Energy-Efficient Single Flux Quantum Technology
Энергоэффективная технология одноквантовой логики
2011-01-07
SCID: 54.1/u5dn3crm
Discuss with AI
ERSFQ/eSFQRSFQ logiccryosystem designenergy-efficient superconducting logicsingle flux quantum technology
Figures from the paper
Abstract (AI)
Figures of merit connecting processing capabilities with power dissipated (OpS/Watt, Joule/bit, etc.) are becoming dominant factors in choosing technologies for implementing the next generation of computing and communication network systems. Superconductivity is viewed as a technology capable of achieving higher energy efficiencies than other technologies. Static power dissipation of standard RSFQ logic, associated with dc bias resistors, is responsible for most of the circuit power dissipation. In this paper, we review and compare different superconductor digital technology approaches and logic families addressing this problem. We present a novel energy-efficient single flux quantum logic family, ERSFQ/eSFQ. We also discuss energy-efficient approaches for output data interface and overall cryosystem design.
Key Findings
1
It presents ERSFQ/eSFQ, a novel energy-efficient single-flux-quantum logic family, and discusses efficient output interfaces and cryosystem design.
2
Processing-efficiency metrics such as operations per watt and joules per bit are increasingly important for selecting computing and communication technologies.
3
Static power dissipation from DC bias resistors constitutes most of the power consumption in standard RSFQ logic.
4
Superconducting technologies are identified as promising candidates for higher energy efficiency than competing technologies.
5
The paper reviews and compares superconducting digital technologies and logic families designed to reduce RSFQ static power dissipation.
Research Object
superconductor digital technologies and logic families, including RSFQ and ERSFQ/eSFQ circuits
Research Subject
energy efficiency and power-dissipation reduction in superconducting logic, output data interfaces, and cryosystem design
Publication Details
Publication Date
2011-01-07
Journal
Publisher
ISSN
Access Type
Author Information
Download PDF
Subscribe to digest