Waveshare Long-wave IR Thermal Camera Module 80×62 Pixels 45° FOV

Name: Waveshare Long-wave IR Thermal Camera Module 80×62 Pixels 45° FOV
Brand: Waveshare
SKU: IOWC-0651
Price: 8959.00 INR
Availability: OutOfStock

₹8,959.00 (Inclusive of all taxes)

Out of Stock

The Waveshare Long-wave IR Thermal Imaging Camera Module is a shutterless 80×62 pixel sensor for Raspberry Pi, providing non-contact temperature monitoring and thermal video streams up to 25 FPS via the 40-pin GPIO header.

Features

80×62 pixel microbolometer/thermopile hybrid sensor for detailed thermal imaging and non-contact temperature measurement from -20°C to 400°C.
Shutterless design enables continuous operation and stable 25 FPS max video stream output without interruption.
Low Noise Equivalent Temperature Difference (NETD) of 150mK ensures precise thermal sensitivity for accurate monitoring.
Direct Raspberry Pi HAT integration via 40-pin GPIO header with included FPC cable for quick prototyping and system integration.
Wide 8–14μm long-wave infrared (LWIR) wavelength range and -20°C to 85°C operating temperature for robust industrial applications.

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Description

The Waveshare Long-wave IR Thermal Camera Module leverages a hybrid microbolometer and thermopile pixel array to capture infrared radiation across an 8–14μm wavelength spectrum. Its 80×62 resolution provides a clear thermal map, converting detected IR distribution into precise surface temperature data and real-time thermal imagery. The shutterless architecture eliminates the need for periodic calibration pauses, supporting uninterrupted thermal video streaming at up to 25 frames per second for dynamic monitoring scenarios.

Designed as a Raspberry Pi HAT, the module interfaces directly via the 40-pin GPIO header, drawing a low 61mA at 5V for energy-efficient operation. It delivers a Noise Equivalent Temperature Difference (NETD) of 150mK, enabling sensitive detection of minute thermal variations. The module is built for industrial environments, with an operational temperature range of -20°C to 85°C and a target measurement range from -20°C to 400°C, suitable for precision thermal analysis and control systems.

Key Features

Hybrid microbolometer and thermopile pixel technology for accurate long-wave infrared detection.
Shutterless design allows for continuous thermal imaging and stable video output without black-frame interruptions.
High frame rate thermal video streaming up to 25 FPS for real-time motion and temperature trend analysis.
Low power consumption of 61mA at 5V, ideal for embedded and portable thermal imaging applications.
Comprehensive software support including Python demos for Raspberry Pi, Android, and Windows host computers.
Wide operational and target temperature ranges for versatile industrial, security, and smart building deployments.

Applications

High-precision, long-term non-contact temperature monitoring in industrial process control.
Infrared thermal imaging devices and smart IR thermometers for building automation.
Smart home and intelligent lighting systems for occupancy and motion detection.
Industrial safety, security, and intruder detection via thermal anomaly sensing.
Small target thermal analysis and heat trend monitoring for predictive maintenance.

Technical Specifications

Sensor Type	Long-wave IR (Microbolometer/Thermopile Hybrid)
Thermal Resolution	80 × 62 Pixels
Field of View (FOV)	45°
Wavelength Range	8–14μm
Frame Rate	Up to 25 FPS (Max)
Noise Equivalent Temp. Difference (NETD)	150mK RMS @ 1Hz
Target Temperature Range	-20°C to 400°C
Operating Temperature Range	-20°C to 85°C
Measuring Accuracy	±2°C (Ambient 10–70°C)
Supply Voltage	5V DC
Operating Current	61mA @ 5V
Interface	40-pin GPIO Header (Raspberry Pi HAT)
Dimensions	Approx. 70mm x 50mm x 20mm (Board)

Frequently Asked Questions

How do I connect and power this thermal camera module to my Raspberry Pi?

Connect the module directly to your Raspberry Pi's 40-pin GPIO header using the included female header. Ensure the board is aligned correctly. Power is supplied through the Raspberry Pi's 5V GPIO pins; no external power source is needed as the module draws approximately 61mA. Use the provided FPC cable if your specific HAT version requires it for data communication between the sensor and the Pi's internal interface.

What software and libraries are available to read thermal data and display images?

Waveshare provides comprehensive Python demo code tailored for Raspberry Pi, available on their wiki. This includes libraries to initialize the sensor, capture raw thermal data arrays, convert readings to temperature values in Celsius, and display false-color thermal images. Additional host computer software for Windows and Android allows for data visualization and basic configuration, supporting real-time video streaming and temperature logging for your applications.

What is the measurement accuracy and how is it affected by ambient conditions?

The module has a typical temperature measurement accuracy of ±2°C when the ambient environment is between 10°C and 70°C. Accuracy can vary outside this range due to sensor drift. The Noise Equivalent Temperature Difference (NETD) of 150mK indicates high sensitivity to small thermal changes. For best results, allow the sensor to stabilize at the operating ambient temperature and avoid rapid environmental shifts or direct airflow on the sensor window during critical measurements.

Can this camera output a real-time video stream and at what frame rate?

Yes, the shutterless design enables continuous thermal imaging. The module supports a maximum output frame rate of 25 frames per second (FPS), providing smooth real-time thermal video. The actual achievable frame rate may depend on your Raspberry Pi model and the processing load of your application software. The Python demo includes examples for capturing and displaying this video stream, which can be used for live monitoring or recording thermal events.

What is the difference between the Basic and Wide Angle versions of this module?

The primary difference is the field of view (FOV). This Basic version offers a 45° FOV, suitable for focused monitoring of specific areas or objects. The Wide Angle version provides a 90° FOV, covering a much broader scene, which is useful for room-level occupancy detection or panoramic thermal surveys. Both versions share the same 80x62 sensor resolution, electrical interface, and core specifications; your choice should be based on the required coverage area for your project.