DocumentCode :
10195
Title :
Low-Power High-Speed Hybrid Temperature Heterogeneous Technology Digital Data Link
Author :
Gupta, Deepika ; Bardin, Joseph C. ; Inamdar, Amol ; Dayalu, A. ; Sarwana, Saad ; Ravindran, Prasana ; Chang, Silvia ; Coskun, Ahmet Hakan ; Sadrabadi, M.G.
Author_Institution :
Hypres, Inc., Elmsford, NY, USA
Volume :
23
Issue :
3
fYear :
2013
fDate :
Jun-13
Firstpage :
1701806
Lastpage :
1701806
Abstract :
High-speed digital data links from 4-K superconductor electronics to room temperature are challenging due to the fact that energy/bit for single flux quantum logic is many (six) orders of magnitude lower than that of standard room-temperature logic. Our approach of building an energy-efficient high-speed data link involves a joint electrical-thermal design of a temperature-distributed architecture using different electronic technologies. This differential digital data link design involves superconductor, multiple cryogenic semiconductor and additional room-temperature semiconductor circuitry. The current design involves three cryogenic semiconductor ICs for integration with a multistage cryocooled digital system. The first cryogenic semiconductor IC is designed to operate at 4 K with a power consumption of 0.3 mW and interface directly with the superconductor differential single flux quantum/dc drivers. For testing it, a superconductor carrier chip containing an analog-to-digital converter has been designed for the HYPRES dual- (4.5 and 20 ) fabrication process.
Keywords :
analogue-digital conversion; logic circuits; monolithic integrated circuits; superconducting integrated circuits; HYPRES dual fabrication; analog-to-digital converter; cryogenic semiconductor integrated circuit; dc drivers; electrical-thermal design; high-speed digital data links; high-speed heterogeneous technology; hybrid temperature heterogeneous technology; low-power heterogeneous technology; multiple cryogenic semiconductor; power 0.3 mW; semiconductor circuitry; single flux quantum logic; superconductor carrier chip; superconductor differential single flux quantum; superconductor electronics; temperature 293 K to 298 K; temperature 4 K; Cryogenic SiGe amplifier; digital receiver; rapid single flux quantum (RSFQ); superconductor;
fLanguage :
English
Journal_Title :
Applied Superconductivity, IEEE Transactions on
Publisher :
ieee
ISSN :
1051-8223
Type :
jour
DOI :
10.1109/TASC.2013.2257231
Filename :
6494589
Link To Document :
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