09,22,2026 17 views
Our company develops and producesWearable Radiation Dose Monitoring System BN-PD01It is a comprehensive fire rescue data collection, transmission, command, and distress positioning and search and rescue system, integrating functions such as firefighter positioning, distress search and rescue, internal attack information registration, and personal radiation dose monitoring. It adopts independently developed MESH self-organizing network and 4G/5G dual channel transmission technology to enhance the reliability of information exchange and data transmission. Used for nuclear radiation accident rescue or disposal sites, personal radiation dose rate and cumulative dose monitoring, with wireless transmission and positioning functions. The system is easy to operate, powerful, excellent in performance, and practical. It can greatly ensure the personal safety of combatants.
The evolution of hazardsTraditional fire rescue mainly deals with physical and chemical combustion risks. But with the development of industrialization and technology, nuclear facilities, biochemical laboratories, hazardous chemical transportation, and even potential terrorist threats have made nuclear radiation, biological pathogens, and chemical toxicity risks a real and potentially catastrophic threat.
The task requirement of "all types of disasters and major emergencies": China's fire rescue team has transformed into a national team and main force to deal with various types of disasters and accidents. This means that their responsibilities are no longer limited to "firefighting", but also encompass "rescue" and "prevention" (preventing and dealing with various disasters). Nuclear, biological and chemical accidents are an important part of the "entire disaster", and dealing with such accidents is a legal responsibility and inevitable requirement given to fire rescue teams in the new era.
hereIn the context of wearable radiation dose monitoring system BN-PD01In the process of nuclear, biological, and chemical (especially for "nuclear" and "radiation") rescue, it plays a core role in "real-time perception, individual protection, and scientific decision-making". It elevates radiation protection from "group, empirical" management to "individual, precise" managementExcellent key equipment.
Its specific functions are reflected in the following aspects:
1、 For individual rescue personnel: the "guardian angel" of life safety
Real time monitoring and warning of danger:
This is the most essential function. The system is capable of real-time and continuous measurement of the radiation dose rate (instantaneous intensity) and cumulative absorbed dose at the wearer's location.
Once entering a high radiation area, the equipment will immediately sound, light, or vibrate an alarm to alert rescue personnel to "danger here, stay away or shorten the stay time as soon as possible". This changes the lag of relying on fixed monitoring equipment or commander's experience judgment, and achieves immediate risk perception at the individual level.
Ensure the health of personnel and prevent excessive exposure:
The principle of rescue in a radiation environment is to conduct rescue under reasonable, feasible, and as low as possible conditions. The system can preset dose alarm thresholds (such as monthly/annual dose limits or single task limits).
When the accumulated dose approaches or reaches the preset value, the equipment will issue a strong alarm, and the commander can use this to force the team member to evacuate the scene, thereby fundamentally avoiding health risks such as acute radiation sickness or long-term cancer caused by excessive exposure.
2、 The 'Smart Brain' of Scientific Scheduling for Rescue Command and Decision making
Realize personnel positioning and dose distribution visualization:
Modern advanced wearable monitoring systems are typically integrated with positioning modules (GPS/Beidou/indoor positioning) and wireless data transmission functions. On the large screen of the command center, you can see in real-time:
lThe precise location of each rescue worker.
lThe radiation dose rate around each of them (forming a dynamic radiation field distribution map).
lTheir cumulative dose data for each individual.
This provides an unprecedented global perspective for command.
Optimize rescue routes and tactics:
The commander can identify "hotspots" (high radiation areas) and relatively safe areas based on the real-time radiation field distribution map, and then command the team to choose the path with the lowest radiation dose to enter and evacuate, achieving "bypassing hotspots and saving dose".
Scientific allocation of human resources (rotation system):
The commander can clearly grasp the radiation dose of each team member. In long-term tasks, priority can be given to rotating team members with higher cumulative doses to the rear for rest, and sending team members with lower doses to take over. This ensures the sustainability of the task while ensuring the lowest average exposure dose for the entire team, in line with the principle of "optimization".
