Shimon Moshavi
City University of New York
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Publication
Featured researches published by Shimon Moshavi.
International Journal of Wireless Information Networks | 1996
Shimon Moshavi; Emmanuel Kanterakis; Donald L. Schilling
A new family of multistage low-complexity linear receivers for direct sequence code division multiple access (DS-CDMA) communications is introduced. The objective of the proposed design is to mitigate the effect of multiple access interference (MAI), the most significant limiting factor of user capacity in the conventional DS-CDMA channel. The receivers presented here employ joint detection of multiple users and therefore require knowledge of all the signature codes and their timing. In addition, for a multipath environment, reliable estimates of the received powers and phases are assumed available for maximal ratio RAKE combining. Each stage of the underlying design recreates the overall modulation, noiseless channel, and demodulation process. The outputs of these stages are then linearly combined. The combining weights can be chosen to implement different linear detectors, including the decorrelating and minimum mean square error (MMSE) detectors. In this paper, we focus on implementing the MMSE detector. Simulation results illustrate that significant performance gains can be achieved in both synchronous and asynchronous systems.
military communications conference | 1995
Shimon Moshavi; E.G. Kanterakis; Donald L. Schilling
Direct sequence code division multiple access (DS-CDMA) systems have become a popular choice for use in cellular and personal communications. A new family of multistage low complexity linear receivers for DS-CDMA communications is introduced. The objective of the proposed design is to mitigate the effect of multiple access interference (MAI), the most significant limiting factor of user capacity in the conventional DS-CDMA channel. The receivers presented employ joint detection of multiple users, and therefore require knowledge of all the signature codes and their timing. Each stage of the underlying design recreates the overall modulation, noiseless channel, and demodulation process. The outputs of these stages are then linearly combined. The combining weights can be chosen to implement different linear detectors, including the decorrelating and minimum mean square error (MMSE) detectors. We focus on implementing the MMSE detector. Simulation results illustrate that significant performance gains can be achieved in both synchronous and asynchronous systems.
Archive | 1996
Emmanuel Kanterakis; Shimon Moshavi
Archive | 2000
John Kowalski; Shimon Moshavi; Donald L. Schilling; モシャヴィ シモン; コワルスキー ジョン; エル.シリング ドナルド
Archive | 2007
Schilling Donald L; John Kowalski; Shimon Moshavi
Archive | 2005
John Kowalski; Donald L. Schilling; Shimon Moshavi
Archive | 2003
John Kowalski; Shimon Moshavi; Schilling Donald L
Archive | 1997
Donald L. Schilling; John Kowalski; Shimon Moshavi
Archive | 1997
Donald L. Schilling; John Kowalski; Shimon Moshavi
Archive | 1997
John Kowalski; Donald L. Schilling; Shimon Moshavi