, etc.

[0273] If the equipment needs repair:

[0274] perform repair=replace broken components, fix hardware issues, etc.

[0275] By collecting test data in real time, the system can promptly understand the equipment's operating status. This data-driven approach ensures that equipment problems are discovered immediately and promptly fed back to operators for assessment. The system automatically generates inspection reports based on real-time data analysis, reducing manual intervention and report generation time. This solution not only provides accurate fault information but also generates corresponding maintenance or repair recommendations based on the fault type. Operators can make reasonable decisions based on the report content, effectively avoiding unnecessary maintenance or repairs and optimizing equipment management processes. The automated generation and storage of fault records helps maintenance personnel accurately track fault history, conduct trend analysis, and implement preventive maintenance measures to reduce equipment downtime. The system automatically generates reports and provides maintenance and repair recommendations, saving operators time and energy, allowing them to focus more on specific equipment maintenance tasks. This efficiency improvement helps improve overall work efficiency and reduce downtime. The system's automatically generated reports and recommendations can effectively reduce manual recording errors, improve data accuracy and consistency, and ensure the scientific and reasonable nature of equipment maintenance decisions.

[0276] If the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent test steps or remind the operator to change the test tooling. The method of automatically adjusting the subsequent test plan based on the test results of the equipment is as follows:

[0277] Input variable definition:

[0278] P = equipment performance at the current detection stage;

[0279] P threshold = performance standard threshold;

[0280] E status =Current equipment working status;

[0281] T step =Current detection step;

[0282] T next =Subsequent testing steps;

[0283] tooling_status=Test tooling status;

[0284] adjustment_status=Adjustment status;

[0285] repair_recommendation=Recommendation for repair or replacement of tooling;

[0286] adjusted_plan=adjusted testing plan;

[0287] The system collects and identifies the performance of the equipment at the current stage. If the equipment performance is unqualified, it will be judged according to the preset threshold;

[0288] Equipment performance determination:

[0289]

[0290] Among them, P threshold performance standard thresholds for the equipment;

[0291] If the equipment performance fails to meet the requirements, the system will adjust subsequent testing steps based on the results or generate a prompt to remind the operator to replace the test tooling;

[0292] Adjust subsequent detection steps:

[0293]

[0294] If the equipment performance fails to meet the standards and there is a problem with the test fixture, the system will generate a prompt to remind the operator to replace the test fixture;

[0295] Test tooling status judgment:

[0296]

[0297] If there is a problem with the tooling (tooling_status = 0), the system will generate a reminder and notify the operator to replace the test tooling:

[0298]

[0299] The system automatically updates subsequent inspection plans based on current equipment performance results, inspection step adjustments, and the status of test tool changes;

[0300] Adjusted testing plan:

[0301]

[0302] The adjustments include but are not limited to:

[0303] Adjust the testing order;

[0304] Retest certain stages;

[0305] Replace the test tooling;

[0306] Modify the detection parameters.

[0307] The system monitors equipment performance in real time, automatically determining whether problems exist based on thresholds and automatically adjusting subsequent steps or alerting operators if non-conformance is detected. Because the system automatically performs performance assessments, tooling inspections, and step adjustments, it reduces the need for manual operation and the possibility of human error. By automatically adjusting subsequent inspection steps, the system can optimize the inspection process based on the specific condition of the equipment and the status of the test tooling. The system can automatically determine the status of the tooling and alert operators to replace it, ensuring that the tools used during the inspection process are always in good working condition. This can avoid inspection errors caused by tooling problems, thereby improving inspection accuracy and equipment performance reliability. The system adjusts inspection steps and parameters based on the cause of the equipment's non-conformance, ensuring a more scientific and reasonable inspection process, reducing the risk of missed inspections or misjudgments, and improving the overall quality and accuracy of the inspection. Based on the data collected by the system and real-time analysis, operators can have a clearer understanding of the equipment's inspection status, tooling issues, and subsequent inspection adjustments. This data-driven decision support helps operators make more accurate judgments and improve inspection efficiency.

[0308] This embodiment also provides an electronic device, including a memory, a processor, and a computer program stored in the memory and executable on the processor. When the processor executes the program, the integrated fire-fighting training test system and test method described above are implemented.

[0309] This embodiment also provides a computer-readable storage medium having a computer program stored thereon. When the program is executed by a processor, the integrated fire-fighting training test system and test method as described above are implemented.

[0310] Those skilled in the art will appreciate that all or part of the processes in the above-mentioned embodiments can be implemented by instructing the relevant hardware through a computer program. The computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in this application can include non-volatile and / or volatile memory. Non-volatile memory can include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory can include random access memory (RAM) or external cache memory. By way of illustration and not limitation, RAM is available in various forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink) DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).

[0311] Those skilled in the art will clearly understand that for the sake of convenience and brevity in description, only the division of the above-mentioned functional units and modules is used as an example. In actual applications, the above-mentioned functions can be distributed and completed by different functional units and modules as needed, that is, the internal structure of the system can be divided into different functional units or modules to complete all or part of the functions described above.

[0312] The above embodiments of the present invention are not intended to limit the scope of protection of the present invention, and the implementation methods of the present invention are not limited thereto. All other modifications, replacements or changes made to the above structures of the present invention based on the above contents of the present invention, in accordance with common technical knowledge and customary means in this field, without departing from the above basic technical ideas of the present invention, should fall within the scope of protection of the present invention.

Claims

1. Fire extinguishing training integrated test system, characterized by: Includes: The test fixture module is used to fix the fire extinguishing equipment to be tested in a designated position. Different types of fire extinguishing equipment are equipped with corresponding fixture positions. The fixture adopts a modular design and can be adapted according to different types of fire extinguishing equipment. The detection host module is used to receive and process sensor data from the test fixture and display the test results in real time on the display screen. The detection host and the test fixture are connected by a cable; Cable connection device module, used to connect the module test fixture to the module detection host to ensure that the data transmission between the modules is not disturbed; The display and feedback module is used to display the working status of the tested equipment in real time. It detects whether the equipment is working properly through the LED indicator light or the module's display screen. Based on the test results, the operator determines whether to repair or replace the equipment.

2. The integrated fire-fighting training test method is characterized by: The following steps are involved: Use the corresponding test fixture slot according to the type of fire extinguishing equipment to be tested, place the equipment in the slot, connect the cable connection device to the module detection host, ensure that the cable is stable and undamaged, turn on the module host power, and enter the standby state; Follow the steps in the instruction manual to operate the module test host. During the test, the test host uses sensors to monitor the working status of the equipment in real time, including LED light indication and functional response. Based on the real-time information on the display, it can determine whether the equipment is working properly. If the equipment is working properly, the LED indicator will light up or the display will show green. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record. The system collects and records data during the test in real time and performs data analysis. Operators can maintain or repair the equipment based on the generated reports. If the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent inspection steps or remind the operator to replace the test tooling, and automatically adjust the subsequent inspection plan based on the equipment's inspection results.

3. The integrated fire-fighting training test method according to claim 2, characterized in that: Use the corresponding test fixture slot according to the type of fire extinguishing equipment to be tested, place the equipment in the slot, connect the cable connection device to the module detection host, ensure that the cable is stable and undamaged, turn on the module host power, and enter the standby state as follows: Equipment placement and card slot adaptation: Input variables: T = type of fire extinguishing equipment to be tested; C(T) = card position of the corresponding type; According to the type of fire extinguisher T, use the corresponding card position C(T) to place the fire extinguisher in the card position; If the card position does not match, an error message will be returned or the card position will be re-adopted; Cable connection device connected to the detection host: Input variables: D = cable connection device; M=module detection host; S = connection stability status; Operation process: D is connected to M through physical connection C(T), ensuring that cable S=1; If S=0, the system will automatically alarm or disconnect the prompt; Module host power startup and standby status: Input variables: P=module host power status; S idlc =Host standby state; Operation process: The module host power supply P=1 is turned on and enters the standby state S idle =1; If P=0, wait for the power to turn on; The formula is: Card matching process: C(T)=find suitable slot for type T Cable connection check: S=check cable stability (whether stable and undamaged) S=1(if stable and undamaged)else S=0 Power and standby mode: P=1(turn on power) S idle =1(enter standby mode)。 4. The integrated fire-fighting training test method according to claim 3, characterized in that: Follow the steps in the instruction manual to operate the module test host. During the test, the test host uses sensors to monitor the working status of the equipment in real time, including LED light indication and functional response. Based on the real-time information on the display, the method for determining whether the equipment is working properly is as follows: Detection process input variable definition: S = sensor monitoring status; LED = LED light status; F = functional response status; I = display information; Step 1: Sensor status monitoring: S status =check sensor status(1 if normal,0 if abnormal) Step 2: LED light indication Step 3: Functional response Step 4: Display Information Based on the above data, the following formula can be used to determine whether the equipment is working properly: Status work =S status ×LED status ×F stutus ×I status If Status work =1, it means the equipment is working normally; If Status work =0, it means there is a problem or malfunction in the equipment.

5. The integrated fire-fighting training test method according to claim 4, characterized in that: If the equipment is working properly, the LED indicator will light up or the display will show green. If there is a fault or problem with the equipment, the LED indicator will flash or an abnormal prompt will be displayed on the display. The system will generate a test report based on the test results and record the detailed information of the equipment and the fault record as follows: Input variable definition: led status =LED indicator status; I status =Display status; E status =Whether the equipment is working properly; device_info = device details; error_message=error message; fault_record=fault record; Determine whether the equipment is working properly based on the status of the LED indicator and display: Among them, LED status =1 means the LED indicator is on normally; I status =1 means the display screen shows green status; If the equipment is working properly, then E status =1, if a fault occurs, E status =0; According to the working status of the equipment status , the system generates a test report and records detailed information: report=generate report based on E status =1 If the equipment is working properly, the report will include: device_info, equipment working properly, and recorded detection time; Fault condition: report=generate report based on E status =0 If there is a fault in the device, the report will include: device_info, error_message, fault_record, and record detection time; If there is a fault in the equipment, the system will generate and record a fault log: fault_record=log failure details including error_message,device_info,timestamp Fault records include: error_message, device_info, and detection time.

6. The integrated fire-fighting training test method according to claim 5, characterized in that: The system collects and records data from the test process in real time and performs data analysis. Operators can perform maintenance or repairs on the equipment based on the generated reports as follows: Input variable definition: D = data collected in real time during the test; E status = Equipment working status; I status =Display status; led status =LED indicator status; device_info = device details; error_message=error message; maintenance_recommendation=Maintenance Recommendation; repair_recommendation=Repair Recommendation; During the test, the system collects data in real time. All collected real-time data includes but is not limited to sensor data, LED indication status, and display information; Collect data: D=collect real-time data from sensors, LED, display screen, and functionality tests Analyze the collected data, evaluate the working status of the equipment, and make judgments based on the fault type: If E status =1, indicating that the equipment is working normally. If E status =0, it indicates that there is a problem with the equipment and further analysis will be conducted; Based on the analysis results, the system generates a test report that includes detailed equipment information, working status, fault information, and maintenance or repair recommendations; Report Contents: If the equipment is working properly, a normal status report will be generated. If there is a fault, the report will include fault description, equipment information, fault record and suggestions; Based on the report content, the operator decides whether to perform maintenance or repair according to the analysis results and the recommendations in the report; Maintenance or Repair Decisions: If E status =1, the operator determines that the equipment is normal and does not require maintenance or repair; If E status =0, the operator makes a decision based on the recommendations in the report: Based on the type of equipment failure, the system generates maintenance or repair recommendations; If the equipment requires maintenance: perform maintenance=adjust calibration, replace parts, update software, etc. If the equipment needs repair: perform repair=replace broken components, fix hardware issues, etc.

7. The integrated fire-fighting training test method according to claim 6, characterized in that: If the equipment performance is detected to be unqualified at a certain stage, the system will automatically adjust the subsequent test steps or remind the operator to change the test tooling. The method of automatically adjusting the subsequent test plan based on the test results of the equipment is as follows: Input variable definition: P = equipment performance at the current detection stage; P threshold = performance standard threshold; E status =Current equipment working status; T step =Current detection step; T next =Subsequent testing steps; tooling_status=Test tooling status; adjustment_status=Adjustment status; repair_recommendation=Recommendation for repair or replacement of tooling; adjusted_plan=adjusted testing plan; The system collects and identifies the performance of the equipment at the current stage. If the equipment performance is unqualified, it will be judged according to the preset threshold; Equipment performance determination: Among them, P threshold performance standard thresholds for the equipment; If the equipment performance fails to meet the requirements, the system will adjust subsequent testing steps based on the results or generate a prompt to remind the operator to replace the test tooling; Adjust subsequent detection steps: If the equipment performance fails to meet the standards and there is a problem with the test fixture, the system will generate a prompt to remind the operator to replace the test fixture; Test tooling status judgment: If there is a problem with the tooling (tooling_status = 0), the system will generate a reminder and notify the operator to replace the test tooling: The system automatically updates subsequent inspection plans based on current equipment performance results, inspection step adjustments, and the status of test tool changes; Adjusted testing plan: The adjustments include but are not limited to: Adjust the testing order; Retest certain stages; Replace the test tooling; Modify the detection parameters.

8. An electronic device, characterized in that: The invention comprises a memory, a processor and a computer program stored in the memory and executable on the processor. When the processor executes the program, the integrated fire-fighting training test method according to any one of claims 2 to 7 is implemented.

9. A computer-readable storage medium having a computer program stored thereon, characterized in that: When the program is executed by a processor, the integrated fire-fighting training test method as described in any one of claims 2 to 7 is implemented.

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