LWIR Uncooled Thermal Imaging Module with 384x288 Resolution 17μm Pixel Pitch and 25mm Lens

Place of Origin Wuhan, Hubei Province, China
Brand Name SensorMicro
Certification ISO9001:2015; RoHS; Reach
Model Number COIN417G3
Minimum Order Quantity 1 Piece
Price Negotiable
Payment Terms T/T
Product Details
Resolution 384x288 Power Consumption 0.65W
Spectral Range 8~14μm Pixel Pitch 17μm
NETD ≤30mK/F1.0/25℃ Frame Rate 25/30/50Hz
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Product Description
LWIR Uncooled 384x288 17μm Thermal Imaging Module with 25mm Lens
Product Overview

Equipped with a 384×288 17μm wafer-level packaged infrared detector, the COIN417G3 thermal camera core features NETD≤30mK ultra-high thermal sensitivity and optimized imaging algorithms. With multi-format image output and low power consumption design, this infrared camera core supports flexible lens matching and convenient secondary integration. It is widely adopted for night security monitoring, firefighting rescue, industrial machine vision and vehicle ADAS peripheral systems.

Main Features
  • Comprehensive Functionality, Cost-Effective Design - Developed using a high cost-performance wafer-level packaging detector with integrated advanced image processing algorithms to enhance image quality
  • Outstanding Performance, Superior Imaging - High sensitivity with typical NETD≤30mK and next-generation image algorithms delivering clearer, sharper thermal images
  • Flexible Extension, Rapid Integration - Multiple optical lens options available to suit diverse application scenarios with support for USB2.0/DVP/LVDS/BT.656 image output interfaces and RAW/YUV image data output with serial port control
Product Specifications
ModelCOIN417G3
IR Detectors Indicators
Sensitive MaterialVOx
Resolution384×288
Pixel Size17μm
Spectral Response8μm ~ 14μm
Typical NETD≤30mK/F1.0/25℃
Image Processing
Digital Frame Rate25/30/50Hz
Start-up Time6s
Analog VideoPAL/NTSC
Digital VideoRAW/YUV422
Image AlgorithmNon-uniformity Correction (NUC)
3D Noise Reduction (3DNR)
2D Noise Suppression (DNS)
Dynamic Range Compression (DRC)
Edge Enhancement (EE)
Image Display10 Types (White Hot/Lava/Iron Red/Hot Iron/Medical/Arctic/Rainbow 1/Rainbow 2/Tint/Black Hot)
PC Software
ICC SoftwareModule Control & Video Display
Electrical
Standard External Interface50Pin: DF40C-50DP-0.4V(51), (HRS,Male)
Extension BoardUSB3.0/USB2.0/VPC/USB2.0&VPC
Communication InterfaceTTL-232/USB2.0
Digital Video InterfaceDVP8/DVP16/USB2.0/BT.656/LVDS
Supply Voltage4.5~5.5V
Typical Power Consumption0.65W
Mechanical
Bare Core Size(mm)25.4mm×25.4mm×16.5mm
Bare Core Weight(g)16.6±1
Environmental Adaptability
Operating Temperature-40℃~+70℃
Storage Temperature-45℃~+85℃
Humidity5%~95%, non-condensing
VibrationRandom Vibration, 5.35grms, 3-axis
ImpactHalf Sine Wave, 40g/11ms, Impact Direction X Axis, 3 times
CertificationROHS2.0/REACH
Optical Lens
Optical LensFixed Focus Athermal: 4.8mm/7mm/9.1mm/13mm/19mm/25mm/35mm
Protection LevelIP67(Front Lens)
Industrial Applications

The COIN417G3 thermal imaging module is applied in the field of Industrial Vision, Security Monitoring, Firefighting & rescue, Outdoors, Machine Vision, ADAS etc.

Product Advantages
  • Diverse Product Portfolio - Wide range of product formats including infrared detectors, camera cores, and modules to meet various integration requirements
  • Rich Product Variety - Multiple array resolutions, pixel sizes, wavebands, and lens options combinations provide greater flexibility for diverse applications
  • Outstanding Performance - Clear imaging, compact size, low power consumption, high sensitivity, and strong reliability designed to perform under a wide range of environmental challenges
  • Easy Integration - Multiple interface options make integration straightforward and enable rapid development across multiple application fields
Frequently Asked Questions
Can thermal imaging cameras detect through glass?

You might be surprised to know that thermal imagers often fail to detect through glass.

From a physics point of view, it is difficult to explain the technical reasons for this problem, but its principle is very simple. Essentially, visible light passes through glass, but glass acts like a mirror for infrared wavelengths (which is why thermal imaging camera lenses are often made of germanium or zinc selenide rather than glass).

If you point the thermal imaging camera at a window, the screen won't show the image on the other side clearly, you'll most likely see a blur, and it's likely a blurry reflection of the lens you're holding.

But this is not absolute, some infrared frequencies can pass through glass, and certain types and configurations of glass allow different degrees of infrared light to pass through. For example, car windshields tend to yield better results than standard household glass.