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Dive into the research topics where Kevin A. Batson is active.

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Featured researches published by Kevin A. Batson.


IEEE Journal of Solid-state Circuits | 2008

An 8T-SRAM for Variability Tolerance and Low-Voltage Operation in High-Performance Caches

Leland Chang; Robert K. Montoye; Yutaka Nakamura; Kevin A. Batson; Richard J. Eickemeyer; Robert H. Dennard; Wilfried Haensch; Damir A. Jamsek

An eight-transistor (8T) cell is proposed to improve variability tolerance and low-voltage operation in high-speed SRAM caches. While the cell itself can be designed for exceptional stability and write margins, array-level implications must also be considered to achieve a viable memory solution. These constraints can be addressed by modifying traditional 6T-SRAM techniques and conceding some design complexity and area penalties. Altogether, 8T-SRAM can be designed without significant area penalty over 6T-SRAM while providing substantially improved variability tolerance and low-voltage operation with no need for secondary or dynamic power supplies. The proposed 8T solution is demonstrated in a high-performance 32 kb subarray designed in 65 nm PD-SOI CMOS that operates at 5.3 GHz at 1.2 V and 295 MHz at 0.41 V.


international solid-state circuits conference | 2011

A 64 Mb SRAM in 32 nm High-k Metal-Gate SOI Technology With 0.7 V Operation Enabled by Stability, Write-Ability and Read-Ability Enhancements

Harold Pilo; Igor Arsovski; Kevin A. Batson; Geordie Braceras; John A. Gabric; Robert M. Houle; Steve Lamphier; Frank Pavlik; Adnan Seferagic; Liang-Yu Chen; Shang-Bin Ko; Carl J. Radens

A 64Mb SRAM macro is fabricated in a 32nm high-k metal-gate (HKMG) SOI technology [1]. Figure 14.1.1 shows the 0.154μm2 bitcell (BC). A 2× size reduction from the previous 45nm design [2] is enabled by an equal 2× reduction in BC area. No corner rounding of BC gates allows tighter overlay of gate electrode and active area. The introduction of HKMG provides a significant reduction in the equivalent oxide thickness, thereby reducing the Vt mismatch. This reduction allows aggressive scaling of device dimensions needed to achieve the small area footprint. A 0.7V VDDMIN operation is enabled by three assist features. Stability is improved by a bitline (BL) regulation scheme. Enhancements to the write path include an increase of 40% of BL boost voltage. Finally, a BC-tracking delay circuit improves both performance and yield across the process space.


symposium on vlsi circuits | 2007

6.6+ GHz Low Vmin, read and half select disturb-free 1.2 Mb SRAM

Rajiv V. Joshi; R. Houle; Kevin A. Batson; D. Rodko; Pradip Patel; William V. Huott; Robert L. Franch; Yuen H. Chan; Donald W. Plass; S. Wilson; P. Wang

A fully functional read and half select disturb-free 1.2 Mb SRAM is demonstrated. Measured results show an operating range of 0.4 V to 1.5 V and -25degC to 100degC, speed of 6.6+ GHz at IV, 25degC and yield of 90-100%.


Archive | 2000

DRAM CAM CELL WITH HIDDEN REFRESH

Kevin A. Batson; Robert E. Busch; Garrett Stephen Koch


Archive | 2001

Method for combining refresh operation with parity validation in a DRAM-based content addressable memory (CAM)

Kevin A. Batson; Robert E. Busch; Albert M. Chu; Ezra D. B. Hall


Archive | 1996

Four device SRAM cell with single bitline

Kevin A. Batson; Robert Anthony Ross


Archive | 2003

High reliability content-addressable memory using shadow content-addressable memory

Kevin A. Batson; Geordie Braceras; Robert E. Busch; Gary Koch


Archive | 2009

Programmable pulsewidth and delay generating circuit for integrated circuits

Rajiv V. Joshi; Robert M. Houle; Kevin A. Batson


Archive | 2007

METHOD AND APPARATUS FOR CALIBRATING INTERNAL PULSES IN AN INTEGRATED CIRCUIT

Rajiv V. Joshi; Robert L. Franch; Robert M. Houle; Kevin A. Batson


Archive | 2003

Redundant array architecture for word replacement in cam

Kevin A. Batson; Robert E. Busch; Gary Koch; Fred J. Towler; Reid A. Wistort

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