DocumentCode :
565167
Title :
Making non-volatile nanomagnet logic non-volatile
Author :
Dingler, Aaron ; Kurtz, Steve ; Niemier, Michael ; Hu, Xiaobo Sharon ; Csaba, Gyorgy ; Nahas, Joseph ; Porod, Wolfgang ; Bernstein, Gary ; Li, Peng ; Sankar, Vjiay Karthik
fYear :
2012
fDate :
3-7 June 2012
Firstpage :
476
Lastpage :
485
Abstract :
Field-coupled nanomagnets can offer significant energy savings at iso-performance versus CMOS equivalents. Magnetic logic could be integrated with CMOS, operate in environments that CMOS cannot, and retain state without power. Clocking requirements lead to inherently pipelined circuits, and high throughput further improves application-level performance. However, bit conflicts - that will occur in defect free, pipelined ensembles - can make non-volatile logic volatile. Assuming a field-based clock, we present hardware designs to improve steady state non-volatility, and explain how design enhancements could increase clock energy. We then suggest materials-related design levers that could simultaneously deliver non-volatility and low clock energy.
Keywords :
clocks; logic design; magnetic logic; nanomagnetics; performance evaluation; pipeline processing; CMOS; application-level performance improvement; bit conflicts; clock energy; defect-free pipelined ensembles; design enhancements; energy savings; field-based clock; field-coupled nanomagnets; hardware designs; isoperformance; material-related design levers; nonvolatile nanomagnet logic; pipelined circuits; steady state nonvolatility improvement; throughput improvement; volatile logic; Circuit stability; Clocks; Logic gates; Magnetic devices; Magnetization; Stability analysis; Thermal stability; MQCA; NML; Nanomagnet logic; nanotechnology;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Design Automation Conference (DAC), 2012 49th ACM/EDAC/IEEE
Conference_Location :
San Francisco, CA
ISSN :
0738-100X
Print_ISBN :
978-1-4503-1199-1
Type :
conf
Filename :
6241549
Link To Document :
بازگشت