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High-Impact Technology Portfolios

The technologies included here are anticipated to be high impact technologies with good commercial potential. These technologies have significant intellectual property portfolios available for licensing and involve current Argonne development programs. Argonne is seeking industrial partners to collaborate in the further development of these technologies into successful commercial products and will consider a range of partnering scenarios from licensing to start-up companies.

  • OXYGEN SENSOR (pdf 933KB) pdfA high-temperature, low-cost oxygen sensor is uniquely suited for industrial process and automotive applications. It can withstand temperatures up to 1600oC and requires no external reference air system, allowing it to be placed close to the combustion process for faster and more accurate monitoring.
  • TES MICROBOLOMETER (pdf 52.1KB) Microbolometers, used as detectors in thermal cameras, are extremely sensitive instruments that measure electromagnetic radiation with great accuracy. Argonne has invented a novel method for controlling the sensitivity of transition edge superconduction (TES) microbolometers that enable the creation of large TES devices.

  • NANOSTRUCTURED CATALYTIC MEMBRANES (pdf 90.7KB) Argonne has developed a unique method of generating membranes that offer superior catalytic characteristics than those currently available on the market. The technology is based on the ability to coat anodic aluminum oxide membranes with a variety of different materials that enhance the catalytic effect.

  • HYDROGEN SENSOR (pdf 49.0KB)As most people know, hydrogen is an explosive gas. Argonne’s novel hydrogen sensor provides a rapid, highly selective, low power and cost effective method for detection that overcomes some of the limitations of other hydrogen sensors on the market.

  • METAL DUSTING (pdf 51.4KB) Metal dusting is a corrosive phenomenon that occurs during many processes in the chemical and petrochemical industries. Argonne has developed new alloys that are resistant to such corrosive effects and could lead to reformers with greatly increased efficiency.

  • SEPARATIVE BIOREACTOR (pdf 242KB) Argonne scientists have coupled the process of electrodeionization (production of ultrapure water) with the production of chemicals using a biological organism in an exciting novel bioprocessing apparatus, termed the separative bioreactor.

  • MULTIPORT DRYER TECHNOLOGY (pdf 93.0KB) In paper manufacturing, one of the most expensive procedures is the drying process, where the wet paper is passed over dozens of steam-filled cylinder dryers. Argonne has modified such a dryer so that the heat transfer is much more effective, allowing for increased heat transfer and hence drying capacity.

  • ANTISCATTER GRIDS (pdf 71.3KB) Medical imaging is an important tool in medical science. Argonne scientists have developed unique x-ray scatter grids and nuclear collimators using LIGA fabrication that improve image quality, an important aid to the correct diagnosis.

  • CERAMICRETE (.pdf 694KB) Ceramicrete is a new generation material that combines many of the best properties of Portland cement and fired ceramic materials. Ceramicrete's superior strength, controlled setting times and inflammability make it highly desirable for many new applications. Read more about development of Ceramicrete for building and dental materials, oil and gas well bore hole sealant and waste stabilization. To order Ceramicrete samples...

  • Near-Frictionless Carbon (.pdf 672KB) Argonne has developed a family of near-frictionless carbon films that provide ultra-low friction and superior wear resistance in mechanical applications involving rolling, sliding and rotating contacts. The coatings can be applied to a wide range of materials, including steel, aluminum and titanium alloys, glass, ceramics and hard, high-temperature plastics. This document provides a concise overview of the features and applications for NFCs.

  • Li-Ion Batteries with Longer Life, Lower Cost and Better Safety (pdf. 1.76MB) Argonne is developing advanced materials for all components of lithium-ion batteries. The principal goals relate to scaling the technology for higher power applications in transportation. However, spin-off opportunities will improve the economics, safety and performance in existing and future consumer devices such as cellular phones and laptop computers.

  • Membrane-Based Separative Bioreactor Integrates Bioconversion and Downstream Processing. Biological feedstocks and bioprocessing offer distinct advantages over traditional chemical processing including more benign solvents and temperature conditions and lower energy usage. Argonne researchers have developed a novel membrane-based separative bioreactor that offers a dramatically reduced cost of producing chemicals by bioconversion.

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