Network


Latest external collaboration on country level. Dive into details by clicking on the dots.

Hotspot


Dive into the research topics where Philip Pan is active.

Publication


Featured researches published by Philip Pan.


IEEE Journal of Solid-state Circuits | 2005

A 90-nm FPGA I/O buffer design with 1.6-Gb/s data rate for source-synchronous system and 300-MHz clock rate for external memory interface

Jeffrey Tyhach; Bonnie I. Wang; Chiakang Sung; Joseph Huang; Khai Nguyen; Xiaobao Wang; Yan Chong; Philip Pan; Henry Kim; Gopinath Rangan; Tzung-Chin Chang; Johnson Tan

As FPGAs integrate into high-speed systems, performance and signal integrity become more important in I/O design. This paper describes the development of an FPGA design to support 1.6 Gb/s differential source-synchronous standards and 300 MHz external memory interfaces. Speed and performance were achieved using circuits such as differential level-shifters with voltage and temperature compensated current sources, on-chip decoupling capacitors, and floating-well output buffers. Programmable drive strength, output impedance matching, hot-socketing compliance, and 3.3-V voltage tolerance are features of the I/O buffer. In addition, DLLs and programmable phase-offset circuits were used to obtain precise timing control. The chip was manufactured on a 90-nm CMOS process.


custom integrated circuits conference | 2004

A 90 nm FPGA I/O buffer design with 1.6 Gbps data rate for source-synchronous system and 300 MHz clock rate for external memory interface

Jeffrey Tyhach; Bonnie I. Wang; Chiakang Sung; Joseph Huang; Khai Nguyen; Xiaobao Wang; Yan Chong; Philip Pan; Henry Kim; Gopinath Rangan; Tzung-Chin Chang; Johnson Tan

As FPGAs become more integrated into high-speed systems, high performance I/O with excellent signal integrity becomes more important. This paper describes how these challenges were met on an FPGA developed to support 1.6 Gbps differential source-synchronous standards and 300 MHz external memory interfaces. The I/O buffer features programmable drive strength, output impedance matching, hot-socketing compliance, and 3.3v tolerance. High-speed performance was achieved using design techniques of differential level-shifters with voltage and temperature compensated current sources, on-chip decoupling capacitors, and floating-well output buffers. In addition, DLLs and programmable phase offset circuits were used to obtain precise timing control. The chip was manufactured on a 90 nm CMOS process.


Archive | 2001

Programmable logic integrated circuit devices with differential signaling capabilities

Bonnie I. Wang; Chiakang Sung; Yan Chong; Philip Pan; Khai Nguyen; Joseph Huang; Xiaobao Wang; In Whan Kim; Gopinath Rangan


Archive | 1993

Supply voltage detection circuit

Yan Chong; Chiakang Sung; Bonnie I. Wang; Khai Nguyen; Joseph Huang; Xiaobao Wang; Philip Pan; In Whan Kim; Gopi Rangan; Tzung-Chin Chang; Surgey Y. Shumarayev; Thomas H. White


field programmable gate arrays | 2009

Architectural enhancements in Stratix-III™ and Stratix-IV™

David Lewis; Elias Ahmed; David Cashman; Tim Vanderhoek; Chris Lane; Andy L. Lee; Philip Pan


Archive | 2002

Programmable high-speed i/o interface

Bonnie I. Wang; Chiakang Sung; Joseph Huang; Khai Nguyen; Philip Pan


Archive | 2005

Multiple data rate interface architecture

Philip Pan; Chiakang Sung; Joseph Huang; Yan Chong; Bonnie I. Wang


Archive | 2002

Input buffer for multiple differential I/O standards

Jonathan Chung; In Whan Kim; Philip Pan; Chiakang Sung; Bonnie I. Wang; Xiaobao Wang; Yan Chong; Gopinath Rangan; Khai Nguyen; Tzung-Chin Chang; Joseph Huang


Archive | 2005

Loop circuitry with low-pass noise filter

Yan Chong; Joseph Huang; Chiakang Sung; Philip Pan; Tzung-Chin Chang


Archive | 2001

Dual-port SRAM in a programmable logic device

Philip Pan; Chiakang Sung; Joseph Huang; Bonnie I. Wang; Khai Nguyen; Xiaobao Wang; Gopinath Rangan; In Whan Kim; Yan Chong

Collaboration


Dive into the Philip Pan's collaboration.

Researchain Logo
Decentralizing Knowledge