Airy beamforming with bending trajectories enables obstacle-avoiding multi-user access in near-field communications via hierarchical training and hybrid precoding without full CSI.
Learning-based blockage-resilient beam training in near-field terahertz communications
4 Pith papers cite this work. Polarity classification is still indexing.
fields
eess.SP 4years
2026 4verdicts
UNVERDICTED 4representative citing papers
Holographic Airy beamforming on reconfigurable surfaces generates curved trajectories in THz to bypass blockages, yielding over 10 dB received power gain versus traditional arrays in simulations.
The work introduces a two-stage non-uniform polar codebook and a fast-scanning 1D codebook for Airy beam training that cut overhead by 54% and 93% respectively versus prior hierarchical methods while preserving spectral efficiency.
Derives closed-form throughput expressions for beamfocusing (with optimal dwell time accounting for defocusing) and caustic beamforming (invariant to user speed), plus an analytically established overhead threshold that vanishes at high frequencies favoring CB.
citing papers explorer
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Hybrid Digital and Analog Airy Beamforming for Near-Field Multi-User Communications
Airy beamforming with bending trajectories enables obstacle-avoiding multi-user access in near-field communications via hierarchical training and hybrid precoding without full CSI.
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Holographic Airy Beamforming: Curved Trajectory Optimization for Blockage-Resilient Terahertz Communications
Holographic Airy beamforming on reconfigurable surfaces generates curved trajectories in THz to bypass blockages, yielding over 10 dB received power gain versus traditional arrays in simulations.
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Efficient Airy Beam Training for Quasi-LoS Terahertz Near-Field Communications
The work introduces a two-stage non-uniform polar codebook and a fast-scanning 1D codebook for Airy beam training that cut overhead by 54% and 93% respectively versus prior hierarchical methods while preserving spectral efficiency.
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Throughput Analysis for Near-Field Mobile Communications: Beamfocusing or Caustic Beamforming?
Derives closed-form throughput expressions for beamfocusing (with optimal dwell time accounting for defocusing) and caustic beamforming (invariant to user speed), plus an analytically established overhead threshold that vanishes at high frequencies favoring CB.