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Dive into the research topics where Donald C. Stark is active.

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Featured researches published by Donald C. Stark.


IEEE Journal of Solid-state Circuits | 1999

A portable digital DLL for high-speed CMOS interface circuits

Bruno W. Garlepp; Kevin S. Donnelly; Jun Kim; Pak Shing Chau; Jared L. Zerbe; Charles Huang; Chanh Tran; Clemenz L. Portmann; Donald C. Stark; Yiu-Fai Chan; Thomas H. Lee; Mark Horowitz

A digital delay-locked loop (DLL) that achieves infinite phase range and 40-ps worst case phase resolution at 400 MHz was developed in a 3.3-V, 0.4-/spl mu/m standard CMOS process. The DLL uses dual delay lines with an end-of-cycle detector, phase blenders, and duty cycle correcting multiplexers. This more easily process portable DLL achieves jitter performance comparable to a more complex analog DLL when placed into identical high-speed interface circuits fabricated on the same test-chip die. At 400 MHz, the digital DLL provides <250 ps peak-to-peak long-term jitter at 3.3 V and operates down to 1.7 V, where it dissipates 60 mW. The DLL occupies 0.96 mm/sup 2/.


symposium on vlsi circuits | 1999

A multiple vendor 2.5-V DLL for 1.6-GB/s RDRAMs

Clemenz L. Portmann; A. Chu; N. Hays; Stefanos Sidiropoulos; Donald C. Stark; Pak Shing Chau; Kevin S. Donnelly; Bruno W. Garlepp

A DLL design and porting methodology have been described to enable multiple vendors to create a 400 MHz DLL from a template design in a 0.25 /spl mu/m, 64 Mb DRAM process.


symposium on vlsi circuits | 1998

A portable digital DLL architecture for CMOS interface circuits

Bruno W. Garlepp; Kevin S. Donnelly; Jun Kim; Pak Shing Chau; Jared L. Zerbe; Charles Huang; Chanh Tran; Clemenz L. Portmann; Donald C. Stark; Yiu-Fai Chan; Thomas H. Lee; Mark Horowitz

A digital DLL was developed which achieves infinite phase range and 40 ps worst-case phase resolution at 400 MHz. The architecture uses dual delay lines with an end-of-cycle detector, phase blenders, and duty cycle correctors. This more easily process-portable DLL achieves jitter performance comparable to a more complex analog DLL, when placed into identical high-speed interface circuits fabricated on the same die in a 0.4 /spl mu/m CMOS process.


Archive | 1998

Delay locked loop circuitry for clock delay adjustment

Kevin S. Donnelly; Pak Shing Chau; Mark Horowitz; Thomas H. Lee; Mark G. Johnson; Benedict Lau; Leung Yu; Bruno W. Garlepp; Yiu-Fai Chan; Jun Kim; Chanh Tran; Donald C. Stark; Nhat Nguyen


Archive | 1996

Protocol for communication with dynamic memory

Richard M. Barth; Frederick Abbot Ware; John B. Dillon; Donald C. Stark; Craig E. Hampel; Matthew Murdy Griffin


Archive | 2003

Power control system for synchronous memory device

Ely K. Tsern; Richard M. Barth; Craig E. Hampel; Donald C. Stark


Archive | 2000

Bus system optimization

Jared L. Zerbe; Kevin S. Donnelly; Stefanos Sidiropoulos; Donald C. Stark; Mark Horowitz; Leung Yu; Roxanne Vu; Jun Kim; Bruno W. Garlepp; Tsyr-Chyang Ho; Benedict Lau


Archive | 2003

Memory device supporting a dynamically configurable core organization

Richard E. Perego; Donald C. Stark; Frederick A. Ware


Archive | 1998

Memory device and system including a low power interface

Ely K. Tsern; Thomas J. Holman; Richard M. Barth; Andrew V. Anderson; Paul G. Davis; Craig E. Hampel; Donald C. Stark; Abhijit M. Abhyankar


Archive | 1998

High performance cost optimized memory with delayed memory writes

Richard M. Barth; Frederick A. Ware; Donald C. Stark; Craig E. Hampel; Paul G. Davis; Abhijit M. Abhyankar; James A. Gasbarro; David Nguyen; Thomas J. Holman; Andrew V. Anderson; Peter D. MacWilliams

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