Use this resource hub to learn why hyperspectral imaging is used, how hyperspectral cameras work, and how to select a hyperspectral camera for laboratory research, industrial inspection, material identification, agriculture, pharmaceuticals, recycling, and semiconductor-related applications.
For product details, start with Pembroke Instruments' hyperspectral imaging systems. For related imaging platforms, compare SWIR cameras and spectrometers.
These guide pages help engineers and researchers understand the value of hyperspectral imaging and choose the right system architecture for their application.
Learn where hyperspectral imaging adds value over standard visible, NIR, SWIR, and thermal cameras by revealing spectral signatures, chemical differences, moisture variation, contamination, coatings, and material composition.
ApplicationsMaterial IDSpectral Contrast
Read Why Use Hyperspectral Imaging? →
Compare snapshot, pushbroom, VNIR, SWIR, extended-SWIR, laboratory, inline, and OEM configurations. Use this guide to define wavelength range, spectral resolution, spatial resolution, field of view, sample motion, optics, illumination, and software needs.
Selection GuideSnapshotPushbroom
Read How to Select a Hyperspectral Camera →Pembroke Instruments supplies hyperspectral imaging systems for snapshot imaging, pushbroom scanning, VNIR, SWIR, and extended-SWIR applications. For the complete portfolio, visit the hyperspectral imaging systems product page.
Snapshot hyperspectral systems are useful when the scene is moving, when single-exposure capture is required, or when compact integration is important.
View Snapshot Hyperspectral Products →
Pushbroom hyperspectral systems are well suited for conveyor inspection, scanning stages, material sorting, geology, agriculture, and laboratory mapping.
View Pushbroom Hyperspectral Products →
Hyperspectral wavelength range should be matched to the material: VNIR for visible/NIR features, SWIR for polymers, minerals, moisture, coatings, and semiconductors, and extended SWIR for longer-wavelength spectral signatures.
Compare Hyperspectral Wavelength Ranges →Use these pathways to connect the resource hub to real-world applications. Each topic can route visitors deeper into application content and then back to product selection.
Identify plastics, minerals, coatings, powders, composites, and other materials using spectral fingerprints and wavelength-dependent contrast.
Explore Hyperspectral Applications →
Evaluate crop condition, moisture, contamination, produce quality, and sorting decisions using spatially resolved spectral data.
View Food & Agriculture Applications →
Support non-destructive sample analysis, coating inspection, active ingredient distribution studies, and biomedical research workflows.
View Pharmaceutical & Biomedical Applications →
Separate materials that appear similar in visible light but have different spectral responses in VNIR, NIR, or SWIR wavelengths.
View Recycling & Sorting Applications →
Use SWIR and hyperspectral contrast to inspect materials, coatings, devices, and process-related features that are not visible with standard cameras.
Compare SWIR Cameras →
Use pushbroom hyperspectral imaging for continuous inspection where samples move through a controlled field of view.
View Inline Hyperspectral Systems →Hyperspectral imaging overlaps with SWIR cameras, optics, spectrometers, illumination, and application engineering. These related pages help users connect the right technology to the measurement goal.
Learn about SWIR imaging physics, optics, camera selection, setup, calibration, and real-world SWIR applications.
Explore SWIR Resources →
Review snapshot and pushbroom camera architectures, data cubes, spectral signatures, and the differences between acquisition methods.
Review Camera Selection Concepts →
For point spectroscopy, wavelength calibration, and complementary spectral measurements, explore Pembroke's spectrometer product families.
View Spectrometers →Pembroke Instruments can help match the hyperspectral camera architecture, wavelength range, optics, illumination, software workflow, and integration approach to your material, sample motion, field of view, and measurement objective.
Start with the hyperspectral imaging systems product page, compare why hyperspectral imaging is used, or review how to select a hyperspectral camera.