A 183-GHz Schottky diode receiver with 4 dB noise figure
Paper i proceeding, 2019
Atmospheric science based on space-borne millimeter wave measurements require reliable and state-of-the art receivers. In particular, the water vapor line at 183.3 GHz motivates the development of sensitive mixers at this frequency. Traditional assembly techniques employed in the production of Schottky diode receivers involve flip-chip mounting and soldering of discrete dies, which prohibit the implementation of reliable and repeatable production processes. In this work, we present a subharmonic 183 GHz mixer implementing a repeatable assembly method using beamlead Schottky diodes. The mixer was integrated with a InP HEMT MMIC low noise intermediate frequency amplifier resulting in a record-low receiver noise temperature of 450 K at 1 mW of local oscillator power measured at room-temperature. The measured Allan time was 10 s and the third order local oscillator spurious power was less than -60 dBm. The proposed assembly method is of particular importance for space-borne missions but also applicable to a wide range of terahertz applications.
heterodyne receivers
Schottky diodes
HEMTs
LNAs
mixers
front-ends
space instrumentation
thin-film circuits
noise characterization
Författare
Martin Anderberg
Omnisys Instruments
Peter Sobis
Omnisys Instruments
Gigahertzcentrum
Chalmers, Mikroteknologi och nanovetenskap, Terahertz- och millimetervågsteknik
Vladimir Drakinskiy
Chalmers, Mikroteknologi och nanovetenskap, Terahertz- och millimetervågsteknik
Gigahertzcentrum
Joel Schleeh
Low Noise Factory AB
Slavko Dejanovic
Omnisys Instruments
Anders Emrich
Omnisys Instruments
Jan Stake
Chalmers, Mikroteknologi och nanovetenskap, Terahertz- och millimetervågsteknik
Gigahertzcentrum
IEEE MTT-S International Microwave Symposium Digest
0149645X (ISSN)
Vol. 2019-June 172-175 8701051978-1-7281-1309-8 (ISBN)
2019 IEEE MTT-S International Microwave Symposium, IMS 2019
Boston, USA,
Boston, USA,
Styrkeområden
Informations- och kommunikationsteknik
Infrastruktur
Kollberglaboratoriet
Nanotekniklaboratoriet
Ämneskategorier
Tillförlitlighets- och kvalitetsteknik
Annan fysik
Annan elektroteknik och elektronik
DOI
10.1109/mwsym.2019.8701051