通过内联红外热成像在输送带炉中的原点表面温度测量

Overview

This protocol describes the installation of an infrared camera in a conveyor belt furnace for inline thermography. It highlights the advantages of contactless temperature measurement for industrial silicon solar cells.

Key Study Components

Area of Science

• Thermography
• Temperature Measurement
• Industrial Applications

Background

• Traditional thermocouples can damage objects and require production interruptions.
• Inline thermography offers a contactless and real-time measurement alternative.
• Silicon solar cells are processed in inline furnaces.
• Proper camera selection is crucial for accurate temperature measurement.

Purpose of Study

• To evaluate the effectiveness of inline thermography in measuring object temperatures.
• To demonstrate the installation process of an infrared camera in a furnace.
• To assess the spatial surface temperature distribution of silicon solar cells.

Methods Used

• Installation of an infrared camera in a conveyor belt furnace.
• Calibration of the IR camera for accurate measurements.
• Evaluation of temperature distribution on silicon solar cells.
• Comparison of inline thermography with traditional thermocouple methods.

Main Results

• Inline thermography provides real-time, spatially-resolved temperature data.
• Contactless measurement prevents damage to the objects.
• Improved efficiency in monitoring temperature during production.
• Successful calibration enhances measurement accuracy.

Conclusions

• Inline thermography is a viable alternative to thermocouples.
• It allows for continuous production without interruptions.
• The method is particularly effective for monitoring silicon solar cells.

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