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Bulletin of the American Physical Society

An Ultra-Wideband Cross-Correlation Radiometer for Mesoscopic Experiments

Ryan Christopher Toonen, Cyrus Haselby, Hua Qin, M. A. Eriksson, Robert H. Blick

Published Mar 7, 2007• 0 citations
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We have designed, built, and tested a cross-correlation radiometer for detecting quantum statistical fluctuations in mesoscopic experiments. We present the details of our design and the results of our characterization. Our instrument operates over the X- and Ku-bands (8-18 GHz). Digital signal processing techniques are used to provide robustness against instrumentation drifts and offsets. The economized version of our instrument can detect, with sufficient correlation efficiency, noise signals having power levels as low as 10 fW. The modularity of our design allows one to easily alter the specifications (such as the bandwidth and the sensitivity) by simply replacing individual components.

IEEE Transactions on Instrumentation and Measurement•Aug 4, 2008•7 citations
We have designed, built, and tested a cross-correlation radiometer for detecting quantum statistical fluctuations in mesoscopic experiments. We present the details of our design and the results of our characterization. Our instrument operates over the X- and Ku-bands (8-18 GHz). Digital signal processing techniques are used to provide robustness against instrumentation drifts and offsets. The economized version of our instrument can detect, with sufficient correlation efficiency, noise signals having power levels as low as 10 fW. The modularity of our design allows one to easily alter the specifications (such as the bandwidth and the sensitivity) by simply replacing individual components.