Photonfocus SNAPSHOT RedNIR
Want to test hyperspectral scanning and analysis in the RedNIR range? With this user-friendly real-time GigE camera from Photonfocus, integrating imec?s hyperspectral sensor, you?ll be looking at relevant test data within a few minutes of the installation.
Photonfocus SNAPSHOT RedNIR
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Photonfocus SNAPSHOT RedNIR
spectral range = 600-870 nm
spectral resolution = 15 bands
spatial resolution = 2040 x 1080
imager type = CMOS imager, CMOSIS CMV2000-based
acquisition speed = Up to 42 hyperspectral cubes/second (limit of GigE vision interface)
pixel pitch = 5.5 ?m pixels, 2/3?? sensor optical format
bit depth = 10 bits
optics = 16/25/35/50 mm lenses, C-mount
camera interface = GigE vision + GPIO for triggering
power consumption <5.1 W
camera dimensions (W x H x D) = 55 x 55 x 52 mm
camera weight = 265 g without optics
software = HSI MOSAIC software for raw image acquisition, data pre-processing, hypercube visualization and classification, including API
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| Photonfocus SNAPSHOT RedNIR remove | Resonon Pika L remove | HySpex SWIR-384 remove | HySpex Mjolnir S-620 remove | Specim FX10 remove | Specim FX50 remove | |
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| Name | Photonfocus SNAPSHOT RedNIR remove | Resonon Pika L remove | HySpex SWIR-384 remove | HySpex Mjolnir S-620 remove | Specim FX10 remove | Specim FX50 remove |
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| Content | Photonfocus SNAPSHOT RedNIR Want to test hyperspectral scanning and analysis in the RedNIR range? With this user-friendly real-time GigE camera from Photonfocus, integrating imec?s hyperspectral sensor, you?ll be looking at relevant test data within a few minutes of the installation. | Pika L 400 - 1000 nm Lightweight, Compact VNIR The Pika L is a lightweight, compact hyperspectral camera that covers the Visible + Near-Infrared (VNIR) spectral range. It is our most popular imager for remote sensing applications. The Pika L can be used in our airborne, laboratory, and outdoor hyperspectral systems, as well as standalone or integrated into your system. | HySpex SWIR-384 The HySpex SWIR-384 hyperspectral camera is developed for field, laboratory, and airborne applications. The state of the art MCT sensor with cooling down to 150K yields low background noise, high dynamic range, and exceptional SNR levels. With a max frame rate of 400 fps, combined with an aberration-corrected optical system with high optical throughput (f/2), the data quality, speed, and sensitivity is truly state of the art. A wide range of close-up lenses allows the use of the camera at working distances ranging from a few centimeters with a spatial resolution of 53 ?m to infinity e.g. airborne remote sensing. | HySpex Mjolnir S-620 The HySpex Mjolnir S-620 hyperspectral imaging system for UAVs is the SWIR version of the Mjolnir camera series. Similar to the VNIR version, it provides a unique combination of small form factor and low mass, combined with high-performance specifications and scientific grade data quality. With a weight of less than 4.5 kg and less than 50 W power consumption, HySpex Mjolnir S-620 is very well suited for a wide range of UAVs. NEO offers high-performance unmanned aerial vehicles, fully integrated with the HySpex Mjolnir S-620. The UAV is fitted with a standard battery package allowing up to 30 minutes of flight time. All HySpex Mjolnir systems can also be mounted on a tripod and rotation stage for ground use. | Specim FX10 Specim FX10 is a line-scan hyperspectral camera that operates in the visible and near-infrared (VNIR) region. It is an excellent tool for industrial and scientific applications. The Specim FX10 operates in the 400-1000 nm region, and the color-optimized Specim FX10c in the 400-780 nm region. | Specim FX50 Specim FX50 is the only hyperspectral camera on the market covering the full mid-wave infrared (MWIR) spectral range of 2.7 - 5.3 ?m required, for example, in black plastics sorting. Specim FX50 is a high-speed, accurate, and efficient line-scan hyperspectral camera designed specifically for industrial environments. |
| Description | spectral range = 600-870 nm spectral resolution = 15 bands spatial resolution = 2040 x 1080 imager type = CMOS imager, CMOSIS CMV2000-based acquisition speed = Up to 42 hyperspectral cubes/second (limit of GigE vision interface) pixel pitch = 5.5 ?m pixels, 2/3?? sensor optical format bit depth = 10 bits optics = 16/25/35/50 mm lenses, C-mount camera interface = GigE vision + GPIO for triggering power consumption <5.1 W camera dimensions (W x H x D) = 55 x 55 x 52 mm camera weight = 265 g without optics software = HSI MOSAIC software for raw image acquisition, data pre-processing, hypercube visualization and classification, including API | Spectral Range (nm) = 400 - 1000 Spectral Channels = 281 Spectral Bandwidth (nm) = 2.1 Spectral Resolution - FWHM (nm) = 3.3 Spatial Pixels = 900 Max Frame Rate (fps) = 249 f/# = 2.4 Interface = USB 3.0 Dimensions (mm) = 115 x 104 x 66 Weight, w/o lens (kg) = 0.64 | Spectral range = 930 - 2500 nm Spatial pixels = 384 Spectral channels = 288 Spectral sampling = 5.45 nm FOV* = 16? Pixel FOV across/along* = 0.73/0.73 mrad Bit resolution = 16 bit Noise floor = 150 e- Dynamic range = 7500 Peak SNR (at full resolution) > 1100 Max speed (at full resolution) = 400 fps Power consumption = 30 W Dimensions (l-w-h) = 38 - 12- 17.5 cm Weight = 5.7 kg Camera Interface = CameraLink *Can be doubled with FOV expander | Spectral range = 970 - 2500 nm Spatial pixels = 620 Spectral channels and sampling = 300 bands @ 5.1 nm F-number = F1.9 FOV = 20? Pixel FOV across/along = 0.54/0.54 mrad Bit resolution = 16 bit Noise floor = 80 e- Dynamic range = 10000 Peak SNR (at full resolution) > 900 Max speed (at full resolution) = 170 fps Power consumption* = 50 W Dimensions (l-w-h)* = 254 - 175 - 170 mm Weight* < 4.5 kg *Includes IMU/GPS and DAU - <5 kg including standard battery | Spectral Range = 400-1000 / 400-780 (c-version) Spectral resolution (FWHM) = 5.5 nm (mean) Spectral sampling/pixel = 2.7 nm, With default binning Spectral bands = 224 / 140 (c-version), With default binning Numerical aperture = 1.7, With default lens Optics magnification = 0.80 Effective pixel size = 19.9x9.97 ?m, At fore lens image plane Effective slit width = 42 ?m, At fore lens image plane Effective slit length = 10.2 mm, At fore lens image plane SNR @ max. signal = 420 : 1 Spatial samples = 1024 Bit depth = 12 Maximum frame rate = 327 FPS full range / 514 FPS full range (c-version) Binning = 2,4,8 spectral and spatial Default: 2 spectral x 1 spatial ROI = Freely selectable multiple bands of interest. Minimum height of ROI is two 1-binned rows. Maximum frame rate is determined by the total number of rows included in the mMROI?s Pixel operability = 99.993% Image corrections = Non uniformity correction/Bad pixel replacement/Automatic Image Enhancement (AIE)/One point NUC. AIE: Unified spectral calibration + corrected smile and keystone aberrations Sensor material = CMOS Sensor cooling = Passive Full well capacity = 90 ke- Read-out modes = IWR / ITR Optics temperature = Passive Lens mount = Custom mount Fore lens FOV options = 12 deg/ 38 deg (default)/ 47 deg/ 51 deg/ 83 deg. Only the default lens is specifically designed for FX10. With other lens options, optical parameters may vary. Camera digital data output/control interface = GigE Vision, CameraLink Camera control protocols = GenICam, ASCII Power input = 12 V DC (+-10%) Power consumption = Max 4 W Connectors = Industrial Ethernet OR CameraLink 26-pin, 0.5? MDR IP = IP52 Dimensions (L x W x H) = 150 x 85 x 71 mm Mounting surface option on three sides. Mounting kit adds 24 mm distance on mounting side. Weight = 1.3 kg Storage temperature = -20 ... +50?C (non-condensing) Operating temperature = +5 ? +40?C (non-condensing) Relative humidity = 5% - 95% (non-condensing) | Spectral Range = 2.7 - 5.3 ?m Spectral resolution (FWHM) = 35 nm Spectral sampling/pixel = 8.44 nm, Without binning Spectral bands = 154, With default binning Numerical aperture = 2.0 Optics magnification = 0.5 Effective pixel size = 30 ?m, At fore lens image plane Effective slit width = 104 ?m, At fore lens image plane Effective slit length = 19.2 mm, At fore lens image plane Dynamic Range = 1600:1 with 1.5 ms exposure time Usable dynamic range / noise Spatial samples = 640 Bit depth = 16 Maximum frame rate = 380 fps, Full image with default binning Binning = 1,2,4 spectral and spatial, Default: 2 spectral x 1 spatial ROI = Freely selectable multiple bands of interest. Minimum height of ROI is two 1-binned rows. Maximum frame rate is determined by total number of rows between first row of first mROI and last row of last mROI - not the total number of rows included in the mMROI?s. Pixel operability = Number of operable pixels >99.7%. Allowed clusters: Size 4-8 pixels: <= 12/ Size 9-12 pixels: 2/ Size 13-19 pixels: 1/ Size >19 pixels: 0 Image corrections = Non uniformity correction/Bad pixel replacement/Automatic Image Enhancement (AIE). One point NUC. AIE: Unified spectral calibration + corrected smile and keystone aberrations Sensor material = InSb Integrated cooler = Stirling Up to 10000 hours Full well capacity = 5.1 Me- Read-out modes = IWR / ITR Optics temperature = TEC-stabilized Default is 20 degrees Celsius Lens mount = Custom mount Fore lens options = OLEM43, OLEM23, OLEM17 Field of view = 24 deg, 45 deg, 60 deg Camera digital data output/control interface = GigE Vision, Custom ethernet Camera control protocols = GenICam, JSON-RPC Power input = 24 V DC Power consumption = Max 90 W, Typical 40 W, During simultaneous cool-down of optics and detector Connectors = Ethernet/ Aux - 0306423 (09-0428-90-08) Binder 8pin/ Power - 0306627 (LF10WBR-4P) Hirose 4pin Trigger in IP = IP40 Dimensions (L x W x H) = 280 x 202 x 169 mm Mounting surface option on three sides. Mounting kit adds 24 mm distance on mounting side. Weight = 7 kg Storage temperature = -20 ... +50 oC Operating temperature = +5 ... +40 oC Relative humidity = 5% - 95% (non-condensing) |
I have realized that in cameras, extraordinary receptors help to focus automatically. The sensors associated with some digital cameras change in contrast, while others employ a beam with infra-red (IR) light, especially in low light. Higher specification cameras from time to time use a combination of both systems and likely have Face Priority AF where the video camera can ‘See’ a face while focusing only on that. Many thanks for sharing your ideas on this blog site.
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