Current situation evaluation method and system for evaluating injury receiving level of employee worker
Through real-time monitoring and data analysis, combined with high-precision sensor equipment, the level of exposure of workers in employers to occupational disease hazard factors is evaluated, and the problem of lack of real-time monitoring and quantitative analysis in the existing technology is solved, and the scientific basis for accurate assessment of occupational disease hazard factors and control measures is achieved.
Patent Information
- Application Number
- CN202411735304.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-29
- Publication Date
- 2025-04-11
AI Technical Summary
The existing technology cannot comprehensively and accurately evaluate the distribution of occupational disease hazard factors in employers and its impact on workers' health, and lacks real-time monitoring and quantitative analysis capabilities.
Using real-time monitoring and data analysis methods, through portable monitoring equipment equipped with high-precision sensors, the level of workers' exposure to occupational disease hazard factors is monitored and evaluated in real time, the contact level is calculated and compared with the national standard limit, and the corresponding measures are taken in real time.
Real-time monitoring and accurate assessment of occupational disease hazard factors has been achieved, and scientific basis is provided to take control measures to ensure the health of workers and comply with relevant regulations and standards for occupational disease prevention and control.
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Abstract
Description
Technical Field
[0001] The present invention belongs to the field of occupational health evaluation of employing units, and specifically relates to a current status evaluation method, system and monitoring equipment for evaluating the level of exposure of employees of employing units. Background Art
[0002] With the acceleration of industrialization, many employers have various occupational hazards in their production environments, such as harmful chemicals, noise, dust, etc. Long-term exposure to these hazards will not only affect the health of workers, but may also lead to occupational diseases in severe cases. Therefore, how to effectively evaluate the occupational health status of employers and take timely control measures has become an important task to protect the health of workers and prevent and control occupational diseases.
[0003] At present, most of the existing occupational disease hazard assessment methods rely on traditional questionnaires and regular health examinations. Although these methods reflect the employer's occupational disease prevention and control work to a certain extent, they lack real-time monitoring and quantitative analysis of occupational disease hazard factors in the actual working environment, especially the lack of dynamic monitoring of the intensity and duration of exposure to hazard factors. Therefore, the existing technology cannot comprehensively and accurately assess the distribution of occupational disease hazard factors of employers and the impact of these factors on the health of workers.
[0004] In recent years, as the country pays more and more attention to the health rights and interests of workers, workers' health concepts have gradually changed from occupational disease treatment to occupational disease prevention. The current status evaluation of occupational disease hazard factors has become one of the important means to prevent occupational diseases. Through the current status evaluation, it is possible to accurately identify the occupational disease hazard factors in the working environment of the employer, clarify their degree of hazard, and evaluate the effectiveness of occupational disease protection facilities and management measures, thereby providing a scientific basis for the daily occupational disease prevention and control management of the employer, and providing data support for the health administrative supervision department to implement occupational health supervision.
[0005] However, at present, most of the current evaluation methods for occupational hazard factors in my country are still based on the checklist method, combined with on-site test results for evaluation. This method can usually only simply classify and summarize occupational hazard factors, and cannot accurately evaluate the occupational hazard risks of employers. Existing methods can often only reflect the employer's compliance with the current national laws and regulations and standards in terms of occupational hazard prevention and control, but cannot provide a comprehensive and dynamic evaluation, lacking real-time monitoring of risk factors and risk quantification.
[0006] Therefore, there is an urgent need for a new method that can comprehensively and dynamically evaluate the occupational disease hazard factors of employers. Summary of the invention
[0007] The purpose of the present invention is to address the deficiencies in the prior art and to provide a method, system and monitoring equipment for evaluating the current status of the occupational disease hazard level of employees of an employer by comprehensively evaluating the occupational disease hazard factors in the working environment through real-time monitoring and data analysis, quantifying the exposure level of employees, and timely judging their health risks, thereby providing a scientific basis for taking corresponding control measures.
[0008] In order to solve the above technical problems, the technical method adopted by the present invention is: a current status evaluation method for evaluating the level of exposure of employees of an employer, comprising the following steps:
[0009] S1. Collect basic information of the employer: By analyzing the production and operation history of the employer and the existing occupational health survey data, understand the basic occupational health status of the employer; by analyzing the production and operation conditions of the employer and the above collected data, understand the distribution of occupational disease hazard factors of the employer;
[0010] S2. Evaluate the employer's occupational disease hazard factor data: Use portable monitoring equipment equipped with high-precision sensors to monitor the intensity level of occupational disease hazard factors that employees are exposed to in real time in the employer's workplace to obtain initial data;
[0011] S3. Develop an evaluation plan for the current status of occupational disease hazard factors in employers:
[0012]
[0013] In the formula, C 接触 C is the level of workers’ exposure to occupational disease hazards; 实际 The concentration actually detected in the workplace to which workers are actually exposed during work; 实际 The time of contact during the worker's work; 标准限值 Nationally mandated workplace exposure limits;
[0014] S4. Result judgment: If C 接触 Less than 1 means that the level of workers’ exposure to the chemical is within an acceptable range;
[0015] When C 接触 =0.5, indicating that the worker's exposure to the chemical is half of the standard limit, indicating that the risk of worker exposure to the chemical is relatively low, but continuous monitoring is still required;
[0016] When C 接触 When it is greater than 1, it means that the level of workers' exposure to the chemical exceeds the standard limit, the risk is high, and measures need to be taken to reduce the exposure level.
[0017] Furthermore, the basic information of the employer collected in step S1 includes the following contents: the personnel composition and job responsibilities of the employer, the production equipment, production process and types of occupational hazard factors that may be involved of the employer, and the employer's past occupational disease prevention and control records; the employer's past occupational disease prevention and control records include employee health files, historical health monitoring results, and occupational disease incidence rates.
[0018] Furthermore, the real-time monitoring data in step S2 includes the following:
[0019] Real-time monitoring of the concentration of harmful chemicals in the air, including but not limited to toxic gases, dust, and noise;
[0020] Real-time monitoring of air temperature, humidity, and air pressure environmental parameters;
[0021] Real-time monitoring of workers’ physiological parameters such as body temperature, heart rate, and respiratory rate to assess the health risks of their working environment.
[0022] Furthermore, the status evaluation scheme in step S3 includes the following contents:
[0023] According to the work characteristics of different positions, set different monitoring cycles and data collection frequencies;
[0024] In different production environments, different standard limits are used for comparison based on monitoring data;
[0025] Use charts and data analysis to show the time distribution and concentration levels of workers' exposure to occupational disease hazards.
[0026] Furthermore, the result determination in step S4 also includes the following contents:
[0027] When C exposure is less than 0.5, it means that the level of workers’ exposure to the chemical is very low and the risk is small, so regular monitoring is sufficient;
[0028] When C exposure is between 0.5 and 1, workers should be given appropriate occupational health examinations and the management and monitoring of the working environment should be strengthened;
[0029] When C exposure is greater than 1, immediate improvement measures are required to optimize the ventilation system in the workplace, provide personal protective equipment, or adjust work shifts to ensure the health and safety of workers.
[0030] Furthermore, the monitoring equipment in step S2 includes the following:
[0031] Electrochemical sensors for detecting concentrations of hazardous gases in the workplace;
[0032] Optical sensors to monitor harmful dust concentrations in the air;
[0033] Temperature and humidity sensors are used to monitor the impact of environmental conditions on occupational hazards;
[0034] Wireless transmission module, used to transmit real-time data to a central control system or database for storage and analysis.
[0035] The present invention also discloses a status evaluation system for evaluating the level of exposure of employees of an employer, comprising the following components:
[0036] Data collection unit, used to collect basic information of employers and production environment monitoring data;
[0037] A sensor unit, comprising at least one sensor for detecting harmful chemicals, dust, noise or other occupational hazard factors, wherein the sensor unit transmits data to a processor via wireless or wired communication;
[0038] A processor unit for executing the steps of any one of claims 1 to 6 by receiving real-time data from the sensor unit and calculating the worker's exposure level;
[0039] The processor unit comprises:
[0040] A data receiving module, used for receiving real-time monitoring data and historical data from the sensor unit;
[0041] The data processing module is used to pre-process the received data, including denoising, calibration, and unit conversion;
[0042] The calculation module is used to calculate the product of concentration and time for each exposure event and calculate the Calculate exposure levels;
[0043] The determination module determines whether the contact level exceeds the standard limit according to the calculation results. If it exceeds, an alarm signal is triggered; the storage module is used to store historical monitoring data, calculation results and alarm records;
[0044] A control module, used for controlling the output of the display and alarm unit according to the determination result;
[0045] Display and alarm unit, used to display the worker's exposure level in real time and send out an alarm signal when the exposure level exceeds the standard limit;
[0046] The data storage unit is used to store historical monitoring data and calculation results for easy traceability and analysis. The data storage unit can be connected to an external cloud storage system to achieve remote storage and management.
[0047] Furthermore, the computing module of the processor specifically performs the following steps:
[0048] SA1. Receive real-time detection data from the sensor unit and calculate the product of concentration and contact time in each time period;
[0049] SA2. Add the exposure in each time period to obtain the total exposure;
[0050] SA3. Convert according to working hours to obtain the average exposure per hour;
[0051] SA4. Divide the calculated exposure by the standard limit to obtain the worker's exposure level;
[0052] SA5. If the exposure level is greater than the standard limit, an alarm signal is triggered.
[0053] Furthermore, the sensor unit comprises:
[0054] Electrochemical sensors to measure gas concentrations;
[0055] Laser dust sensor, used to monitor dust concentration in the air;
[0056] Sound level meters, used to measure noise intensity;
[0057] Ambient temperature and humidity sensors are used to monitor the impact of environmental conditions on occupational hazards.
[0058] The present invention also discloses a monitoring device applicable to the above-mentioned current status evaluation method or system for evaluating the level of exposure of employees of an employer, comprising: at least one sensor unit for detecting the concentration of harmful substances and related environmental parameters;
[0059] at least one processing unit for receiving the signal from the sensor unit and calculating the worker's exposure level according to a preset algorithm; a display unit for displaying the detection results in real time and triggering an alarm when the exposure level exceeds the standard limit;
[0060] The data storage unit is used to store historical monitoring data and calculation results for easy traceability and analysis.
[0061] Beneficial effects:
[0062] By using the current situation evaluation method proposed in the present invention, one or more occupational hazard factors in the workplace can be monitored in real time, quantitatively analyzed, and accurately evaluated, thereby truly reflecting the specific impact of occupational hazard factors in the workplace of the employer on the health of workers. This technical solution can not only provide a more scientific and accurate basis for the occupational disease prevention and control of employers, but also provide strong support for the standardization and normalization of occupational disease prevention and control and occupational health management. Specifically, the present invention has the following advantages:
[0063] 1. Compared with the existing technology, this method can accurately assess the level of workers' exposure to occupational disease hazards through real-time monitoring data and calculation formulas, avoiding the subjectivity and roughness of traditional methods.
[0064] 2. Scientific risk assessment: By developing a standard assessment plan, we can scientifically determine the health risks of workers and take appropriate control measures in a timely manner according to the exposure level to protect the occupational health of workers.
[0065] 3. High degree of automation, enabling multi-dimensional monitoring: The system automatically collects, analyzes and evaluates data, reducing the possibility of human intervention and improving efficiency and accuracy; it not only monitors hazardous factors such as harmful gases and dust, but also evaluates parameters such as environmental temperature and humidity, providing support for a comprehensive assessment of health risks in the working environment. DETAILED DESCRIPTION
[0066] The present invention provides a scientific, real-time and accurate current status evaluation method and system for evaluating the exposure level of employees of employers. Through real-time monitoring, data analysis and risk assessment, it effectively provides decision support for occupational health management for employers, helps to improve the working environment, protect the health of workers, and comply with relevant laws and regulations and standards for occupational disease prevention and control.
[0067] Embodiment 1: A current status evaluation method for evaluating the level of exposure of employees of an employer
[0068] A method for evaluating the current status of the level of exposure of employees of an employer comprises the following steps:
[0069] S1. Collect basic information of the employer: By analyzing the production and operation history of the employer and the existing occupational health survey data, understand the basic occupational health status of the employer; by analyzing the production and operation conditions of the employer and the above collected data, understand the distribution of occupational disease hazard factors of the employer;
[0070] The basic information of the employer collected in step S1 includes the following: the personnel composition and job responsibilities of the employer, the production equipment, production process and types of occupational hazard factors that may be involved of the employer, and the employer's past occupational disease prevention and control records; the employer's past occupational disease prevention and control records include employee health files, historical health monitoring results, and occupational disease incidence rates.
[0071] S2. Evaluate the employer's occupational disease hazard factor data: Use portable monitoring equipment equipped with high-precision sensors to monitor the intensity level of occupational disease hazard factors that employees are exposed to in real time in the employer's workplace to obtain initial data;
[0072] The real-time monitoring data in step S2 includes the following:
[0073] Real-time monitoring of the concentration of harmful chemicals in the air, including but not limited to toxic gases, dust, and noise;
[0074] Real-time monitoring of air temperature, humidity, and air pressure environmental parameters;
[0075] Real-time monitoring of workers’ physiological parameters such as body temperature, heart rate, and respiratory rate to assess the health risks of their working environment.
[0076] S3. Develop an evaluation plan for the current status of occupational disease hazard factors in employers:
[0077]
[0078] In the formula, C exposure is the level of occupational disease hazard factors that workers are exposed to; C actual is the concentration actually detected in the workplace to which workers are actually exposed during work; t actual is the time of exposure during work; C standard limit is the workplace exposure limit specified by the state;
[0079] The current situation evaluation scheme in step S3 includes the following contents:
[0080] According to the work characteristics of different positions, set different monitoring cycles and data collection frequencies;
[0081] In different production environments, different standard limits are used for comparison based on monitoring data;
[0082] Use charts and data analysis to show the time distribution and concentration levels of workers' exposure to occupational disease hazards.
[0083] S4. Result determination: If C exposure is less than 1, it means that the worker’s exposure level to the chemical substance is within an acceptable range;
[0084] When C exposure = 0.5, it means that the worker's exposure level to the chemical is half of the standard limit, indicating that the risk of worker exposure to the chemical is relatively low, but continuous monitoring is still required;
[0085] When C exposure is greater than 1, it means that the level of worker exposure to the chemical exceeds the standard limit, the risk is high, and measures need to be taken to reduce the exposure level. Improvement measures should be taken immediately to optimize the ventilation system in the workplace, provide personal protective equipment, or adjust work shifts to ensure the health and safety of workers.
[0086] Furthermore, when C exposure is less than 0.5, it means that the level of workers’ exposure to the chemical is very low and the risk is small, so regular monitoring is sufficient;
[0087] When C exposure is between 0.5 and 1, appropriate occupational health examinations should be conducted on workers, and the management and monitoring of the working environment should be strengthened.
[0088] Example 1.C 接触 <1 Example and calculation process and suggestions
[0089] Suppose a worker is exposed to another chemical during a work week.
[0090] The actual concentration of the chemical substance detected in the workplace C 实际 and t 实际 as follows:
[0091] Tuesday: C 实际1 =1mg / m 3 , contact time t 实际1 = 3 hours;
[0092] Thursday: C 实际2 =0.5mg / m 3 , contact time t 实际2 =2 hours
[0093] The national standard limit value of this chemical substance C standard limit value = 5mg / m 3
[0094] Calculation process:
[0095] First calculate
[0096] Tuesday: C 实际1 *t 实际1 =1mg / m 3 *3 hours = 3 mg / m 3
[0097] Thursday: C 实际2 *t 实际2=0.5mg / m 3 *2 hours = 1 mg hour / m 3
[0098] The product of the concentration of the chemical to which the workers were exposed on Tuesday and Thursday and the exposure time was calculated to obtain the exposure amount in each time period.
[0099]
[0100] Add the exposures on Tuesday and Thursday to get the worker's total exposure for the week, and then calculate
[0101] Since C contact = 0.1 < 1, it means that the level of workers' exposure to the chemical is far below the standard limit and the risk is low. However, it is still necessary to regularly monitor the concentration of chemical substances in the workplace to ensure the continued safety of the working environment.
[0102] Example 2.C 接触 =0.5 implementation examples and calculation process and suggestions
[0103] Suppose a worker in a factory is exposed to a chemical during a work week.
[0104] The actual concentration Cactual of the chemical substance detected in the workplace and the contact time tactual are as follows:
[0105] Monday: C 实际1 =2mg / m 3 , contact time t 实际1 =4 hours
[0106] Wednesday: C 实际2 =3mg / m 3 , contact time t 实际2 =3 hours
[0107] Friday: C 实际3 =1.5mg / m 3 , contact time t 实际3 =2 hours
[0108] The national standard limit value of this chemical substance C standard limit value = 5mg / m 3
[0109] Calculation process:
[0110] First calculate
[0111] Monday: C 实际1 *t 实际1 =2mg / m 3 *4 hours = 8 mg / m3
[0112] Wednesday: C 实际2 *t 实际2 =3mg / m 3 *3 hours = 9 mg / m 3
[0113] Friday: C 实际3 *t 实际3 =1.5mg / m 3 *2 hours = 3 mg / m 3
[0114]
[0115] suggestion:
[0116] Because C 接触 =0.5<1, indicating that the level of workers' exposure to the chemical is below the standard limit and the risk is relatively low. However, we still need to continue to pay attention to the workplace environment to prevent the concentration from increasing.
[0117] Example 3.C 接触 >1 implementation examples, calculation processes and suggestions
[0118] Suppose a worker is exposed to another chemical during a work week.
[0119] The actual concentration Cactual of the chemical substance detected in the workplace and the contact time tactual are as follows:
[0120] Monday: C 实际1 =4mg / m 3 , contact time t 实际1 =5 hours;
[0121] Wednesday: C 实际2 =6mg / m 3 , contact time t 实际2 =4 hours;
[0122] The national standard limit value of this chemical substance C standard limit value = 5mg / m 3
[0123] Calculation process:
[0124] First calculate
[0125] Monday: C 实际1 *t 实际1 =4mg / m 3 *5 hours = 20 mg / m 3
[0126] Calculate the product of the concentration of the chemical substance to which the workers were exposed on Monday and the exposure time to obtain the exposure amount on Monday.
[0127] Wednesday: C 实际2 *t 实际2 =6mg / m 3 *4 hours = 24 mg / m 3
[0128] The product of the concentration of the chemical to which the workers were exposed on Wednesday and the exposure time was calculated to obtain the exposure amount on Wednesday.
[0129]
[0130] Finally calculate the C contact:
[0131] suggestion:
[0132] Since C contact = 1.1>1, this indicates that the level of workers' exposure to the chemical exceeds the standard limit, posing a high health risk. Immediate measures should be taken, such as improving ventilation systems, providing workers with more effective personal protective equipment, etc., and re-evaluating chemical control measures in the workplace to ensure the health and safety of workers.
[0133] Example 2: Current status evaluation system for evaluating the level of exposure of employees to harm in employers
[0134] In this embodiment, the current status evaluation system for evaluating the level of exposure of employees of an employer includes the following main components: a data acquisition unit, a sensor unit, a processor unit, a display and alarm unit, a data storage unit, and a control module. Each component is connected by wired or wireless communication, and works in coordination to achieve real-time data acquisition, processing, analysis, and display.
[0135] 1. Data acquisition unit
[0136] The data collection unit is used to collect basic information of the employer and production environment monitoring data. This unit mainly includes the following contents:
[0137] Basic information of the employer: such as the employer's production equipment, process flow, personnel composition, job responsibilities, etc.
[0138] Production environment monitoring data: including the ventilation system in the workplace, temperature and humidity in the working environment, etc.
[0139] These basic data are collected manually or automatically through external system interfaces (such as enterprise ERP systems) and transmitted to the processor unit.
[0140] 2. Sensor unit
[0141] The sensor unit is one of the core hardware components in the current status assessment system, which is used to monitor occupational disease hazards in the workplace in real time. The unit includes:
[0142] Electrochemical sensor: used to monitor the concentration of harmful gases (such as carbon monoxide, nitrogen oxides, etc.) in real time.
[0143] Laser dust sensor: used to monitor dust concentration in the air.
[0144] Sound level meter: used to measure noise intensity in the workplace.
[0145] Environmental temperature and humidity sensor: used to monitor changes in environmental temperature and humidity and evaluate their impact on occupational disease hazards.
[0146] These sensors transmit the real-time collected data to the processor unit through a wireless transmission module (such as Wi-Fi, Bluetooth or ZigBee). To ensure the accuracy of the data, the sensors can also be automatically calibrated regularly.
[0147] 3. Processor Unit
[0148] The processor unit is the brain of the system and is responsible for receiving and processing data from the sensor units. Its main tasks are:
[0149] Data receiving module: receives data from the sensor unit, including gas concentration, dust concentration, noise intensity, ambient temperature and humidity and other parameters.
[0150] Data preprocessing module: performs preprocessing operations such as denoising, unit conversion, and data calibration on the received data to ensure the accuracy of the data.
[0151] Calculation module: Calculate according to the formula in step S3 to obtain the exposure level of each worker:
[0152]
[0153] The calculation results will reflect the exposure intensity of each worker to occupational hazards and will be compared with the national standard limits.
[0154] Judgment module: Determines whether the contact level exceeds the standard limit based on the calculation results. If it exceeds, an alarm signal is triggered.
[0155] 4. Display and alarm unit
[0156] The display and alarm unit is used to display the worker's exposure level and issue an alarm when the exposure level exceeds the standard limit.
[0157] This unit includes:
[0158] Display screen: Real-time display of each worker’s exposure level and related monitoring data, such as gas concentration, dust concentration, noise intensity, etc.
[0159] Alarm system: When the exposure level exceeds the standard limit, an audible and visual alarm will be issued to remind management personnel to take timely measures.
[0160] 5. Data storage unit
[0161] The data storage unit is used to store historical monitoring data, calculation results, alarm records, etc. The unit supports data backup and export functions to facilitate subsequent analysis and auditing.
[0162] It can be connected to external cloud storage systems to achieve remote storage and data management.
[0163] Supports data encryption and permission management to ensure data security.
[0164] 6. Control module
[0165] The control module is responsible for coordinating the work of various components of the system to ensure that operations such as data collection, processing, display, and alarm are performed in a preset order.
[0166] Embodiment 3: Monitoring device for implementing a current status evaluation method or system for evaluating the level of exposure of employees of an employer
[0167] In order to implement the current situation evaluation method in the present invention, an integrated monitoring device is deployed on site. The device mainly includes a sensor unit, a processing unit, a display unit and a data storage unit, and is designed to monitor occupational disease hazard factors in the working environment in real time and provide real-time feedback to managers.
[0168] 1. Sensor unit
[0169] The sensor unit of the monitoring device includes:
[0170] Electrochemical sensor: used to detect the concentration of harmful gases such as carbon monoxide, nitrogen dioxide, etc.
[0171] Laser dust sensor: used to monitor the concentration of harmful dust in the air.
[0172] Sound level meter: used to detect noise intensity and assess noise risks in the working environment.
[0173] Environmental temperature and humidity sensor: used to measure the temperature and humidity in the environment and evaluate its impact on workers' health.
[0174] All sensors can transmit data in real time to the device's processing unit for subsequent analysis.
[0175] 2. Processing Unit
[0176] The processing unit of the monitoring device includes:
[0177] Data receiving module: receives data from various sensors.
[0178] Data preprocessing module: performs preliminary processing on data, including denoising, unit conversion, etc.
[0179] Calculation module: Use the calculation formula given in the claims to calculate the worker's exposure level and compare it with the national standard limit.
[0180] Alarm module: When the exposure level exceeds the standard limit, the alarm signal is automatically triggered.
[0181] 3. Display unit
[0182] The monitoring equipment is equipped with a high-definition display screen that displays the monitoring results in real time, including key parameters such as gas concentration, dust concentration, noise intensity, temperature and humidity. At the same time, the equipment can display the exposure level of each worker and remind managers in real time whether measures need to be taken.
[0183] 4. Data storage unit
[0184] The monitoring device integrates a data storage unit to store all monitoring data, calculation results and alarm records for subsequent query and analysis. The device supports local storage and remote data backup.
[0185] 5. Control module
[0186] The control module is responsible for managing and coordinating the operation of each part of the equipment. Through the control module, managers can set the working parameters of the equipment (such as monitoring cycle, alarm threshold, etc.) and debug and maintain the monitoring equipment.
[0187] Implementation process
[0188] Hardware deployment: First, according to the production conditions of the employer, sensor units are placed in key locations in the working environment to ensure that all potential occupational hazard factors can be fully monitored.
[0189] Data collection and transmission: The monitoring equipment starts collecting environmental data and transmits it to the processing unit in real time. The processing unit pre-processes the data and calculates the exposure level of each worker.
[0190] Risk assessment and feedback: The calculation results will be displayed in real time on the display unit. If the exposure level exceeds the standard limit, the equipment will send out an alarm signal and initiate corresponding control measures (such as automatically adjusting the ventilation system, prompting to wear personal protective equipment, etc.).
[0191] Data storage and analysis: All monitoring data, calculation results and alarm records will be stored in the data storage unit to facilitate subsequent query and data analysis.
[0192] Summarize
[0193] This embodiment provides a detailed implementation of a monitoring device for implementing the status evaluation method and system of the present invention. The device integrates multiple sensors, real-time data processing and alarm functions to achieve comprehensive monitoring of occupational disease hazards in the workplace, providing an efficient and intelligent occupational health management tool for employers.
[0194] The above shows and describes the basic principles, main features and advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of protection of the present invention is defined by the attached claims and their equivalents.
Claims
1. A method for evaluating the current status of the level of exposure of employees to harm in an employer, characterized in that: The steps include: S1. Collect basic information of the employer: By analyzing the production and operation history of the employer and the existing occupational health survey data, understand the basic occupational health status of the employer; by analyzing the production and operation conditions of the employer and the above collected data, understand the distribution of occupational disease hazard factors of the employer; S2. Evaluate the employer's occupational disease hazard factor data: Use portable monitoring equipment equipped with high-precision sensors to monitor the intensity level of occupational disease hazard factors that employees are exposed to in real time in the employer's workplace to obtain initial data; S3. Develop an evaluation plan for the current status of occupational disease hazard factors in employers: In the formula, C 接触 C is the level of workers’ exposure to occupational disease hazards; 实际 The concentration actually detected in the workplace to which workers are actually exposed during work; 实际 The time of contact during the worker's work; 标准限值 Nationally mandated workplace exposure limits; S4. Result judgment: If C 接触 Less than 1 means that the level of workers’ exposure to the chemical is within an acceptable range; When C 接触 =0.5, indicating that the worker's exposure to the chemical is half of the standard limit, indicating that the risk of worker exposure to the chemical is relatively low, but continuous monitoring is still required; When C 接触 When it is greater than 1, it means that the level of workers' exposure to the chemical exceeds the standard limit, the risk is high, and measures need to be taken to reduce the exposure level.
2. A method for evaluating the current status of the level of exposure of employees to harm in an employer according to claim 1, characterized in that: The basic information of the employer collected in step S1 includes the following: The personnel composition and job responsibilities of the employer, the employer's production equipment, production processes and types of occupational hazard factors that may be involved, and the employer's past occupational disease prevention and control records; the employer's past occupational disease prevention and control records, including employee health files, historical health monitoring results, and occupational disease incidence rates.
3. The current status evaluation method for evaluating the level of exposure of employees to harm in an employer according to claim 1 is characterized in that: The real-time monitoring data in step S2 includes the following: Real-time monitoring of the concentration of harmful chemicals in the air, including but not limited to toxic gases, dust, and noise; Real-time monitoring of air temperature, humidity, and air pressure environmental parameters; Real-time monitoring of workers’ physiological parameters such as body temperature, heart rate, and respiratory rate to assess the health risks of their working environment.
4. The current status evaluation method for evaluating the level of exposure of employees to harm in an employer according to claim 1, characterized in that: The current situation evaluation scheme in step S3 includes the following contents: According to the work characteristics of different positions, set different monitoring cycles and data collection frequencies; In different production environments, different standard limits are used for comparison based on monitoring data; Use charts and data analysis to show the time distribution and concentration levels of workers' exposure to occupational disease hazards.
5. The current status evaluation method for evaluating the level of exposure of employees to harm in an employer according to claim 1 is characterized in that: The result determination in step S4 also includes the following contents: When C exposure is less than 0.5, it means that the level of workers’ exposure to the chemical is very low and the risk is small, so regular monitoring is sufficient; When C exposure is between 0.5 and 1, workers should be given appropriate occupational health examinations and the management and monitoring of the working environment should be strengthened; When C exposure is greater than 1, immediate improvement measures are required to optimize the ventilation system in the workplace, provide personal protective equipment, or adjust work shifts to ensure the health and safety of workers.
6. The current status evaluation method for evaluating the level of exposure of employees to harm in an employer according to claim 1, characterized in that: The monitoring equipment in step S2 includes the following: Electrochemical sensors for detecting concentrations of hazardous gases in the workplace; Optical sensors to monitor harmful dust concentrations in the air; Temperature and humidity sensors, used to monitor the impact of environmental conditions on occupational hazards; Wireless transmission module, used to transmit real-time data to a central control system or database for storage and analysis.
7. A current status evaluation system for evaluating the level of exposure of employees to harm in an employer, characterized in that: Includes the following components: Data collection unit, used to collect basic information of employers and production environment monitoring data; A sensor unit, comprising at least one sensor for detecting harmful chemicals, dust, noise or other occupational hazard factors, wherein the sensor unit transmits data to a processor via wireless or wired communication; A processor unit for executing the steps of any one of claims 1 to 6 by receiving real-time data from the sensor unit and calculating the worker's exposure level; The processor unit comprises: A data receiving module, used for receiving real-time monitoring data and historical data from the sensor unit; The data processing module is used to pre-process the received data, including denoising, calibration, and unit conversion; The calculation module is used to calculate the product of concentration and time for each exposure event and calculate the Calculate exposure levels; The determination module determines whether the contact level exceeds the standard limit according to the calculation results. If it exceeds, an alarm signal is triggered; the storage module is used to store historical monitoring data, calculation results and alarm records; A control module, used for controlling the output of the display and alarm unit according to the determination result; Display and alarm unit, used to display the worker's exposure level in real time and send out an alarm signal when the exposure level exceeds the standard limit; The data storage unit is used to store historical monitoring data and calculation results for easy traceability and analysis. The data storage unit can be connected to an external cloud storage system to achieve remote storage and management.
8. The current status evaluation system for evaluating the level of harm to employees of an employer according to claim 7, characterized in that: The computing module of the processor specifically performs the following steps: SA1. Receive real-time detection data from the sensor unit and calculate the product of concentration and contact time in each time period; SA2. Add the exposure in each time period to obtain the total exposure; SA3. Convert according to working hours to obtain the average exposure per hour; SA4. Divide the calculated exposure by the standard limit to obtain the worker's exposure level; SA5. If the exposure level is greater than the standard limit, an alarm signal is triggered.
9. The current status evaluation system for evaluating the level of exposure of employees to harm in an employer according to claim 7, characterized in that: The sensor unit comprises: Electrochemical sensors to measure gas concentrations; Laser dust sensor, used to monitor dust concentration in the air; Sound level meters, used to measure noise intensity; Ambient temperature and humidity sensors are used to monitor the impact of environmental conditions on occupational hazards.
10. A monitoring device suitable for implementing any one of the methods or systems of claims 1 to 9, characterized in that: include: At least one sensor unit for detecting the concentration of harmful substances and related environmental parameters; at least one processing unit for receiving the signal from the sensor unit and calculating the worker's exposure level according to a preset algorithm; A display unit for displaying the test results in real time and triggering an alarm when the exposure level exceeds the standard limit; The data storage unit is used to store historical monitoring data and calculation results for easy traceability and analysis.