The largest commercial infrared company in the world, FLIR has been designing, building, and integrating high-performance infrared cameras for nearly 50 years. FLIR cameras play pivotal roles in a wide range of industrial, commercial, and government activities in over 60 countries.
Our Advanced Thermal Solutions (ATS) thermography unit designs and manufactures high-performance thermal imaging systems used to detect and measure minute temperature differences in a wide variety of scientific, research, and product development settings. These applications include R&D, life sciences, environmental studies, scientific research, and electronics development.
FLIR’s other divisions produce thermal camera systems for a wide variety of military, paramilitary, law enforcement, and public safety missions, as well as for automotive and maritime night vision, personal night vision, firefighting, and industrial and home security uses. In addition, FLIR supplies camera cores and other sub-components to OEMs and system integrators.
And since FLIR’s goal is Infrared Everywhere, we are committed to making affordable thermal cameras everyone can use. The FLIR ONE is a fully functional thermal camera attachment for iOS and Android devices that everyone can use.
Quick Facts
Employees: Over 3,000 worldwide
Investor Resources: www.flir.com/investor/
Revenue: $1.8B (2017)
Locations: FLIR conducts business in more than 100 countries around the globe
FLIR's RS Series is made up of the RS6700, RS6800, and RS8300 instruments in ruggedized enclosures. These MWIR infrared cameras are multi-application long range infrared camera systems designed for range tracking, target signature, target edge detection, research and science applications. The RS Series "Range/Science" cameras are rugged, high performance, full-featured, radiometric instruments that can survive the harsh environments typically found on the test range.
The FLIR X6800sc is a fast, highly sensitive MWIR camera designed for scientists, researchers, and engineers. With advanced triggering and on-camera RAM/SSD recording, this camera offers the functionality to stop motion on high-speed events both in the lab and at the test range. The X6800sc has a cooled FLIR indium antimonide (InSb) detector and captures full 640 x 512 images at 502 frames per second, or up to 29,134 Hz with windowing.
FLIR’s X6900sc series cameras are the world’s fastest full frame MWIR and LWIR 640 x 512 resolution thermal cameras for use in high-speed R&D and science applications. The infrared cameras are designed to produce thermal data at up to 1,004 frames per second at full resolution, and can be sub-windowed for even faster rates. With multiple simultaneous digital data outputs over GigE, CameraLink and CoaxPress in addition to the ability of burst recording to on-camera RAM for up to 26 seconds, there is never a worry of missing critical frames of data.
FLIR offers the X8500sc as its new high-sensitivity, high-speed MWIR camera and LWIR camera for science and R&D applications. The X8500sc MWIR features a FLIR indium antimonide (InSb) detector, while the X8500sc SLS LWIR features a strained layer superlattice (SLS) detector. With 1280 x 1024 resolution, fast frame rates, and RAM/SSD recording, this camera allows for full imaging of the scene and stop motion on high speed events both in the lab or on the test range.
FLIR offers the A6260 imaging camera for SWIR science and R&D applications. Pairing high speed performance with fully customizable features, this high-resolution detector offers improved sensitivity and linearity across the full dynamic range, making it ideal for radiometry and temperature calibrated applications.
FLIR offers the A6750 LWIR thermal imaging camera with a cooled SLS detector designed for high speed image acquisition up to 4.1 kHz with windowing. It captures all pixels simultaneously in under 190 μs for room temperature scenes, which is particularly important when monitoring fast moving objects where an uncooled thermal imaging camera would suffer from image blur.
FLIR offers the A6750 MWIR thermal imaging camera with a cooled InSb detector designed for high speed image acquisition up to 4.1 kHz. Synchronization with other instruments and events enables the capture of minute details, and available custom cold filtering options allow specific spectral detection and measurement. It is ideal for imaging through glass, measuring temperature of thin film plastics, laser profiling and detection, and optical gas imaging.
FLIR offers the A6700 MWIR thermal imaging camera with a cooled InSb detector designed for high speed image acquisition up to 480 Hz. Synchronization with other instruments and events enables the capture of minute details, and available custom cold filtering options allow specific spectral detection and measurement. It is ideal for imaging through glass, measuring temperature of thin film plastics, laser profiling and detection, and optical gas imaging.
FLIR's A325sc infrared cameras transition seamlessly from the research lab to the production line with multiple optic options, available data recording and analysis software and simple Gigabit Ethernet connectivity. With a 320 x 240 pixel resolution and spectral range of 7.5 µm -13.0 µm the A325sc Series is an affordable and flexible option for real-time thermal analysis in applications including predictive and preventive maintenance, research and development and manufacturing process control.
FLIR’S A6260sc is a short-wave infrared (SWIR) camera with high-speed performance and fully customizable features that sets the standard for SWIR cameras for science and R&D applications.
FLIR's A655sc infrared cameras offer ultra-sharp 640 x 480 image resolution, high-speed windowing for an increased output frame rate up to 200 Hz, Gigabit Ethernet and USB connectivity, filtering, and the best sensitivity in an uncooled sensor.
FLIR offers the FLIR A8200sc and FLIR A8300sc high-sensitivity MWIR cameras designed to produce low-noise HD thermal images for electronics inspection, aerial thermal mapping, nondestructive material testing, and industrial R&D applications.
The FLIR GF335 is a mobile high-sensitivity, low noise, cooled thermal camera designed for detecting faint heat signatures in a range of applications, including use on test ranges, non-destructive testing, research, and science applications. This broadband camera features a cooled 3 – 5 µm InSb detector producing razor sharp images at 76,800 (320 x 240) pixels.
FLIR offers the new T1030sc Long-Wave Infrared Camera designed to capture images with 1024 x 768 pixels at 30 frames per second (fps). The camera provides high thermal sensitivity, fast raw data streaming, and a high speed interface (HSI) connection for streaming lossless HD radiometric imagery at 120 Hz or up to 480 Hz with windowing.
The T530 and T540 are a part of FLIR’s T-series of compact infrared (IR) cameras for scientific and R&D applications. These models feature greater sensitivity, better accuracy, and a higher temperature range than other cameras in the series. With an improved ergonomic design, rapid-response user interface, and the exacting detail of FLIR’s unique Macro Mode, T500-Series cameras increase efficiency, reduce test times, and provide new insights into the target’s thermal behavior.
FLIR’s T600sc series is made up of battery powered, handheld thermal imaging cameras ideal for applications that involve thermographic studies and temperature measurements. These thermal cameras cover the -40°C to 2,000°C temperature range and employ 640 x 480 infrared uncooled Vanadium Oxide (VOx) microbolometer detectors.
The FLIR A35sc and A65sc Benchtop Test Kits are the perfect choice for engineering and science labs where size constraints are critical. Heat patterns and extract temperature values are easily detected from live or recorded imagery, and a variety of pixel resolutions are available as well as time vs. temperature plotting.
FLIR offers the new ETS320 affordable, non-contact thermal measurement system designed to collect accurate, reliable data in seconds and analyze it quickly for electronics testing and scientific research. The system pairs a high-sensitivity infrared camera with an integrated stand for hands-free measurements of printed circuit boards and other small electronics.
The new FLIR Research Studio is a powerful, yet simple to use software for analyzing how thermal imagery changes over time. Designed to work the way you work, the software makes thermal analysis faster, more convenient, and enables better teamwork. Whether a Windows, MacOS or Linux user, Research Studio provides customers with an easy way to quickly and efficiently display, record, and analyze accurate thermal data on their machine in any one of the available 22 languages.
FLIR Systems, Inc - Research & Science
9 Townsend West
Nashua, NH 03063
UNITED STATES
Phone: 800-745-4620
Contact: Mark Boccella
The performance of microelectronic devices will depend on a better understanding of the thermophysical properties of the various materials used in the microelectronics. At the University of Texas at Arlington, the team of Dr. Ankur Jain, who heads the Microscale Thermophysics Laboratory, studies a wide range of topics related to microscale thermal transport. The laboratory makes use of diverse modern equipment and instruments, including thermal imaging cameras from FLIR Systems.
Electronics inspection is one of the most common applications for thermal imaging, which typically involves finding hot spots on printed circuit board assemblies (PCBAs) and ensuring that various components are working within their design limits.
Infections in joint replacement surgery are a major factor in the failure of the used metal implants, especially when more strains of bacteria become resistant to antibiotics. Heating up the joints would eliminate bacteria and yeast, but the concern is whether or not this can be done in a non-invasive fashion.
Refrigerant devices typically use fluid coolants turned into gases to cool things down. These gases, however, may become harmful to the environment, so research is being done on the use of solid materials as a substitute to cool down food, beverages, medicine, and even electronic devices.
While IR cameras are nothing new, the latest high-speed variants bring with them new functionality, benefits, and a few limitations. This Q&A seeks to shed light on all the advantages and potential constraints of high-speed imaging, and to address some of the key questions often asked about this technology.
The surgical placement of Cochlear hearing implants behind the human ear requires a highly trained surgeon, and can result in facial nerve damage, meningitis, tinnitus, infections, cerebrospinal fluid leakage, and potentially more.
This article explores how infrared (IR) cameras deliver a major data-gathering advantage over legacy approaches to temperature measurement, an advantage that can prevent costly product failures and safety hazards, providing an immediate and ongoing return on investment.
In some cases, the rotary speeds from dental drills can cause dangerously high temperatures, which can permanently damage bone tissue as they increase the denaturation of hard tissue proteins. This article discusses research on drilling techniques in a lab setting.
While the dysfunction of large nerve fibers can be assessed using standard neurological examination and electromyography (EMG), currently no noninvasive techniques exist to detect and quantify small fiber dysfunction.
This application note describes how researchers from the clinical research center of Charité Berlin use a thermal imaging camera from FLIR to analyze and objectify the body’s response to various allergens.
Scientists are researching how machines can understand human emotions through thermal imaging. In order for Artificial Agents (AAs) to set up contingent emotional and psychophysiological interaction with humans, the automatic nervous system (ANS) must be monitored and translated efficiently.
Finding and fixing hot spots within ever-shrinking electronic systems has become more and more difficult. This webinar examines close-up and microscope lenses and how they allow infrared cameras to make accurate temperature measurements on components less than 25 µm in size and image targets as small as 3.5 µm. Side-by-side comparisons of real-world images are presented along with data from a variety of different camera and lens combinations.
In this webinar, FLIR's Jerry Beeney compares infrared imaging with the more traditional temperature measurement devices, utilizing real-world IR images and examples to demonstrate how infrared thermography can more easily identify hot spots and improve thermal management.
Measuring the temperature of fast moving objects can be very challenging since traditional temperature measurement devices are often too slow or simply impractical. In this brief 20-30 minute webinar, FLIR’s Scientific Segment Engineer, Taimen Taylor, will discuss how recent developments in high speed thermal camera technology allow engineers and researchers the ability to easily visualize and accurately measure temperatures on extremely fast moving targets. Taimen will use real-world images from a variety of high speed thermal applications to showcase how new camera features allow users to record, access and analyze data quickly and easily.
