Title :
A high speed reconfigurable gate array for gigahertz applications
Author :
Guo, Jong-Ru ; You, Chao ; Chu, Michael ; Erdogan, Okan ; Kraft, Russell P. ; McDonald, John F.
Author_Institution :
Dept. of Electr., Comput. & Syst. Eng., Rensselaer Polytech. Inst., Troy, NY, USA
Abstract :
This paper describes the implementation of the next generation of a scalable SiGe FPGA in the latest IBM 8HP SiGe process (fT = 210GHz) that serves as an interleaving and de-interleaving block in a high speed reconfigurable data acquisition system. In this paper, different generations of SiGe configurable blocks (basic cells) are presented and measured. The latest generation has a 94% reduction in power consumption (from 71mW to 4.2mW) and an 83% reduction of the propagation delay (from 238ps to 42ps) compared to the first generation design. To demonstrate the SiGe FPGA´s capabilities of handling GHz signals, the SiGe FPGAs are configured as a multiplexer (MUX), de-multiplexer (DEMUX) and pseudo-SERDES. For the IBM 8HP process, the MUX, DEMUX and pseudo-SERDES can achieve a transmission rate of 28Gbps. For the previous IBM 7HP case, the 4:1 multiplexer runs at a transmission rate of 8Gbps. With these design results, the SiGe FPGA is able to process GHz signals such as S and K microwave bands.
Keywords :
Ge-Si alloys; circuit simulation; current-mode logic; elemental semiconductors; field programmable gate arrays; high-speed integrated circuits; low-power electronics; microwave integrated circuits; reconfigurable architectures; silicon; Ge; K microwave bands; S microwave bands; Si; SiGe; SiGe FPGA; SiGe configurable blocks; deinterleaving; demultiplexer; high speed reconfigurable data acquisition system; high speed reconfigurable gate array; interleaving; multiplexer; pseudo-SERDES; reduced power consumption; reduced propagation delay; Data acquisition; Energy consumption; Field programmable gate arrays; Germanium silicon alloys; Interleaved codes; Multiplexing; Power generation; Propagation delay; Signal design; Silicon germanium;
Conference_Titel :
VLSI, 2005. Proceedings. IEEE Computer Society Annual Symposium on
Print_ISBN :
0-7695-2365-X
DOI :
10.1109/ISVLSI.2005.8