NASA Logo

NTRS

NTRS - NASA Technical Reports Server

Back to Results
Low-Power SOI CMOS TransceiverThe work aims at developing a low-power Silicon on Insulator Complementary Metal Oxide Semiconductor (SOI CMOS) Transceiver for deep-space communications. RF Receiver must accomplish the following tasks: (a) Select the desired radio channel and reject other radio signals, (b) Amplify the desired radio signal and translate them back to baseband, and (c) Detect and decode the information with Low BER. In order to minimize cost and achieve high level of integration, receiver architecture should use least number of external filters and passive components. It should also consume least amount of power to minimize battery cost, size, and weight. One of the most stringent requirements for deep-space communication is the low-power operation. Our study identified that two candidate architectures listed in the following meet these requirements: (1) Low-IF receiver, (2) Sub-sampling receiver. The low-IF receiver uses minimum number of external components. Compared to Zero-IF (Direct conversion) architecture, it has less severe offset and flicker noise problems. The Sub-sampling receiver amplifies the RF signal and samples it using track-and-hold Subsampling mixer. These architectures provide low-power solution for the short- range communications missions on Mars. Accomplishments to date include: (1) System-level design and simulation of a Double-Differential PSK receiver, (2) Implementation of Honeywell SOI CMOS process design kit (PDK) in Cadence design tools, (3) Design of test circuits to investigate relationships between layout techniques, geometry, and low-frequency noise in SOI CMOS, (4) Model development and verification of on-chip spiral inductors in SOI CMOS process, (5) Design/implementation of low-power low-noise amplifier (LNA) and mixer for low-IF receiver, and (6) Design/implementation of high-gain LNA for sub-sampling receiver. Our initial results show that substantial improvement in power consumption is achieved using SOI CMOS as compared to standard CMOS process. Potential advantages of SOI CMOS for deep-space communication electronics include: (1) Radiation hardness, (2) Low-power operation, and (3) System-on-Chip (SOC) solutions.
Document ID
20030063102
Acquisition Source
Glenn Research Center
Document Type
Conference Paper
Authors
Fujikawa, Gene
(NASA Glenn Research Center Cleveland, OH, United States)
Cheruiyot, K.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Cothern, J.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Huang, D.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Singh, S.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Zencir, E.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Dogan, N.
(North Carolina Agricultural and Technical State Univ. Greensboro, NC, United States)
Date Acquired
August 21, 2013
Publication Date
February 1, 2003
Publication Information
Publication: HBCUs/OMUs Research Conference Agenda and Abstracts
Subject Category
Solid-State Physics
Funding Number(s)
CONTRACT_GRANT: NAG3-2584
Distribution Limits
Public
Copyright
Work of the US Gov. Public Use Permitted.

Available Downloads

There are no available downloads for this record.
No Preview Available