PID 10.6eV 4R+ C03-0912-000 Photoionization (PID) Gas Sensor Module For Industrial Hygiene Monitoring

             PID 10.6eV 4R+ C03-0912-000 Photoionization (PID) Gas Sensor Module For Industrial Hygiene Monitoring

Features:

• High - precision VOC detection: The 10.6 eV UV lamp has strong ionization capacity, which can cover most common VOCs. With a resolution of 0.1 ppm, it can capture trace VOC concentration changes, meeting the requirements of high - precision detection in industrial and environmental fields.
• Seamless matching with RAE devices: It is a dedicated sensor module for RAE Systems' classic gas detectors. It can be directly plugged and used without complex debugging, reducing the difficulty of replacement and maintenance for users.
• Convenient storage and deployment: When used with the SensorRAE 4R+ conditioning station, the sensor can be kept in a preheated and biased state. This avoids the long warm - up time required for conventional sensors to start, and ensures that the sensor can quickly enter the working state in emergency detection scenarios such as hazardous material disposal.
• Reliable quality guarantee: Backed by a 1 - year warranty from RAE Systems, the module has stable structural design and circuit performance, which can maintain reliable operation in harsh industrial environments.

Application Scenarios:

1. Industrial hygiene monitoring: It is used in petrochemical, painting and coating workshops to detect VOC leakage during production and prevent harm to workers' health.
2. Emergency hazardous material response: It is equipped in portable MultiRAE Pro detectors for emergency detection of VOC pollution in accident scenes such as chemical spills, providing data support for rescuers.
3. Environmental quality detection: It is applied to the detection of VOC concentrations in soil remediation sites and indoor decoration sites to evaluate the environmental pollution degree and treatment effect.
4. Military and special fields: It is used in military CBRN (Chemical, Biological, Radiological, Nuclear) detection and explosive ordnance disposal scenarios to identify potential VOC - related risks.