Tower-Based Hyperspectral HST-410

Multispectral Imaging: 7 + RGB Multispectral Bands: (Standard) 450 nm, 550 nm, 650 nm, 720 nm (narrowband), 750 nm (narrowband), 800 nm, 850 nm; (Optional) 410 nm, 490 nm, 530 nm, 570 nm, 600 nm, 660 nm, 680 nm, 720 nm, 750 nm, 780 nm, 900 nm Image Sensor: 1/2.9-Inch CMOS, Global Shutter, 155 × Ten Thousand Pixels

Model-specific limitations (wording from the technical specifications page): MS-800NL: Gigabit Ethernet (GigE) communication, for imaging distances of 50 CM—1 M. MS-800N: Gigabit Ethernet (GigE) communication, for imaging distances of 1 M—infinity. MS-800UL: USB3.0 high-speed communication, for imaging distances of 50 CM—1 M.

Multispectral Imaging: 7 + RGB Multispectral Bands: (Standard) 450 nm, 550 nm, 650 nm, 720 nm (narrowband), 750 nm (narrowband), 800 nm, 850 nm; (Optional) 410 nm, 490 nm, 530 nm, 570 nm, 600 nm, 660 nm, 680 nm, 720 nm, 750 nm, 780 nm, 900 nm Image Sensor: 1/2.9-Inch CMOS, Global Shutter, 155 × Ten Thousand Pixels

Model-specific limitations (wording from the technical specifications page): MS-800NL: Gigabit Ethernet (GigE) communication, for imaging distances of 50 CM—1 M. MS-800N: Gigabit Ethernet (GigE) communication, for imaging distances of 1 M—infinity. MS-800UL: USB3.0 high-speed communication, for imaging distances of 50 CM—1 M.

Multispectral Imaging: 7 + RGB Multispectral Bands: (Standard) 450 nm, 550 nm, 650 nm, 720 nm (narrowband), 750 nm (narrowband), 800 nm, 850 nm; (Optional) 410 nm, 490 nm, 530 nm, 570 nm, 600 nm, 660 nm, 680 nm, 720 nm, 750 nm, 780 nm, 900 nm Image Sensor: 1/2.9-Inch CMOS, Global Shutter, 155 × Ten Thousand Pixels

Model-specific limitations (wording from the technical specifications page): MS-800NL: Gigabit Ethernet (GigE) communication, for imaging distances of 50 CM—1 M. MS-800N: Gigabit Ethernet (GigE) communication, for imaging distances of 1 M—infinity. MS-800UL: USB3.0 high-speed communication, for imaging distances of 50 CM—1 M.

Machinable Shapes: Circular, Rectangular, Polygonal and Other Shapes Size Range - Diameter (Maximum Diagonal): Φ8-Φ60mm Size Range - Thickness: 0.05-50mm

Single-crystal germanium (Ge) is chemically inert, transmitting 2-14μm, with high hardness, thermal conductivity, and water insolubility. Mechanical/thermal properties support windows and thermal-imaging optics. Uncoated transmission over 8-14um is only 40-50%, rising to 90% with AR coatings. Customers often add DLC to increase hardness and some explosion resistance. Low absorption at 10.6μm makes Ge windows the stated first choice for CO2 lasers and filter substrates. The source states that pressures above 120KPa form another allotrope, so operation must not exceed 120KPa (0.12MPa). A few Belgian, US, Chinese, and Russian manufacturers grow Ge by the Cz method. Index changes rapidly with temperature; just above 350°K, thermally populated bandgaps make it opaque at all wavelengths. Applications: high-index ATR prisms, effective natural 50% beamsplitters without coatings, and filter substrates. Ge covers the whole 8-14μm thermal band. Diamond AR coatings produce tough front optics. Infrared uses mainly include lenses and protective windows. Good transmission makes it a preferred lens material. Source statistics state that >60% of low-/mid-end and 50% of high-end infrared lenses use Ge, serving reconnaissance, identification, security, and night-driving assistance. Military airborne, shipborne, ground-based, and vehicle lenses use it extensively. Protective windows maintain operation in harsh/night/low-light conditions. High index, low dispersion, and good infrared absorption/conduction make it essential to infrared instruments. Lenses/windows play important military, security, and civilian roles.

Imaging Method: Snapshot (Single Exposure) Spectral Range [Customization Within 400-700 nm Supported]: 400-1000 nm (400-700 nm Customization Supported) Number of Spectral Bands: ≥ 100

The SCI-VN100G-RDV vehicle-mounted hyperspectral road-dust imager uses encoding and dispersive optical elements for compressed hyperspectral acquisition. Proprietary AI algorithms reconstruct images accurately. It overcomes the slow acquisition and difficult operation of traditional cameras requiring external or internal push-broom mechanisms, enabling rapid millisecond-scale single-exposure spectral imaging.