Thermography: Capturing and recording thermal information from a scene using an infrared camera, which is then displayed as a thermogram.
Active and Passive Infrared: Passive systems detect natural radiation emitted by objects, while active systems use an external energy source to enhance the thermal contrast.
Real-time Imaging: Processing the infrared data in real time to provide immediate visualization, useful in dynamic environments.

IR Imaging Key Components and Modules

Infrared Detectors: These sensors detect infrared radiation and are classified primarily into two types: cooled and uncooled detectors.
Optical System: Includes lenses and mirrors specifically designed to transmit infrared rays efficiently to the detector.
Readout Electronics: Convert the analog signals from the detector into digital data that can be processed.
Display Units: Convert the processed data into an image that can be easily interpreted by humans.
Signal Processing Unit: Enhances the image quality through various algorithms (like noise reduction and contrast enhancement).

Thermal Imaging Key Technologies

Microbolometer Technology: Used in uncooled infrared cameras to detect thermal radiation without the need for cryogenic cooling.
Cryogenic Cooling: Used in cooled infrared detectors to improve sensitivity and image resolution by reducing thermal noise.
Thermal Sensitivity (NETD): Measures the smallest temperature difference detectable by the sensor.
Infrared Optics: Development of lenses that minimize absorption and maximize transmission of infrared energy.

Infrared Thermal Imaging Critical Parameters to Evaluate Performance

Thermal Sensitivity (NETD): Lower NETD values indicate better sensitivity to smaller temperature differences.
Spatial Resolution: Determined by the pixel size of the detector; finer resolutions provide more detailed images.
Accuracy: How closely the infrared camera can measure the actual temperature values.
Range of Temperature Measurement: The span of temperatures that the camera can accurately measure.
Response Time: The speed at which the camera can adjust to rapid temperature changes.

Infrared Thermal Imaging Applications

Medical: Diagnosing conditions through the body’s heat patterns, such as vascular disorders or inflammatory diseases.
Industrial: Monitoring equipment or electrical installations to predict failures or detect heat anomalies.
Military and Security: Night vision capabilities and surveillance in complete darkness or through smoke and fog.
Building Inspections: Detecting heat losses, moisture intrusion, and structural integrity through thermal differences.
Research and Development: Used in scientific studies to analyze heat/thermal performance in various fields.

Shape Optics’ unwavering commitment to excellence propels the advancement of Infrared Optical (IR Optical) Modules. With Shape Optics, the unseen is revealed, and mysteries are deciphered. Enhance your innovation trajectory with Shape Optics’ Infrared Optical Module Solutions—redefining the limits of perception. Contact Shape Optics today to begin a transformative journey with our custom Infrared Optical (IR Optical) Module imaging solutions.

Infrared Thermal Imaging

Infrared Telescope

Digital Gun Scope

Visible Gun Scope

Thermal Monocular

Thermal Binocular

Laser Rangefinder

Night Vision Monocular

Night Vision Goggles

Night vision Binocular

Key Techniques of Infrared thermal imaging

IR Imaging Key Components and Modules

Thermal Imaging Key Technologies

Infrared Thermal Imaging Critical Parameters to Evaluate Performance

Infrared Thermal Imaging Applications

2015 All Rights Reserved

Shapeoptics Technologies Holdings

(ACRA UEN NO: 53309758D)

Singapore R&D Lab

Shape Optics Technologies Pte Ltd

ACRA UEN NO: 202014921Z

China Fabrication Plant

无锡锡科光电科技有限公司

Reg: 91320206MA22D264XQ