Channels, Propagation and Antennas for Mobile Communications

By R. Vaughan, Jørgen Bach Andersen. 2003

720 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Computer Networks and Communications

View Paper: https://www.semanticscholar.org/paper/948e06748ff3ef85447ab7573407a5458de9564d

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In Aerospace Engineering

In Computer Networks and Communications

Citations in the corpus

Effect of antenna gain and group delay variations on pulse-preserving capabilities of ultrawideband antennas (2006, background): “Taking definitions of radio communication channels from [3], UWB antennas are part of UWB radio channels.”
Integrating Compact Printed Antennas Onto Small Diversity/MIMO Terminals (2008, methodology): “comparison [16].”
Statistical Analysis and Performance Evaluation for On-Body Radio Propagation With Microstrip Patch Antennas (2007, background): “BASED ON CHAMBER MEASUREMENT (ALL VALUES ARE IN DECIBELS) the propagation channel [7]–[9], [ 18 ].”
MIMO systems with antenna selection (2004, background): “It is well known that any diversity system with CSI at the transmitter achieves an effective SNR that is equal to the square of the largest singular value of the channel matrix [27].”
Closely-Packed UWB MIMO/Diversity Antenna With Different Patterns and Polarizations for USB Dongle Applications (2012, background): “7 and two antenna elements have a similar mean effective gain (MEG) [17].”
Actual Diversity Performance of a Multiband Diversity Antenna With Hand and Head Effects (2009, methodology): “The ratio between these two Rayleigh signals is the apparent DG [15], [16]”
Ultrawideband propagation channels-theory, measurement, and modeling (2005, background): “ory [30], the reflection coefficient for the specular component ρ is”
A Statistical Learning Approach to Ultra-Reliable Low Latency Communication (2018, background): “cluster) where the received signal is due to a diffuse component only [10], [13].”
Multi-Ray Channel Modeling and Wideband Characterization for Wireless Communications in the Terahertz Band (2015, neutral): “…τ− τ(q)Sca ) + N (i) Dif ∑ u=1 ∣∣∣∣ ( c 4π · fi · (d1 +d2) ) e− 1 2 k( fi)(d1+d2) ·L( fi) ∣∣∣∣ u ·δ ( τ− τ(u)Dif ) (18) The received signal in a multi-ray channel is contributed by not only the LoS path, but also non-line-of-sight (NLoS), which includes the reflected, scattered and diffracted rays.”
Air–Ground Channel Characterization for Unmanned Aircraft Systems—Part I: Methods, Measurements, and Models for Over-Water Settings (2017, background): “In this approximation, which assumes that surface height can be modeled by a Gaussian distribution, the reflection gets multiplied by the factor rF = exp(−C2 r /2) [52].”
Pilot Reuse for Massive MIMO Transmission over Spatially Correlated Rayleigh Fading Channels (2015, background): “…in realistic outdoor propagation environments where the BS is located at an elevated position, channel AS seen by the BS is usually small [8], [26], which indicates that most of the channel power is concentrated in a narrow angle interval, and the channel power outside this angle interval is…”
Radio over fiber for picocellular network architectures (2007, neutral): “, [1], [2], [62], and [63] for an overview).”
Diffraction in mm and Sub-mm Wave Indoor Propagation Channels (2012, methodology): “Whereas diffraction remains without any higher impact at 300 GHz, the delay spread increases by up to 0.5 ns at 60 GHz caused by diffraction.”
Radio wave propagation in potato fields (2005, background): “So received power falls by 12 dB when the distance is doubled [17].”
Survey of Channel and Radio Propagation Models for Wireless MIMO Systems (2007, background): “In practice, the WSSUS condition is never satisﬁed exactly.”
Scattering Analysis for the Modeling of THz Communication Systems (2007, background): “Furthermore, (2) will only deliver accurate results if the surface height distribution is Gaussian and the correlation length of the surface (see below) exceeds the wavelength [11].”
Channel and Propagation Measurements at 300 GHz (2011, methodology): “Here, the open-ended waveguides as available at the Schottky mixer outputs have been measured to provide a gain of 9.9 dBi with a 3 dB half power beamwidth (HPBW) [ 22 ] of 100 . Alternatively, 26 dBi horn antennas with 10 HPBW are used.”