Discrete joint design using sparse recovery in FAS anti-jamming communications achieves better worst-case sum-rate than alternating optimization for continuous positions.
Movable-antenna array enha nced beam- forming: Achieving full array gain with null steering
4 Pith papers cite this work. Polarity classification is still indexing.
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2026 4verdicts
UNVERDICTED 4representative citing papers
Movable-antenna trajectories are optimized to maximize the minimum user rate, yielding finite optimal deployment patterns with time allocations in the infinite-speed case and a heuristic for limited speed.
Movable antenna position optimization via DRL in OTFS systems under imperfect CSI, enabled by SBLVI channel estimation, yields higher channel gains than fixed-position antennas in simulations.
Movable antenna systems exhibit a fundamental tradeoff between movement duration for improved channels and transmission time, optimized via 1D search or a fitting method that yields a closed-form speed threshold below which stationary antennas are optimal.
citing papers explorer
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FAS-aided Robust Anti-Jamming Communications: Continuous and Discrete Positioning Designs
Discrete joint design using sparse recovery in FAS anti-jamming communications achieves better worst-case sum-rate than alternating optimization for continuous positions.
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Trajectory Design for Fairness Enhancement in Movable Antennas-Aided Communications
Movable-antenna trajectories are optimized to maximize the minimum user rate, yielding finite optimal deployment patterns with time allocations in the infinite-speed case and a heuristic for limited speed.
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DRL-Based Antenna Position Optimization For MA-Assisted OTFS System Under Imperfect CSI
Movable antenna position optimization via DRL in OTFS systems under imperfect CSI, enabled by SBLVI channel estimation, yields higher channel gains than fixed-position antennas in simulations.
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Fundamental Tradeoff in Movable Antenna Systems: How Long to Move Before Transmission?
Movable antenna systems exhibit a fundamental tradeoff between movement duration for improved channels and transmission time, optimized via 1D search or a fitting method that yields a closed-form speed threshold below which stationary antennas are optimal.