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De Gruyter eBooks

SQUID '85 Superconducting Quantum Interference Devices and their Applications

H. D. Hahlbohm, H. Lübbig

Published Dec 31, 1986• 183 citations
Publisher
DOI
10.1515/9783110862393

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This is the first Annual Report for an effort to demonstrate the application of SQUIDs (Superconducting Quantum Interference Device) and SQUID arrays to microwave systems. The application considered here is a microwave voltage-controlled oscillator. We report on the circuit design, numerical simulation, experimental design, and fabrication of the device including tests of the monolithic impedance transformer. Predicted available power is approximately 10 nW into a load impedance of ohm.

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Response of radio frequency superconducting quantum interference devices to electromagnetic interferencea)

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A number of applications of high-temperature superconductor radio frequency superconducting quantum interference devices (rf SQUIDs) require a certain immunity of these sensors against electromagnetic interference (EMI). We have investigated effects of electromagnetic radiation in the high-frequency and ultrahigh-frequency range on various types of rf SQUIDs. It has been found that EMI of sufficient field strength reduces the voltage versus flux transfer function, and thus increases the flux noise of the SQUIDs. SQUIDs with a wire wound tank circuit coil have been found to be more sensitive to EMI than SQUIDs integrated into a superconducting microstrip resonator.

Review of Scientific Instruments•Sep 1, 1995•8 citations
A number of applications of high-temperature superconductor radio frequency superconducting quantum interference devices (rf SQUIDs) require a certain immunity of these sensors against electromagnetic interference (EMI). We have investigated effects of electromagnetic radiation in the high-frequency and ultrahigh-frequency range on various types of rf SQUIDs. It has been found that EMI of sufficient field strength reduces the voltage versus flux transfer function, and thus increases the flux noise of the SQUIDs. SQUIDs with a wire wound tank circuit coil have been found to be more sensitive to EMI than SQUIDs integrated into a superconducting microstrip resonator.