Teledyne FLIR Thermal Imaging Products from Cape Thermal
Teledyne FLIR, originally known as FLIR Systems, stands as a pioneering force in the realm of infrared (thermal) imaging technology. Founded in 1978 with a vision to develop high-performance yet cost-effective thermal imaging systems for aerial applications, FLIR has since evolved into a global leader in thermal imaging solutions across various industries.
Over its illustrious history, FLIR has achieved numerous milestones and acquisitions that have cemented its position as an industry powerhouse. From its humble beginnings in Tigard, Oregon, to its relocation to Portland in the mid-1990s, FLIR has continually expanded its capabilities and product offerings.Ā
A thermal camera is a non-contact device that detects infrared energy (heat) and converts it into a visual image.
Why Choose Teledyne FLIR?
Teledyne FLIR stands at the forefront of innovation, designing, developing, and distributing cutting-edge technologies that revolutionize perception and awareness. Teledyne FLIR diversified portfolio encompasses thermal imaging, visible-light imaging, video analytics, measurement and diagnostic tools, and advanced threat detection systems.
Choosing Teledyne FLIR means investing in solutions that strengthen public safety and well-being, optimize energy and time usage, and contribute to the creation of healthier and more intelligent communities. Join us in shaping a safer, more efficient, and more connected world with Cape Thermal and Teledyne FLIR.
How does FLIR Work?
FLIRs make pictures from heat, not visible light. Heat (also calledĀ infrared, orĀ thermal, energy) and light are both parts of the electromagnetic spectrum, but a camera that can detect visible light wonāt see thermal energy, and vice versa.
Contrary to conventional cameras which operate on the principles of visible light, thermal cameras function on an entirely distinct paradigm. While traditional cameras and the human eye rely on the reflection and detection of visible light energy to generate images, thermal imagers deviate from this norm by capturing and interpreting heat emissions, also known as infrared or thermal energy.
The fundamental disparity lies in the electromagnetic spectrum: visible light and thermal energy occupy different spectral regions. Consequently, a camera designed for visible light detection cannot discern thermal energy, and conversely, a thermal camera cannot perceive visible light.