LWIR 120x90/17μm FPA Thermal Camera Sensor Module Low Power Consumption

Place of Origin Wuhan, Hubei Province, China
Brand Name SensorMicro
Certification ISO9001:2015; RoHS; Reach
Model Number TIMO120
Minimum Order Quantity 1 Piece
Price Negotiable
Payment Terms L/C,T/T
Product Details
Resolution 120x90 Pixel Size 17μm
NETD ≤60mK Spectral Range 8~14μm LW
Focus Mode Fixed Zoom Power Consumption 45mW (Typical Mode); 9mW (Low Power Mode)
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FPA Thermal Camera Sensor Module

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17μM Thermal Camera Sensor Module

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120x90 Thermal Camera Module

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Product Description

Low Power Consumption Uncooled LWIR 120x90 / 17μm FPA Thermal Imaging Camera Core


Product Description


TIMO120 is one of the TIMO series miniature infrared modules. It integrates wafer-level optics, 120x90 / 17μm wafer level package (WLP) detector and basic image processing circuit to quickly obtain thermal images of the target area and heat distribution.


TIMO120 thermal imaging core is oriented for optimized size, weight, power, cost (SWaP-C) infrared imaging applications. Its super miniature structure and ultralow power consumption are convenient to be integrated into various smart devices, thermal imagers or mobile terminals with strict requirements on cost, size and weight.


Now TIMO series thermal cores and modules have been widely used in consumer electronics market. It’s easier for TIMO thermal camera core module to be integrated into more terminal products and greatly reduces the cost of customers.


Main Features


- Minimum WLP infrared module, dimension at 8.5x8.5x9.16mm
- DVP Interface, compatible with various embedded platforms
- Visible camera module equivalent, directly integration
- Complete SDK development kit
- Low power design for extend longer operating time
- Low cost for many kinds of intelligent applications


Product Specifications


Model TIMO-120
IR Detector Performance
Resolution 120x90
Pixel Pitch 17μm
Spectral Range 8~14μm
NETD ≤60mK
Lens Type WLO
Focus Mode Fixed Zoom
HFOV 90°/50°
Depth of Field 10cm to Infinity
Frame Rate 1~30Hz (Customizable)
Temperature Measurement
Temperature Range -20°C ~ +120°C (Customizable)
Temperature Accuracy Customizable (Meet the Requirements of Body or Industrial Thermography)
Interface/Control
AVDD 3.6V±0.05V
VSK/VDET 4.7±0.05V
DVDD 1.8V±0.05V
Interface Digital Interface
Power Consumption 45mW (Typical Mode); 9mW (Low Power Mode)
Physical Characteristics
Dimension (mm) 12x10x5.48 (HFOV=90°); 8.5x8.5x9.16 (HFOV=50°) (The Specifications Shall Prevail)
Operation Temperature -20°C ~ +60°C
Storage Temperature -40°C ~ +85°C


Industrial Applications


The TIMO120 IR sensor module is widely used in many areas, such as Thermography, Intelligent Hardware, Smart Building, Smart Home, AIoT etc.


LWIR 120x90/17μm FPA Thermal Camera Sensor Module Low Power Consumption 0


Standardized Service


Complete Documentation: Product manuals, setup guides, and selection references. Get started without guesswork.

Development & Testing Assistance: Sample Integrated Testing, performance evaluation, and parameter verification made easy.

Advanced Developer Toolkit: SDKs, APIs, algorithms, and debugging tools for deep integration.

Remote Technical Support: 24/7 support—quick response and timely resolution for critical issues.

Warranty: Original parts and strict process adherence to restore optimal performance.


FAQs


1. What is infrared thermal imaging?

Infrared thermal imaging is a method of using infrared radiation and thermal energy to gather information about objects, in order to formulate images of them, or get temperature information of the objects, even in low visibility environments.


2. How does infrared thermal imaging work?
Infrared thermal imaging system is a passive non-contact detection and identification of infrared technology. It focuses the infrared radiation of the scene on the focal plane array infrared detector through the infrared optical system that can pass through infrared radiation. The thermal detector converts the radiation signal of different intensity into the corresponding electrical signal, and then through amplification and video processing, forms the infrared image that can be observed by the naked eyes.