By Photon etc
RIMA is a hyperspectral global microscope delivering spectral and spatial information. This system rapidly provides Raman maps over large megapixel-scale fields of view. Based on high throughput global-imaging filters, RIMA is faster and more efficient than standard point-by-point or line-scan based systems. RIMA APPLICATIONS OVERVIEW: - Perform low-dimensional material analyses like graphene and carbon nanotubes. - Monitor and analyze biological tissues non-invasively. - Identify materials (plastic, metals) and characterize their structure (crystallinity, phase, chemical bond, strain, stress). MEGAPIXEL IMAGES IN MINUTES! TECHNICAL SPECIFICATIONS Excitation wavelength: 532 nm or 660 nm; 785 nm Spectral range: 190 - 4000 cm-1; 190 - 2700 cm-1 Spectral resolution (FWHM): < 7 cm-1 Spectral channels: Continuously tunable Spatial resolution: Sub-micron - limited by the microscope objective NA Camera: Back-illuminated CCD; Back-illuminated deep-depletion CCD Microscope: Upright or inverted Wavelength absolute accuracy: 1 cm-1 Maximum scanning speed: 150 ms per wavenumber X, Y Travel range: 76 mm x 52 mm (with a manual stage) Z Stage resolution: 100 nm Video mode: Megapixel camera for sample visualization Preprocessing: Spatial filtering, statistical tools, spectrum extraction, data normalization, spectral calibration Hyperspectral data format: HDF5, FITS Software: PC (Windows10 - 64-bits) with PHySpec™ control and analysis software (computer included) Dimensions*: ≈ 102 cm x 76 cm x 76 cm Weight: ≈ 80 kg Power requirement: 120 VAC / 12A / 60Hz; 230 VAC / 12A / 50Hz OPTIONS AND ACCESSORIES Objectives magnification: 20X, 40X, 50X, 60X, 100X Spectral range extension: Anti-Stokes Motorized stage: 100 mm x 100 mm travel, 22 nm resolution Camera: EMCCD *Optical table with passive anti-vibration isolation recommended: 900 x 1800 x 60 mm (36 x 72 x 2.4 inches) or 900 x 900 x 60 mm (36 x 36 x 2.4 inches) next to 900 x 900 mm (36 x 36 inches) standard table

Hyperspectral Core Scanner The nCore is a multi-sensor scanning platform designed for drill core analysis. Whether deployed directly on-site or in a laboratory setting, the nCore offers unmatched versatility with modular configuration options tailored to the mining industry's needs. With the capability to integrate up to seven optical sensors, the nCore delivers an unparalleled map of the mineralogy landscape. Powered by Photon etc.'s proprietary hyperspectral imagers, it ensures precise and reliable performance for advanced mineral analysis, making it an indispensable tool for modern mining operations.
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Lecteur de plaques dédié à l’infrarouge à ondes courtes Lecteurs de plaques SWIR Photon etc. fait progresser le criblage à haut débit avec ClaIR™, un lecteur de plaques dédié à l’infrarouge à ondes courtes (SWIR, 900–1700 nm) et optimisé pour les nanocapteurs optiques et les nanomatériaux de prochaine génération. En opérant là où les matrices biologiques sont hautement transparentes, cette plateforme offre la sensibilité exceptionnelle requise pour cribler les capteurs à nanotubes de carbone à paroi simple (SWCNT) et suivre les éléments de reconnaissance moléculaire. ClaIR™ permet un balayage de zone automatisé par puits pour valider efficacement les nanocapteurs optiques dédiés aux cytokines inflammatoires, cartographier la localisation intracellulaire des capteurs en cytologie cancéreuse et accélérer la détection des biomarqueurs. ClaIR™ ClaIR est un lecteur de microplaques dans le NIR-II. Il enregistre la fluorescence de 900... Recherche sur les nanotubes de carbone
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IMA is a hyperspectral microscope delivering spectral and spatial information from 400 nm to 1620... High-resolution spatial and spectral characterization at the microscopic scale
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L-EOS™ is an infrared push broom hyperspectral SWIR camera 0.9 to 2.5 µm. In contrast to traditional imaging techniques that capture images in only three spectral bands (red, green, and blue) per pixel, the L-EOS, a hyperspectral imaging system, captures hundreds of spectral bands stacked in each pixel, forming a hyperspectral data cube. This unique capability allows for highly detailed and comprehensive spectral analysis of the imaged objects. However, it’s worth noting that the L-EOS requires either motion from the object or the camera itself to acquire the data cube, as it creates an image by scanning one row at the time. Hyperspectral data cube provides more information than single band imaging, making it suitable for material sorting and in-depth analysis.
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