On-off frequency-shift keying for wideband fading channels
EURASIP Journal on Wireless Communications and Networking
The noncoherent rician fading Channel-part I: structure of the capacity-achieving input
IEEE Transactions on Wireless Communications
Noncoherent Rician fading Channel-part II: spectral efficiency in the low-power regime
IEEE Transactions on Wireless Communications
Capacity and mutual information of wideband multipath fading channels
IEEE Transactions on Information Theory
The capacity of discrete-time memoryless Rayleigh-fading channels
IEEE Transactions on Information Theory
Broad-band fading channels: signal burstiness and capacity
IEEE Transactions on Information Theory
Bandwidth scaling for fading multipath channels
IEEE Transactions on Information Theory
Spectral efficiency in the wideband regime
IEEE Transactions on Information Theory
IEEE Transactions on Information Theory
Capacity-achieving probability measure for conditionally Gaussian channels with bounded inputs
IEEE Transactions on Information Theory
Characterization and computation of optimal distributions for channel coding
IEEE Transactions on Information Theory
MIMO Channels in the Low-SNR Regime: Communication Rate, Error Exponent, and Signal Peakiness
IEEE Transactions on Information Theory
On Noncoherent MIMO Channels in the Wideband Regime: Capacity and Reliability
IEEE Transactions on Information Theory
On approaching wideband capacity using multitone FSK
IEEE Journal on Selected Areas in Communications
The impact of hard-decision detection on the energy efficiency of phase and frequency modulation
IEEE Transactions on Wireless Communications
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In this paper, the performance of signaling strategies with high peak-to-average power ratio is analyzed in both coherent and noncoherent fading channels. Two modulation schemes, namely on-off phase-shift keying (OOPSK) and on-off frequency-shift keying (OOFSK), are considered. The optimal detector structures are identified and analytical expressions for the error probabilities are obtained for arbitrary constellation sizes. Numerical techniques are employed to compute the error rates. It is concluded that increasing the peakedness of the signals results in reduced error rates for a given power level and hence equivalently improves the energy efficiency for fixed error probabilities.