Performance and area scaling of 6T SRAM using SOI MOSFET at 32nm node

被引:0
作者
Sharma, Rajni [1 ]
Chopade, S. S. [1 ,2 ]
机构
[1] Sandip Inst Technol & Res Ctr, Dept Elect & Telecommun, Nasik, Maharashtra, India
[2] Savitri Bai Phule Univ Pune, Pune, Maharashtra, India
来源
2015 INTERNATIONAL CONFERENCE ON COMMUNICATION, INFORMATION & COMPUTING TECHNOLOGY (ICCICT) | 2015年
关键词
Static random access memory (SRAM); Static noise margin (SNM); Cell ratio (CR); Pull up ratio (PR); Silicon on insulator (SOI);
D O I
暂无
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
SRAM area is expected to exceed 90% of overall chip area because of the demand for higher performance, lower power, and higher integration. To improve memory density, memory bitcells are scaled to reduce their area by 50% each technology node. High density SRAM bitcells use the smallest devices technology, making SRAM more vulnerable for variations. This variations influence the stability of SRAM. This paper compare six transistors (6T) SOI Static random access memory (SRAM) stability in hold/standby, read and write mode with 6T bulk SRAM at 32nm node. The effect of supply voltage, transistor scaling, word line voltage, and temperature on SRAM stability is analysed. It can be seen from the reading that the performance and area of SRAM can be improve by using SOI, as SOI gives better stability than bulk SRAM at same process parameter. The Data Retention Voltage of SOI SRAM is 50 % small than Bulk SRAM, which mean SOI can operate on smaller voltage than bulk. At same cell ratio SOI gives better performance than bulk SRAM, hence area can be reduced by using SOI MOSFET.
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页数:5
相关论文
共 19 条
[11]  
Rabaey J, 2009, INTEGR CIRCUIT SYST, P1, DOI 10.1007/978-0-387-71713-5
[12]  
Rahman N., 2013, International Journal of Computer Applications, V66
[13]  
Rozeau Olivier, 2011, IEEE T ELECT DEVICES, V58
[14]  
Samsudin K., 2008, SUB 25NM UTB SOI SRA
[15]   STATIC-NOISE MARGIN ANALYSIS OF MOS SRAM CELLS [J].
SEEVINCK, E ;
LIST, FJ ;
LOHSTROH, J .
IEEE JOURNAL OF SOLID-STATE CIRCUITS, 1987, 22 (05) :748-754
[16]  
Shin Changhwan, 2010, IEEE T ELECT DEVICES, V57
[17]  
Sing Jawar, 2013, ROBUST SRAM DESIGN A
[18]  
Wang Jiajing, 2008, ISLPED 08
[19]  
Yadav Shivani., 2013, INT J INFORM COMPUTA, V3, P195