Assessing hyperspectral microscopy in real-time
The FireflEYE 185 brings hyperspectral imaging to microscopy, and also enables endoscopy. In life sciences the time-saving advantage of the snapshot technology (thanks to no-scanning) really makes itself known, as saving time saves patients. The camera can also monitor real-time processes, such as samples in petri dishes for example. The relay lens also allows for a lens change without camera re-calibration. And a close-up lens set allows a macroscopic scale view of a spot size of just a few mm.
For all scenarios
UAS Mapping – The FireflEYE 185 was the first-ever light-weight hyperspectral snapshot camera used for aerial mapping from a UAS. The user has a choice of lenses, enabling different fields of view for different tasks. In lab use the FireflEYE can be equipped with close-up lenses, allowing a macroscopic scale view with a spot size of only a few mm to cm. Attaching a relay lens to the FireflEYE provides for full interchangeability to Cmount lenses. Mount the camera on your microscope or endoscope without the need of an additional calibration. The latest improvements to the FireflEYE include upgrading the main sensor to a modern CMOS sensor. The 14-bit version has 2x higher signal-to-noise-ratio and 4x higher dynamic range compared to the S185 (needing 4 times longer integration times).
Cubert FIREFLEYE 185
VNIR Compare
Cubert FIREFLEYE 185
Spectral Range = 450 – 950 nm
Number of Bands = 125
FWHM = 8 nm @ 532 nm
Max Resolution = 1000 x 1000 pixel
Weight = Standard version: 490 g
Dimensions = Standard version: 200 x 67 x 60 mm
Technology = Multipoint Spectrometer
Sensor(s) = 5 MP & 2 MP
Spectral Sampling = 4 nm
Wavelength Error < 4 nm
Total Spectra / Image = 2500 & 1 M pansharpened
Total Data Points (Data Points / Cube) = 0.3 million
Data Depths = 12 Bit/ 14 Bit
Readout = Global shutter
Max Frame Rate = Standard version: 25 Hz
Integration Time = 0.1-1000 ms
Field of View (FOV) = 30?, 20?, 13?, 7?, lens selectable
Power Consumption = 7 W
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| Content | Assessing hyperspectral microscopy in real-time The FireflEYE 185 brings hyperspectral imaging to microscopy, and also enables endoscopy. In life sciences the time-saving advantage of the snapshot technology (thanks to no-scanning) really makes itself known, as saving time saves patients. The camera can also monitor real-time processes, such as samples in petri dishes for example. The relay lens also allows for a lens change without camera re-calibration. And a close-up lens set allows a macroscopic scale view of a spot size of just a few mm. For all scenarios UAS Mapping - The FireflEYE 185 was the first-ever light-weight hyperspectral snapshot camera used for aerial mapping from a UAS. The user has a choice of lenses, enabling different fields of view for different tasks. In lab use the FireflEYE can be equipped with close-up lenses, allowing a macroscopic scale view with a spot size of only a few mm to cm. Attaching a relay lens to the FireflEYE provides for full interchangeability to Cmount lenses. Mount the camera on your microscope or endoscope without the need of an additional calibration. The latest improvements to the FireflEYE include upgrading the main sensor to a modern CMOS sensor. The 14-bit version has 2x higher signal-to-noise-ratio and 4x higher dynamic range compared to the S185 (needing 4 times longer integration times). | Pika IR-L 925 - 1700 nm Lightweight Infrared The Pika IR-L is a lightweight and compact Near-Infrared (925-1,700 nm) imager. The small size and mass make it well suited for airborne applications, where it can provide invisible to the naked-eye contrast of outdoor features. For a compact, lightweight Visible light spectral range option, please see the Pika L. For a higher spectral and spatial resolution version of the Pika IR-L, please see the Pika IR-L+ imager. | Pika IR 900 - 1700 nm High-Speed Infrared The Pika IR (formerly Pika NIR-320) is a high-speed, cost-effective hyperspectral camera that covers the Near-Infrared (NIR) spectral range. It is our most popular imager for machine vision applications. The Pika IR can be used in our airborne, laboratory, and outdoor hyperspectral systems, as well as standalone or integrated into your system. | HySpex Baldur V-1024 N Baldur V-1024 N covers the full VNIR spectral range from 400-1000nm and is configurable within one octave in the same range. All Baldur cameras are Nyquist cameras giving a spectral resolution of 2 spectral bands while capturing 4 times as much light as the classic systems. To ensure that the most information per framerate is provided, the spectral resolution is kept very close to 2 bands. Additionally, the spatial resolution of Baldur V-1024 N is better than 1.7 pixels, yielding a very sharp camera. | HySpex Mjolnir VS-620 For applications requiring low mass, combined with high-performance specifications and scientific grade data quality on the full VNIR-SWIR range, HySpex Mjolnir VS-620 is an ideal solution. Sharing the onboard data acquisition unit and navigation system, HySpex Mjolnir VS-620 is both space-efficient and cost-effective. The VNIR and SWIR optical axis are coaligned in the along-track direction, assuring perfect coregistration in the flight direction. In addition to the high-quality hyperspectral data cube, covering the spectral range from 400 - 2500 nm, with 490 bands, double resolution data in the VNIR range is always readily available. With smile and keystone less than 0.1 pixels for each spectral range, the merged Mjolnir VS-620 data product will have coregistration/keystone better than 0.2 pixels for the full VNIR-SWIR range. | HySpex Baldur S-384 N Baldur S-384 N covers the spectral range from 960-2500 nm. All Baldur cameras are Nyquist cameras giving a spectral resolution of 2 spectral bands while capturing 4 times as much light as the classic systems. To ensure that the most information per framerate is provided, the spectral resolution is kept very close to 2 bands. Additionally, the spatial resolution of Baldur S-384 N is better than 1.5 pixels, yielding a very sharp camera. |
| Description | Spectral Range = 450 - 950 nm Number of Bands = 125 FWHM = 8 nm @ 532 nm Max Resolution = 1000 x 1000 pixel Weight = Standard version: 490 g Dimensions = Standard version: 200 x 67 x 60 mm Technology = Multipoint Spectrometer Sensor(s) = 5 MP & 2 MP Spectral Sampling = 4 nm Wavelength Error < 4 nm Total Spectra / Image = 2500 & 1 M pansharpened Total Data Points (Data Points / Cube) = 0.3 million Data Depths = 12 Bit/ 14 Bit Readout = Global shutter Max Frame Rate = Standard version: 25 Hz Integration Time = 0.1-1000 ms Field of View (FOV) = 30?, 20?, 13?, 7?, lens selectable Power Consumption = 7 W | Spectral Range (nm) = 925 - 1700 Spectral Channels = 236 Spectral Bandwidth (nm) = 3.3 Spectral Resolution - FWHM (nm) = 5.9 Spatial Pixels = 320 Max Frame Rate (fps) = 364 f/# = 1.8 Interface = GigE Dimensions (mm) = 210 x 68 x 63 Weight, w/o lens (kg) = 1.01 | Spectral Range (nm) = 900 - 1700 Spectral Channels = 168 Spectral Bandwidth (nm) = 4.8 Spectral Resolution - FWHM (nm) = 8.8 Spatial Pixels = 320 Max Frame Rate (fps) = 508 f/# = 1.8 Interface = GigE Dimensions (mm) = 264 x 115 x 88 Weight, w/o lens (kg) = 2.95 | Spectral Range = 400-800/485-960/400-1000 nm Spatial pixels = 1024 Spectral bands = 72/88/106 Max speed* = 1000/800/700 fps Spectral sampling = 5.5 nm Spectral FWHM <2 bands? Spatial FWHM < 1.7 pixels Keystone <15% of a pixel Smile <15% of band FOV = 16? / 40? Bit resolution = 12 Noise floor = 11e Peak SNR >286 Dynamic range = 2560 ROI* = 8 independent ROIs Dimensions (l-w-h) = 316 - 105 - 153 mm Camera Interface = CameraLink * Reducing the number of spectral channels with ROI will proportionally increase the max framerate | Spectral Range = 960 - 2500nm Spectral bands = 288 Max speed* = 500 fps Spectral sampling = 5.45 nm Spectral FWHM <2 bands Spatial FWHM <1.3 pixels Spatial pixels = 384 Keystone <15% of a pixel Smile <15% of band FOV = 16? / 40? Bit resolution = 16 bit Noise floor = 150 e- Peak SNR >1100 Dynamic range = 7500 ROI* = All bands can be selected/deselected individually External trigger options LVDS, 5V/12V/24V TTL Dimensions (l-w-h) = 368 - 131 - 175 mm Camera Interface = CameraLink * Reducing the number of spectral channels with ROI will proportionally increase the max framerate |
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