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ThermoDynamic Films company logo
ELECTRONICS | Technical & Scientific Instrumentation
cryoraycoolers.com

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Founded Year

2008

Stage

Grant - XII | Alive

Total Raised

$5.53M

Last Raised

$230K | 1 yr ago

About ThermoDynamic Films

ThermoDynamic Films has developed CryoRay coolers, solid-state cryogenic refrigerators capable of higher efficiencies at lower temperatures than any other solid-state technology. Unlike traditional cooling technologies that rely on compressed gasses or the thermoelectric effect, CryoRay coolers extract heat by an optical mechanism. The active element of a CryoRay device cools by absorbing laser light at one frequency and reemitting it at high frequencies (See Technology). By this process CryoRay coolers achieve extremely low temperatures, less than 100 K (-280 F), far colder than is possible with thermoelectric refrigerators. Because CryoRay coolers are solid-state devices with no moving parts or fluids, they are very reliable, generate no vibrations and require no maintenance.

ThermoDynamic Films Headquarter Location

1313 Madrid Rd

Santa Fe, New Mexico, 87505,

United States

505-216-6665

Latest ThermoDynamic Films News

Optical Refrigeration for Dramatically Improved Cryogenic Technology

Dec 31, 2020

Award Information Award End Date (Contract End Date):2014-10-31 Small Business Information DUNS:828743125 Contact: Mansoor Sheik-Bahae 800 Yale Blvd. Abstract ABSTRACT: Optical refrigeration is currently the only demonstrated all-solid-state cryocooling technology. Optical cryocoolers are devices that use laser light to cool small crystal or glass cooling elements. The cooling element absorbs the laser light and reradiates it at higher energy, an example of anti-Stokes fluorescence. The difference between the energy of the outgoing and incoming light comes from the thermal energy of the cooling element, which in turn becomes colder. In Phase I of this STTR program, the collaboration of ThermoDynamic Films LLC (TDF) and the University of New Mexico (UNM) has cooled an optical-refrigerator cooling element comprised of an ytterbium-doped yttrium lithium fluoride crystal from room temperature to 123 K with about 2% efficiency. This is the world record in optical refrigeration and an important step toward revolutionizing cryogenic systems for sensor applications. This Phase II proposal addresses the improvement and integration of the key components of an optical cryocooler to enable the transition of this scientific breakthrough into DoD sensor applications. The TDF/UNM collaboration will improve the performance of optical refrigerators by making them more efficient, less massive and more reliable for space-born applications. BENEFIT: Rugged, compact, quiet cryogenic refrigerators are essential for a wide range of emerging space-borne and ground-based defense and non-proliferation applications. Optical refrigerators have the potential to meet both national security and commercial needs. In particular, cryogenic optical refrigerators are well suited to cooling space-borne radiation detectors and infrared imagers in small satellites where low weight and a lack of vibrations are especially important. For example, optical cryocoolers could cool infrared detectors for the Department of Defense's Space-Based Infrared System. After the successful completion of this Phase II project, TDF, together with a strategic partner, will be prepared to build and market optical cryocoolers for space-based missions and for ground-based applications such as medical devices and handheld thermal imagers. * Information listed above is at the time of submission. *

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