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Dive into the research topics where Glenn David Golden is active.

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Featured researches published by Glenn David Golden.


international symposium on signals systems and electronics | 1998

V-BLAST: an architecture for realizing very high data rates over the rich-scattering wireless channel

P.W. Wolniansky; Gerard J. Foschini; Glenn David Golden; Reinaldo A. Valenzuela

Information theory research has shown that the rich-scattering wireless channel is capable of enormous theoretical capacities if the multipath is properly exploited. In this paper, we describe a wireless communication architecture known as vertical BLAST (Bell Laboratories Layered Space-Time) or V-BLAST, which has been implemented in real-time in the laboratory. Using our laboratory prototype, we have demonstrated spectral efficiencies of 20-40 bps/Hz in an indoor propagation environment at realistic SNRs and error rates. To the best of our knowledge, wireless spectral efficiencies of this magnitude are unprecedented and are furthermore unattainable using traditional techniques.


IEEE Journal on Selected Areas in Communications | 1999

Simplified processing for high spectral efficiency wireless communication employing multi-element arrays

Gerard J. Foschini; Glenn David Golden; Reinaldo A. Valenzuela; Peter W. Wolniansky

We investigate robust wireless communication in high-scattering propagation environments using multi-element antenna arrays (MEAs) at both transmit and receive sites. A simplified, but highly spectrally efficient space-time communication processing method is presented. The users bit stream is mapped to a vector of independently modulated equal bit-rate signal components that are simultaneously transmitted in the same band. A detection algorithm similar to multiuser detection is employed to detect the signal components in white Gaussian noise (WGN). For a large number of antennas, a more efficient architecture can offer no more than about 40% more capacity than the simple architecture presented. A testbed that is now being completed operates at 1.9 GHz with up to 16 quadrature amplitude modulation (QAM) transmitters and 16 receive antennas. Under ideal operation at 18 dB signal-to-noise ratio (SNR), using 12 transmit antennas and 16 receive antennas (even with uncoded communication), the theoretical spectral efficiency is 36 bit/s/Hz, whereas the Shannon capacity is 71.1 bit/s/Hz. The 36 bits per vector symbol, which corresponds to over 200 billion constellation points, assumes a 5% block error rate (BLER) for 100 vector symbol bursts.


Archive | 2001

Wireless communications system having a space-time architecture employing multi-element antennas at both the transmitter and receiver

Gerard J. Foschini; Glenn David Golden


Archive | 1997

Adaptive communication system and method using unequal weighting of interface and noise

Glenn David Golden; Carol Catalano Martin; Nelson Sollenberger; Jack Harriman Winters


Archive | 1997

Time-varying weight estimation

Israel Bar-David; Glenn David Golden; Thomas L. Marzetta; Nelson Sollenberger; Jack Harriman Winters


IEEE Transactions on Communications | 1998

An equalizer design technique for the PCM modem: a new modem for the digital public switched network

Ender Ayanoglu; Nuri Ruhi Dagdeviren; Glenn David Golden; James Emery Mazo


Archive | 1997

Subspace method for adaptive array weight tracking

Israel Bar-David; Glenn David Golden; Jack Harriman Winters


Archive | 1996

Joint timing, frequency and weight acquisition for an adaptive array

Glenn David Golden; Jack Harriman Winters


Archive | 1996

Artificial fading for frequency offset mitigation

Glenn David Golden


Archive | 1996

Introducing processing delay as a multiple of the time slot duration

Glenn David Golden; Carol Catalano Martin; Jack Harriman Winters

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