IEEE Transactions on Signal Processing · 2004 · 237 citations · 29 references
EngineeringCommunicationElectrical EngineeringDigital CommunicationPropagationWireless CommunicationsMultipath PropagationPropagation DelayPropagation ModelingScattering ParametersWireless Channel ModelingWireless NetworksGeometry-based Channel ModelingMimoMimo Channel ModelingMimo SystemsMultiple-input Multiple-output CommunicationRadio Wave Propagation EffectsWireless Communication ChannelsWireless Signal Propagation
This paper derives a generic model for the multiple-input multiple-output (MIMO) wireless channel. The model incorporates important effects, including i) interdependency of directions-of-arrival and directions-of-departure, ii) large delay and angle dispersion by propagation via far clusters, and iii) rank reduction of the transfer function matrix. We propose a geometry-based model that includes the propagation effects that are critical for MIMO performance: i) single scattering around the BS and MS, ii) scattering by far clusters, iii) double-scattering, iv) waveguiding, and v) diffraction by roof edges. The required parameters for the complete definition of the model are enumerated, and typical parameter values in macro and microcellular environments are discussed.
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Probability, Random Variables, and Stochastic Processes
Irwin Miller, Anthanasios Papoulis · Technometrics · 1966 · 6.5K citations
Engineering, Mathematics, Physics +14