USAF selects Block MEMS for trace chemicals detection

10 July 2016 (Last Updated July 10th, 2016 18:30)

The US Air Force (USAF) has selected infrared detection systems firm Block MEMS for the detection of trace chemicals such as explosive residues, chemical warfare agents and toxic industrial materials.

The US Air Force (USAF) has selected infrared detection systems firm Block MEMS for the detection of trace chemicals such as explosive residues, chemical warfare agents and toxic industrial materials.

The company has secured a $9.8m contract from the Intelligence Advanced Research Projects Activity (IARPA) to this effect.

The award forms part of IARPA's Standoff Illuminator for Measuring Absorbance and Reflectance Infrared Light Signatures (SILMARILS) programme and is managed by the USAF Research Laboratory at Wright-Patterson Air Force Base, Ohio.

"Block's QCL technology combined with advanced data analytics makes it possible to meet the challenging performance goals of the SILMARILS programme"

Under the contract, Block MEMS will develop a system that can detect trace quantities of chemicals at standoff distances of at least 100ft.

The new class of widely tunable, high-pulse energy Quantum Cascade Lasers and detection algorithms to be developed by the company will detect and identify hundreds of chemicals on a wide range of surfaces.

Block MEMS technology vice-president Dr. Anish Goyal said: "Standoff detection of trace chemicals, such as explosive residues, chemical warfare agents and toxic industrial materials, is a critical unmet need within the Intelligence Community, Department of Defense, and Department of Homeland Security.

"There are also many commercial applications for sensitive, standoff chemical detection.

"Block's QCL technology combined with advanced data analytics makes it possible to meet the challenging performance goals of the SILMARILS programme."

The SILMARILS programme aims at developing a portable system for real-time standoff detection and identification of trace chemical residues on surfaces using active infrared spectroscopy at a 30m range.