Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  derive a lor bound on the capacity of discrete-time Rician-fading channels that are selective both in time and frequency. The noncoherent setting is considered, where neither the transmitter nor the receiver knows a priori the actual channel realization. Single-input single-output communications subject to both average and peak por constraints are investigated. The lor bound assumes independent and identically distributed input data and is expressed as a difference beten two terms. The first term is the information rate of the coherent channel with a ighted signal-to-noise ratio that results from the peak-por limitation. The second term is a penalty term, explicit in the Doppler spectrum of the channel, that captures the effect of the channel uncertainty induced by the noncoherent setting. The impact of channel selectivity and por constraints are discussed, and numerical applications on an experimental Rician channel surveyed in an underwater acoustic environment are also provided.
['Jean-Michel Passerieux', 'Francois-Xavier Socheleau', 'Christophe Laot']
I am writing a research paper on a idea Achievable Rates over Doubly Selective Rician-Fading Channels under Peak-Power Constraint
[{"from": "human", "value": "I am writing a research paper on a idea Achievable Rates over Doubly Selective Rician-Fading Channels under Peak-Power Constraint"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely:  derive a lor bound on the capacity of discrete-time Rician-fading channels that are selective both in time and frequency. The noncoherent setting is considered, where neither the transmitter nor the receiver knows a priori the actual channel realization. Single-input single-output communications subject to both average and peak por constraints are investigated. The lor bound assumes independent and identically distributed input data and is expressed as a difference beten two terms. The first term is the information rate of the coherent channel with a ighted signal-to-noise ratio that results from the peak-por limitation. The second term is a penalty term, explicit in the Doppler spectrum of the channel, that captures the effect of the channel uncertainty induced by the noncoherent setting. The impact of channel selectivity and por constraints are discussed, and numerical applications on an experimental Rician channel surveyed in an underwater acoustic environment are also provided."}]