A voltage scalable 0.26 V, 64 kb 8T SRAM with 512 cells per bitline is implemented in a 130 nm CMOS process. Utilization of the reverse short channel effect in a SRAM cell design improves cell write margin and read performance without the aid of peripheral circuits. A marginal bitline leakage compensation (MBLC) scheme compensates for the bitline leakage current which becomes comparable to a read current at subthreshold supply voltages. The MBLC allows us to lower Vmin to 0.26 V and also eliminates the need for precharged read bitlines. A floating read bitline and write bitline scheme reduces the leakage power consumption. A deep sleep mode minimizes the standby leakage power consumption without compromising the hold mode cell stability. Fi...
The need for ultra low power circuits has forced circuit designers to scale voltage supplies into th...
With the development of CMOS technology, the performance including power dissipation and operation s...
Abstract--Reduction of leakage power is very important for low power applications. Because these hig...
International audienceSRAM operation at subthreshold/weak inversion region provides a significant po...
This paper presents a 9T multi-threshold (MTCMOS) SRAM macro with equalized bitline leakage and a co...
A 2 W, 100 kHz, 480 kb subthreshold SRAM operating at 0.2 V is demonstrated in a 130 ...
This paper is based on the observation of 8T single ended static random access memory (SRAM) and two...
This paper presents a sub-threshold SRAM, which eliminates bitline (BL) leakage-induced read failure...
In this paper, we present Dynamic Voltage and Frequency Managed 256 x 64 SRAM block in 65nm technolo...
A 5.61 pJ, 16 kb 9T SRAM is implemented in 65nm CMOS technology. A single-ended equalized bitline sc...
In this paper, we present dynamic voltage and frequency Managed 256 x 64 SRAM block in 65 nm technol...
Abstract — The high demand of embedding more and more functionality in a single chip has enforced th...
Abstract- This paper presents a 40-nm 8T SRAM in which bitlines are partially discharged by a select...
This work aims to reduce the read power consumption as well as to enhance the stability of the SRAM ...
Robust high-density subthreshold SRAMs are indispensable for emerging ultra-low power applications s...
The need for ultra low power circuits has forced circuit designers to scale voltage supplies into th...
With the development of CMOS technology, the performance including power dissipation and operation s...
Abstract--Reduction of leakage power is very important for low power applications. Because these hig...
International audienceSRAM operation at subthreshold/weak inversion region provides a significant po...
This paper presents a 9T multi-threshold (MTCMOS) SRAM macro with equalized bitline leakage and a co...
A 2 W, 100 kHz, 480 kb subthreshold SRAM operating at 0.2 V is demonstrated in a 130 ...
This paper is based on the observation of 8T single ended static random access memory (SRAM) and two...
This paper presents a sub-threshold SRAM, which eliminates bitline (BL) leakage-induced read failure...
In this paper, we present Dynamic Voltage and Frequency Managed 256 x 64 SRAM block in 65nm technolo...
A 5.61 pJ, 16 kb 9T SRAM is implemented in 65nm CMOS technology. A single-ended equalized bitline sc...
In this paper, we present dynamic voltage and frequency Managed 256 x 64 SRAM block in 65 nm technol...
Abstract — The high demand of embedding more and more functionality in a single chip has enforced th...
Abstract- This paper presents a 40-nm 8T SRAM in which bitlines are partially discharged by a select...
This work aims to reduce the read power consumption as well as to enhance the stability of the SRAM ...
Robust high-density subthreshold SRAMs are indispensable for emerging ultra-low power applications s...
The need for ultra low power circuits has forced circuit designers to scale voltage supplies into th...
With the development of CMOS technology, the performance including power dissipation and operation s...
Abstract--Reduction of leakage power is very important for low power applications. Because these hig...