Bio Nano Centre Ltd
Bio Nano Centre Ltd
1 Projects, page 1 of 1
assignment_turned_in Project2012 - 2017Partners:IBM Research - Almaden, University of Cambridge, TERAVIEW LIMITED, RMRL, Bio Nano Centre Ltd +32 partnersIBM Research - Almaden,University of Cambridge,TERAVIEW LIMITED,RMRL,Bio Nano Centre Ltd,III-V Lab,RU,Teraview Ltd,University of Cambridge,UCL,Nat. Inst. of Info & Communication Tech,Smiths Detection (United Kingdom),Bio Nano Consulting,Home Office,Innovate UK,National Institute of Information and Communications Technology,Smiths Group (United Kingdom),L3Harris (United Kingdom),University of Kassel,Aerospace and Defence KTN,Rutgers State University of New Jersey,Airbus (United Kingdom),Rutgers, The State University of New Jersey,Home Office Science,Smiths-Detection,AIRBUS UK,BNCBIO NANO CONSULTING,Airbus (United Kingdom),UNIVERSITY OF CAMBRIDGE,Nat. Inst. of Info & Communication Tech,IBM,III V Lab,Chemring Technology Solutions (United Kingdom),Agilent Technologies (United States),TeraView (United Kingdom),AOS Technology Ltd,Agilent Technologies (United States)Funder: UK Research and Innovation Project Code: EP/J017671/1Funder Contribution: 6,568,980 GBPThe terahertz (THz) frequency region within the electromagnetic spectrum, covers a frequency range of about one hundred times that currently occupied by all radio, television, cellular radio, Wi-Fi, radar and other users and has proven and potential applications ranging from molecular spectroscopy through to communications, high resolution imaging (e.g. in the medical and pharmaceutical sectors) and security screening. Yet, the underpinning technology for the generation and detection of radiation in this spectral range remains severely limited, being based principally on Ti:sapphire (femtosecond) pulsed laser and photoconductive detector technology, the THz equivalent of the spark transmitter and coherer receiver for radio signals. The THz frequency range therefore does not benefit from the coherent techniques routinely used at microwave/optical frequencies. Our programme grant will address this. We have recently demonstrated optical communications technology-based techniques for the generation of high spectral purity continuous wave THz signals at UCL, together with state-of-the-art THz quantum cascade laser (QCL) technology at Cambridge/Leeds. We will bring together these internationally-leading researchers to create coherent systems across the entire THz spectrum. These will be exploited both for fundamental science (e.g. the study of nanostructured and mesoscopic electron systems) and for applications including short-range high-data-rate wireless communications, information processing, materials detection and high resolution imaging in three dimensions.
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