Hyperspectral Cameras

The Hyper-Cam is an advanced passive infrared hyperspectral imaging system. This remote sensing instrument combines high spatial, spectral and temporal resolution providing unmatched performances. It is a versatile tool for remote detection, identification and quantification.

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Best Spectral Resolution on the Market
Best Sensitivity on the Market
Lightweight and Compact
Two Modes of Acquisition
Real-Time Capabilities

Hyperspectral Cameras

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Telops Hyperspectral Camera Products

Description

The Hyper-Cam is an advanced passive infrared hyperspectral imaging system that combines high spatial and spectral resolution. It provides real-time radiometrically calibrated data for gas and mineral detection and identification. It is offered in ground-based format, but also as a compact airborne hyperspectral imaging system: the Hyper-Cam Airborne Mini.

The Hyper-Cam Airborne Mini is a revolutionary hyperspectral imaging system that is designed to fit small aircrafts and other compact vehicles. This lightweight imaging sensor is a versatile tool for hyperspectral IR surveys, and a unique instrument for real-time gas detection, identification and quantification.

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Key Benefits

Best spectral resolution on the market

Best spectral resolution on the market

No camera does it better than the Hyper-Cam.

Best sensitivity on the market

Best sensitivity on the market

The Hyper-Cam is able to detect and identify extremely small amounts of gases down to ppm levels (parts per million).

Lightweight and compact (Mini Series)

Lightweight and compact (Mini Series)

Our Mini Series (Hyper-Cam Mini and Hyper-Cam Mini Airborne) feature cameras that are easily transportable. The Hyper-Cam Airborne Mini can be installed into an aircraft in minutes, and the Hyper-Cam Mini has a low SWaP for ease of use anywhere.

Two Modes of acquisition

Two modes of acquisition

Use it in mapping or targeting mode

Real-time capabilities

Real-time capabilities

Detect and identify gases in real-time (as an option in the Airborne Mini version).

More about the Hyper-Cam

Discover the Hyper-Cam Mini xLW

Discover the Hyper-Cam Mini

With its small Size, Weight and Power (low SWaP), the new Hyper-Cam Mini can be utilized in harsh conditions and hard-to-reach locations to facilitate high-quality infrared spectral imaging measurements.

Discover the HC Airborne Mini

Discover the HC Airborne Mini

With its separate optical head and processing unit, swappable fore-optics and powerful software suite, this Hyper-Cam was designed with flexibility in mind.

Get impressive gas detection

Get impressive gas detection

With the Telops Hyper-Cam, you can detect and identify gases and locate them precisely in an image or video, pixel by pixel. Recently, scientists from Linköping University, in Sweden, were able to film low-concentration methane emissions in real time - a breakthrough that could play a significant role in the fight against climate change. Their results were published in the prestigious journal Nature Climate Change.
 

Obtain geo-referenced data

Obtain geo-referenced data

The Hyper-Cam Airborne Mini produces orthorectified, geo-referenced infrared gas detection images which can be overlayed with Google Earth to quickly identify a gas leak. Here, a 10 g/s methane leak is seen at an altitude of 600 m.

Learn how it is used to quantify methane

Learn how it is used to quantify methane

Magnus Gålfalk is a senior lecturer based at Linköping University with an expertise in environmental science. He uses the Hyper-Cam to measure and calculate methane fluxes from natural sources like lakes and wastewater treatment plants, with the goal of identifying hotspots of methane emission leading to more accurate estimates of greenhouse gas fluxes.

Learn how it is used to quantify methane - Part 2

Learn how it is used to quantify methane - Part 2

David Bastviken is a professor at Linköping University. David's research focuses on the challenge to properly quantify greenhouse gas fluxes from complex landscapes. He and his team have been working to develop new tools to measure carbon dioxide and methane fluxes. Current projects are focused on developing methods that provide high spatial resolution of carbon dioxide and methane fluxes to increase the accuracy of ecosystem level estimates of greenhouse gas emissions.

Technical Information

Midwave Series (MWIR)

 Spectral range (µm)Detector TypeSpatial Resolution (px)Pixel Size (µm)

Hyper-Cam iMW
EXOSENS Download

3.0 - 5.0InSb320 x 25630

Hyper-Cam iMWE
EXOSENS Download

1.5 - 5.4InSb320 x 25630

Hyper-Cam iMWEF
EXOSENS Download

1.5 - 5.4InSb320 x 25630

Hyper-Cam iMWF
EXOSENS Download 

3.0 - 5.0InSb320 x 25630

Very Long Wave Series (VLWIR)

 Spectral range (µm)Detector TypeSpatial Resolution (px)Pixel Size (µm)

Hyper-Cam LW
EXOSENS Download

7.7 - 11.8MCT320 x 25630

Mini Series

 Spectral range (µm)Detector TypeSpatial Resolution (px)Pixel Size (µm)

 Hyper-Cam Airborne Mini
EXOSENS Download

7.4 - 11.8SLS320 x 25630

Hyper-Cam Mini EXOSENS Download

7.5 - 12.4SLS320 x 25630

Accessories

Motorized polarizer

Motorized polarizer

Allows hyperspectral measurements in a linear polarization state at a user-defined angle, for better discrimination of targets, such as man-made objects, surface contaminants and liquid films.

Telops-designed telescope

0.25x telescope

Telops-designed telescope, FOV of 24 x 20°

3.5x telescope

3.5x telescope

Telops-designed telescope, FOV of 1.8 x 1.5°

Reveal D&I

Reveal D&I

Automatic gas detection and identification software.

Documentation

Technical Support Videos

video
Discover the new Hyper-Cam Airborne Mini
download

Brochure/Leaflet

Israel Institute for Biological Research

Testimonials

Israel Institute for Biological Research (IIBR)

"We have an excellent ongoing experience with the Hyper-Cam LWIR hyperspectral sensor since 2006. We have used the obtained database for diverse R&D projects in the fields of gas detection and quantification, aerosol classification, validation of radiative transfer models and many other applications of environmental monitoring."

- Eyal Agassi, PhD, Senior researcher, Environment physics department, IIBR