Computational Chemistry to Accelerate Development of Long Wave Infrared Polymers

Project Personnel

Jean-Luc Bredas

Principal Investigator

University of Arizona

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Dennis Lichtenberger

University of Arizona

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Robert Norwood

University of Arizona

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Nicholas Godman

Air Force Research Laboratory

Jeffrey Pyun

University of Arizona

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Jon Njardarson

University of Arizona

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Funding Divisions

Division of Materials Research (DMR), Air Force Research Laboratory (AFRL)

This project will develop plastic optical materials to create lenses, windows, and optical elements for long wave infrared (LWIR) thermal imaging systems. IR thermal imaging and optical technologies are critical across the defense and military sectors, while the potential of IR thermal imaging and detection for applications in consumer electronics, transportation, medical imaging, security and robotics have also been known for decades. However, the high cost of IR cameras & detectors has impeded widespread use of these systems in consumer markets. In the vast majority of these imaging systems, expensive, inorganic semiconductors are required for the fabrication of LWIR optical components. Importantly, one of the common materials used in these efforts, germanium, has been identified as a US critical mineral, a lack of which would profoundly impact US defense capabilities. Hence, the development of new inexpensive and moldable polymers for use as LWIR plastic optics would be a significant advance to lower the cost of LWIR cameras and ensure US national security. 

To address this challenging problem, this interdisciplinary project has been launched in collaboration with scientists at the Air Force Research Laboratory (AFRL), and it will harness a wide range of computational tools and machine learning capabilities to accelerate materials discovery. Thus, the project closely aligns with the Materials Genome Initiative for Global Competitiveness (MGI). 

Designing Materials to Revolutionize and Engineer our Future (DMREF)