STEP 01
Incident Infrared Light
Define the source, operating band, incidence angle and target signal as optical input conditions.
UNCOOLED INFRARED / R&D
Metasurface encoding
Compact Infrared Spectroscopy Research
Research metasurface control, uncooled infrared detection and computational reconstruction for compact infrared spectroscopy systems.
01 / OPTICAL DESIGN
Optical Structure & System Design
STEP 02
Metasurface Spectral Encoding
Control the optical field through materials, geometry and array design to establish channel encoding responses.
STEP 03
Uncooled Detector Array
Read array or channel signals with coordinated exposure, timing and data interfaces.
STEP 04
Calibration & Spectral Reconstruction
Establish calibration relationships using reference spectra, dark frames and system response measurements.
02 / RESEARCH PATH
From Optical Control to Spectral Output
Metasurface Encoding Structures
Study wavelength-selective responses through subwavelength geometry, materials and array design.
Uncooled Detector Integration
Match spectral response, noise, thermal drift and readout requirements.
System Calibration & Reconstruction
Acquire the response matrix and evaluate reconstruction stability, signal-to-noise ratio and application suitability.
Prototype Evaluation
Define validation against target wavelength, resolution, acquisition speed and environmental conditions.
INFRARED / SYSTEM CHAIN
Infrared Computational Spectroscopy Workflow
STEP 01
Infrared Input & Optical Path
Match windows, lenses and acquisition methods to the target band and sample while controlling background radiation and stray light.
STEP 02
Metasurface Spectral Encoding
Encode incident light with micro/nano elements of different spectral responses; study channel differentiation, efficiency and angular dependence.
STEP 03
Uncooled Detection & Readout
Match the array, integration time and readout electronics in an uncooled architecture to acquire channel signals.
STEP 04
Background & Drift Compensation
Use dark frames, reference inputs and temperature data to compensate background and drift and assess nonuniformity effects.
STEP 05
System Response Calibration
Measure the response matrix with suitable infrared sources and reference instruments, recording wavelength, intensity and environmental conditions.
STEP 06
Reconstruction & Validation
Estimate spectra from encoded signals and evaluate resolving ability, error and repeatability using independent samples or reference spectra.
Research Evaluation Criteria
Infrared prototype evaluation: operating band, encoding channels, signal-to-noise ratio, thermal drift, reconstruction error, acquisition speed and repeatability.
CONTACT
Technical Enquiries
& Collaboration.
Contact us for product selection, development
and project collaboration.
TECHNICAL COLLABORATIONBD@zhongkeyaoguang.com ↗
266 Fangzheng Avenue, High-tech Park, Liangjiang New Area, Chongqing, China
Zhongke Yaoguang (Chongqing) Optoelectronics Technology Co., Ltd.