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Minimum Data Rate Maximization for Uplink Pinching-Antenna Systems
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This paper addresses, for the first time, the uplink performance optimization of multi-user pinching-antenna (PA) systems, recently developed for next-generation wireless networks. By leveraging the unique capabilities of PAs to dynamically configure wireless channels, we focus on maximizing the minimum achievable data rate between devices to achieve a balanced trade-off between throughput and fairness. An effective approach is proposed that separately optimizes the positions of the PAs and the resource allocation. The antenna positioning problem is reformulated into a convex one, while a closed-form solution is provided for the resource allocation. Simulation results demonstrate the superior performance of the investigated system using the proposed algorithm over corresponding counterparts, emphasizing the significant potential of PA systems for robust and efficient uplink communication in next-generation wireless networks.
Forward citations
Cited by 3 Pith papers
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Performance Analysis of Pinching-Antenna Systems
Closed-form outage probability and average rate for pinching-antenna systems with waveguide losses, plus the optimal antenna position along the waveguide.
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Graph Neural Network Enabled Pinching Antennas
A bipartite graph attention network (BGAT) solves the joint antenna placement and power allocation problem for pinching antennas to maximize downlink energy efficiency.
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Analytical Optimization for Antenna Placement in Pinching-Antenna Systems
For fairness-based OMA, the optimal pinching-antenna location is the mean of users' x-coordinates and does not depend on their distance from the waveguide; for NOMA it moves exponentially toward the user nearest the w...
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