Chow, YC

McGeehan, JP

English

Upper bounds for symbol-error probability are developed for multichannel reception of M-ary phase-shift keying (M-PSK) over frequency-flat Rayleigh-fading channels. Differential coherent demodulation of differentially encoded M-PSK (M-DPSK), pilot-tone aided coherent demodulation of M-PSK (PTA M-CPSK) and pilot-symbol aided coherent demodulation of M-PSK (PSA M-CPSK) are considered in the formulation. The bounds enable the investigation of the effects of fading correlation and unequal average power level between channels using postdetection diversity reception with maximal-ratio combining. Error-performance degradation due to imperfect demodulation effects, such as Doppler spread in M-DPSK schemes, noisy reference signals in PTA M-CPSK, and PSA M-CPSK schemes can be taken into account in the formulation. Exact bit-error probabilities for both binary and quaternary phase-shift keying are also derived.Upper bounds for symbol-error probability are developed for multichannel reception of M-ary phase-shift keying (M-PSK) over frequency-flat Rayleigh-fading channels. Differential coherent demodulation of differentially encoded M-PSK (M-DPSK), pilot-tone aided coherent demodulation of M-PSK (PTA M-CPSK) and pilot-symbol aided coherent demodulation of M-PSK (PSA M-CPSK) are considered in the formulation. The bounds enable the investigation of the effects of fading correlation and unequal average power level between channels using postdetection diversity reception with maximal-ratio combining. Error-performance degradation due to imperfect demodulation effects, such as Doppler spread in M-DPSK schemes, noisy reference signals in PTA M-CPSK, and PSA M-CPSK schemes can be taken into account in the formulation. Exact bit-error probabilities for both binary and quaternary phase-shift keying are also derived

Explore Bristol Research

A new spectrum configuration particularly suited to the transmission of data over SSB mobile ratio networks,”

A.Bateman andJ.McGeehan,“DatatransmissionoverUHFfadingmobile radio channels,”

A.M.D.Turkmani,A.A.Arowojolu,P.A.Jefford,andC.J.Kellett,“An experimentalevaluationoftheperformanceoftwo-branchspaceandpolarization diversity schemes at 1800 MHz,”

An analysis of pilot symbol assisted modulation for Rayleigh-fading channels,”

Bit error rate performance of antenna diversity systems with channel correlation,” in

Coherent detection of M-ary phase-shift keying in the satellite mobile channel with tone calibration,”

Coherent multichannel reception of binary modulated signals with dependent Rician fading,”

Communication Systems and Techniques.

Crosscorrelation between the envelopes of 900 MHz signals received at a mobile radio base station site,”

D.L.NoneakerandM.B.Pursley,“ErrorprobabilityboundsforM-PSK andM-DPSK andselectivefading diversitychannels,” IEEETrans.

Digital Communication Over Fading Channels: A Unified Approach to Performance Analysis.

Dual-pilot tone calibration technique,”

EDGE: Enhanced data rakes for GSM and TDMA/136 evolution,”

Eds., WCDMA for UMTS: Radio Access for ThirdGenerationMobileCommunications.

Effect of fading correlation on the SER performance of M-ary PSK with maximal-ratio combining,”

Equal-gain combining of multichannel DPSK in Doppler-spread fading,”

Error probability for optimal and suboptimal quadratic receivers in rapid Rayleigh fading channels,”

Error probability of binary NFSK and DPSK with postdetection combining over correlated Rician channels,”

Error rates for Rayleigh-fading multichannel reception of

Exact analysis of postdetection combining for DPSK and NFSK systems over arbitrarily correlated Nakagami channels,”

Microwave Mobile Communications.

Mobile Communications Engineering.

Mobile Communications Systems.

Mobile digital communications via tone calibration,”

MRC performance for binary signals in Nakagami fading with general branch correlation,”

Multichannel reception of digital signals over correlated Nakagami fading channels,” in

Narrow band mobile data communication using channel sounding techniques,”

New method of performance analysis for diversity reception correlated Rayleigh-fading signals,”

New Rayleigh fading channel estimator based on PSAM channel sounding technique,” in

On diversity combining for correlated slowly flat-fading Rayleigh channels,” in

On the performance of pilot-aided coherent detection of M-ary PSK carriers in mobile satellite communications,”

Performance of maximal-ratio diversity systems in a correlated Nakagami-fading environment,”

Performance oftone calibration with frequency offsetand imperfect pilot filter,”

Pilot symbol assisted BPSK on Rayleigh-fading channels with diversity: Performance analysis and parameter optimatization,”

Post-detection in Nakagami-fading channels with correlated branches,”

Rayleigh fading compensation for QAM in land mobile radio communications,”

Recent advances in cellular wireless communications,”

Simplified error bound analysisforM-DPSKinfadingchannelswithdiversityreception,”Proc.

TCMP—A modulation and coding strategy for Rician fading channels,”

The implementation of a 16-QAM mobile data system using TTIB-based fading correction techniques,”

Zeidler,and S.McLaughlin, “Performanceanalysisof compactantennaarrayswithMRCincorrelatedNakagamifadingchannels,”

Error-bound formulation for multichannel reception of M-DPSK and pilot-aided M-PSK over Rayleigh-fading channels with postdetection combining

https://research-information.bris.ac.uk/files/2988109/chow04IEEEvt.pdf

Error-bound formulation for multichannel reception of M-DPSK and pilot-aided M-PSK over Rayleigh-fading channels with postdetection combining

Abstract

Similar works

Full text

Available Versions

Explore Bristol Research