1. Capture Infrared Radiation: The infrared detector receives infrared radiation differences generated by temperature gaps among various objects.
2. Signal Conversion: Convert the collected infrared radiation intensity into electrical signals.
3. Thermal Image Generation: Convert electrical signals into pixels of different colors or grayscale values based on radiation intensity differences, forming a visualized temperature distribution map.

Core Advantages of Infrared Thermal Imaging

1. Non-contact Measurement: No physical contact with measured objects, suitable for hazardous or hard-to-reach working scenarios.
2. Real-time Dynamic Imaging: Supports real-time tracking of object temperature distribution and temperature variations.
3. High Temperature Sensitivity: Capable of capturing extremely tiny temperature differences.
4. All-weather Operation: Stable performance in harsh environments including complete darkness, smoke and heavy dust.

Application Fields of Infrared Thermal Imaging

Industrial Inspection

• Fault diagnosis of electrical equipment (overheated cables, poor electrical contacts, etc.)
• Condition monitoring of mechanical equipment (abnormal bearing temperature, frictional overheating, etc.)

Medical & Healthcare

• Detection of abnormal human body temperature (inflammation, tumors and other lesions)
• Mass fever screening and auxiliary medical diagnosis

Security Surveillance

• Night vision monitoring and target identification
• Border security and defense surveillance

Scientific Research

• Thermodynamic laboratory experiments
• Climate change research

Construction Industry

• Inspection of building thermal insulation performance
• Locating water leakage and thermal bridge defects

Military Sector

• Night target detection for combat missions
• Missile guidance and battlefield reconnaissance

Conclusion