Accelerating Innovation, Exceeding Expectations
Telops specializes in the design and production of sophisticated opto-electronic systems for the defense, aerospace and telecommunications industries. A reliable source of accelerated innovation inoptronics, the experienced engineering team thrives on high expectations and great challenges. Technical experts understand your business and their diverse backgrounds represent a powerful source of innovation. Telops also excels at project management while remaining flexible since the team understands that changes can be inevitable. Whether you are looking for equipment, expertise or outsourcing, we will turn your high expectations into success.
The FAST 350z camera from the FAST-IR series is designed with high sensitivity for the detection of challenging targets in many IR signature and target ranging applications. This camera has a maximum data throughput larger than 1 Gigapixel/s and can produce thermal images at rates up to 355 fps. Features include 1 GB memory for autonomous operation, an InSb detector type, and an operating spectral range from 3.6 μm to 4.9 μm.
The Telops Hyper-Cam is an advanced standoff infrared hyperspectral imaging system. This remote sensing instrument combines high spatial, spectral and temporal resolution providing unmatched performance. It is a versatile tool for remote detection, identification and quantification, and is ideal for field measurements.
Telops’ MS-IR family is composed of multispectral imaging cameras available in MW and VLW configurations. They have the ability to split a scene into eight separate spectral bands, and are particularly well suited for quartz mineral identification and methane detection and identification.
This high performance infrared camera family comes with InSb detectors and covers the 3µm to 5µm spectral range. Download the datasheet to learn more about its features and specifications.
The FAST-IR infrared cameras can be used for a variety of imaging applications including combustion analysis, and include key features such as sensitivity for targets that are difficult to detect, self-adjustment to fast temperature changes, and availability of real-time calibrated images.
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Telops is pleased to announce its new partnership with Université de Reims, in France. Starting now, Telops will offer, in collaboration with Université de Reims, new measurement services to detect and characterize defects in a wide variety of materials using active infrared imaging.
Telops recently announces the signing of a distribution agreement with an important partner: Applied Infrared Sensing. This will result in a strengthened position for Telops in the Australian and New Zealand market.
Telops has developed a camera that is able to accurately detect minute methane leaks and emissions and film them in real time. With the Telops Hyper-Cam Methane, scientists are able to detect and identify methane present in a scene, and to locate it precisely in an image or video, pixel by pixel.
Telops, leader in the field of high performance infrared cameras and hyperspectral imaging systems for the Defense and Security, Environmental, Industrial and research markets, is pleased to announce the launch of its newest gas imaging camera the Hyper-Cam Methane.
Telops, recognized for its innovation and expertise in hyperspectral imagery, is pleased to announce recently the launch of its newest infrared camera the TS-IR.
This webinar discusses the importance of thermal camera calibration, and presents Telops’ permanent calibration setup, its detailed principles, and its benefits.
This Telops webinar demonstrates the advantages of using field-based lightweight hyperspectral instruments for routine field applications such as mining, engineering, or forestry. A Telops thermal infrared hyperspectral research instrument was used for field measurements in Juracement carbonate mine.
This Telops webinar demonstrates the advantages of using thermal infrared hyperspectral imaging (TIR HIS) for mineral mapping during an airborne survey. Results are shared for a case that was carried out over an open-pit mine in the Thetford Mines (Qc, Canada) area.
The process of additive manufacturing, or 3D printing, allows for the rapid fabrication of metal pieces with carious compositions, shapes, and sizes, but the extremely high thermal gradients involved can sometimes induce stress and deformation in the materials. High-speed infrared imaging of this Direct Medal Laser Sintering (DMLS) process on stainless steel has been used to better understand and visualize these thermal transfers. This webinar discusses the observation process of additive manufacturing, and how high-speed infrared imaging provides detailed information and results that can enhance future DMLS processes.
Infrared imaging can be used for a variety of applications, including military, combustion analysis, environmental studies, and experimental mechanics. So how do you find the optimal imaging camera for the task at hand? This webinar discusses the basic concepts of infrared imaging, and presents important considerations that each application demands and how to choose a camera based on these requirements.
Traditional methods of mapping surface mines have inherent challenges to obtaining data with enough detail to allow effective tactical and strategic decision making. Hyperspectral infrared imaging eliminates the problems.
Real-life interpretations of infrared images from a variety of field applications may become complex. In order to make the most accurate interpretation, the camera user must know about the measurement conditions as well as have a good foundation in radiometry. This white paper will discuss how to establish a simple scene model in the field, how to determine their limitations, and how you can use these models to estimate physical parameters, such as the thermodynamic temperature of the objects being viewed.
Radiometry is the science of studying the transport of energy through radiation. In this article, Telops presents the basics of the principal laws of radiometry as seen through light-sensitive instruments.
Thermography is an infrared (IR) imaging technology important in many fields. New advances address some conflicting limitations and improve results for research and testing.
Additive manufacturing involves extremely high thermal gradients that can sometimes induce stress and deformation in the materials. High-speed infrared imaging of this direct metal laser sintering (DMLS) process on stainless steel has been used to better understand and visualize these thermal transfers.