Optimal positions for massive movable antennas in near-field channels are the roots of polynomials solving specific ODEs, with a closed-form asymptotic solution that improves spectral efficiency.
Fluid antenna systems
4 Pith papers cite this work. Polarity classification is still indexing.
4
Pith papers citing it
representative citing papers
Movable antennas at the base station, jointly optimized with beamforming, deliver substantial gains in worst-case sum rate for vehicular networks despite imperfect CSI.
DSM-PA uses differential encoding with embedded Alamouti coding and position-based index modulation to enable noncoherent transmission and full transmit diversity in pinching-antenna systems over Rician channels.
A dimensional scaling law for continuous fluid-antenna high-SNR probability remains accurate for a two-user MMSE setup, and per-user high-SINR probability can exceed the single-user HSP despite interference.
citing papers explorer
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Near-Field Communication with Massive Movable Antennas: An Electrostatic Equilibrium Perspective
Optimal positions for massive movable antennas in near-field channels are the roots of polynomials solving specific ODEs, with a closed-form asymptotic solution that improves spectral efficiency.
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Movable-Antenna Enabled Robust Vehicular Consumer Networks Under Imperfect CSI
Movable antennas at the base station, jointly optimized with beamforming, deliver substantial gains in worst-case sum rate for vehicular networks despite imperfect CSI.
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Differential Spatial Modulation with Transmit Diversity for Pinching-Antenna Systems
DSM-PA uses differential encoding with embedded Alamouti coding and position-based index modulation to enable noncoherent transmission and full transmit diversity in pinching-antenna systems over Rician channels.
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Spatial Limits of Fluid Antenna Systems
A dimensional scaling law for continuous fluid-antenna high-SNR probability remains accurate for a two-user MMSE setup, and per-user high-SINR probability can exceed the single-user HSP despite interference.