-
Thermal Camera Core
-
Thermal Security Camera
-
Plug-in Thermal Camera
-
Cooled Infrared Detectors
-
Cooled Camera Modules
-
Optical Gas Imaging
-
Radiometric Thermal Module
-
High Resolution Thermal Camera Module
-
Thermal Camera For Fever Detection
-
Vehicle Mounted Thermal Camera
-
Integrated Dewar Cooler Assembly
-
Uncooled Infrared Detectors
MWIR Cooled Thermal Module with 1280x1024 Resolution and Continuous Zoom Lens 15~300mm/F4 Featuring HOT Technology
| High Definition | 1280x1024 | Pixel Pitch | 10μm |
|---|---|---|---|
| Frame Rate | 50Hz | NETD | 20mK(F2); 25mK(F4) |
| Size | 101×101×54mm | Spectral Range | 3.7~4.8μm MW |
| Highlight | Cooled Thermal Module 1280x1024,750mm Lens Cooled Thermal Module,MWIR Thermal Camera Core |
||
The GAVIN GC1210HMF infrared camera core features a 1280×1024/10μm High Operating Temperature (HOT) mid-wave infrared (MWIR) cooled detector. Compared to traditional 640×512/15μm MWIR solutions, it offers one-third smaller pixel pitch and four times higher resolution array, which dramatically enhances spatial resolution and image clarity. Combined with advanced image processing algorithms, it delivers high-definition, finely detailed infrared imagery at megapixel resolution.
Powered by HOT technology, the GAVIN GC1210HMF infrared camera core significantly enhances SWaP performance by offering a compact size, lightweight design, and low power consumption, making it an ideal solution for long-range infrared systems with strict space and integration requirements.
- Megapixel Imaging, Superior Quality
- Developed based on a 1280×1024/10μm HOT MWIR cooled infrared detector, delivering high-definition and delicate image quality
- Integrated with advanced image processing algorithms such as DRC, 2D/3D noise reduction, and EE edge enhancement for clearer imaging
- HOT Technology for Ultimate SWaP Optimization
- Supports high-temperature operation at 150K, with a cooling time ≤4min
- Compact dimensions down to 101×101×54mm, lightweight at just 570g
- Rich Interfaces, Easy Integration
- Supports Cameralink/USB3.0/GigE/HDMI/SDI/MIPI/fiber optic video outputs
- Flexible RAW/YUV image data output
| Model | GAVIN GC1210HMF HOT MWIR Cooled Infrared Camera Core |
|---|---|
| Indicators | |
| Resolution | 1280×1024 |
| Pixel Size | 10μm |
| Spectral Response | 3.7μm±0.2μm~4.8μm±0.2μm |
| IR Detector NETD(23℃) | 20mK(F2) 25mK(F4) |
| Image Processing | |
| Frame Rate | 50Hz |
| Digital Zoom | 1× to 8× continuous digital zoom |
| Image Direction | Horizontally/Vertically/Diagonally Flip |
| Image Algorithm | DRC, 2D/3D Image Noise Reduction, EE |
| Electrical Characteristics | |
| Digital Video | Standard: DVP Option: Cameralink/USB3.0/GigE/SDI/HDMI/MIPI/Single-mode Optical Fiber/Multi-mode Optical Fiber |
| External Sync | Standard: LV-TTL Option: RS422/LVDS |
| Communication | Standard: USB2.0/LV-TTL Option: RS422/CAN/USB3.0/GigE |
| Power Supply | 12V±1V |
| Steady Power Consumption(23℃) | ≤8W |
| Cooling Time(23℃) | ≤4min |
| Size(mm) | 101×101×54 |
| Weight(g) | ≤570 |
| Operating Temperature | -40℃~+71℃ |
| Optical Lens | |
| Lens Options | Fixed focus: 15mm/F2 Continuous zoom: 15~300mm/F4 30~500mm/F4 |
The GAVIN GC1210HMF thermal infrared camera module is widely used in many areas such as Remote Monitoring System, Flight Vision Enhancement System, Multi-sensor Payload, and other advanced imaging applications.
- Complete Documentation: Product manuals, setup guides, and selection references
- Development & Testing Assistance: Sample Integrated Testing, performance evaluation, and parameter verification
- Advanced Developer Toolkit: SDKs, APIs, algorithms, and debugging tools for deep integration
- Remote Technical Support: 24/7 support with quick response and timely resolution
- Warranty: Original parts and strict process adherence to restore optimal performance
Thermal Sensitivity, also named NETD (Noise Equivalent Temperature Difference), is a key parameter for evaluating medium wave (MWIR) and long wave (LWIR) thermal imaging cameras. It is directly related to the clarity measured by the thermal imager. It is a numerical value representing the signal-to-noise ratio of the temperature difference and measured in milliKelvins (mK). The smaller the thermal sensitivity value, the higher the sensitivity and the clearer the image.
SWaP3 refers to size, weight, power, performance and price. It indicates the technology trend of infrared industry.
DRI usually refers to detection, recognition and identification distance of a thermal imaging system. It is a crucial parameter to judge the performance of the thermal imaging system.
There are currently two types of infrared thermal imaging sensors on the market, cooled and uncooled. Uncooled IR detector operates at ambient temperature. It is based on semi-conductor industry and thus usually can be fabricated in big volume with small size and low cost. Uncooled IR detectors are widely used in portable/handheld/mobile devices. Cooled IR detectors are packaged in a unit that keeps them at an extremely low temperature which shall be supported by a cryo cooler. They are much bigger, more expensive and less reliable than uncooled sensors, mainly due to the complex cooling systems they require. However, the cooled systems are incredibly sensitive and usually work with long focal length optics to achieve long range mission.

