Pro-Lite supplies advanced hyperspectral, multispectral and infrared imaging systems. Our supplier partners are Cubert (real-time, “snapshot” imagers for 355-1650nm), NEO (HySpex “push-broom” hyperspectral line-scan imagers, 400-2500nm), Surface Optics (real-time multispectral imagers), NIREOS (broadband/IR low light hyperspectral imager) and SILIOS (filter-on-chip, multispectral mosaic imagers).
A spectral imager is a hybrid camera-spectrometer where the “image” is a 3D data-cube, and the third dimension corresponds to the spectral information. To understand the technology that drives the different types of multi- and hyperspectral imagers that we offer, and their attributes, we invite you to read our Technical Note on Spectral Imaging Technologies.
Hyperspectral imaging captures hundreds of continuous wavelength bands, while multispectral imaging captures a smaller number of discrete bands. Both are widely used for material analysis, environmental monitoring and advanced imaging applications.
Hyperspectral imaging is ideal for these sectors because it enables precise material identification and remote sensing in high-performance and mission-critical environments.
Hyperspectral imaging improves agricultural efficiency by detecting plant health, composition, and contaminants beyond what is visible to the human eye.
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It enhances quality control by detecting material variations and defects that are invisible in standard inspection processes.
Hyperspectral imaging enables detailed monitoring of ecosystems and environmental changes through spectral data analysis.
It provides accurate identification of minerals and materials, improving exploration and extraction efficiency.
Combining hyperspectral imaging with LiDAR improves mapping accuracy by adding material information to spatial data.
It enhances automated inspection systems by enabling material-based detection rather than just visual inspection.
It provides precise analysis of material properties and surface conditions for quality assurance.
Spectral imaging supports advanced research by enabling non-invasive analysis of biological tissues and compounds.
It enables efficient sorting and identification of materials to improve recycling processes.
It ensures high precision and quality by detecting defects and analysing materials at microscopic levels.
It improves quality control by analysing materials and dyes with high precision.
It enables analysis of underwater materials and ecosystems where conventional imaging is limited.
Hyperspectral imaging captures hundreds of continuous wavelength bands, providing detailed spectral information, while multispectral imaging captures fewer discrete bands, offering faster data capture with less spectral detail.
Choosing the right system depends on factors such as wavelength range, spectral resolution, imaging method (such as push-broom or snapshot), application environment, and integration requirements. Pro‑Lite’s specialists work with customers to recommend the most appropriate solution based on their specific application and performance needs.
The main types include push-broom (line-scan) systems for high-resolution scanning, snapshot cameras for real-time imaging, and tunable filter-based systems for flexible laboratory or OEM applications.
Calibration ensures that spectral measurements are accurate and repeatable, which is essential for reliable data analysis in scientific, industrial, and environmental applications.
A hyperspectral data cube is a three-dimensional dataset where two dimensions represent spatial information and the third dimension represents spectral data, allowing detailed analysis of each pixel.
Yes, certain hyperspectral systems are designed for real-time imaging, making them suitable for dynamic environments, industrial automation, and live monitoring. Pro‑Lite’s team can advise on the most suitable technologies for real-time applications, ensuring the right balance of speed, spectral performance, and system integration.
