Develops two-stage optimization for single-user and alternating optimization for multi-user pinching-antenna systems, proving position independence from beamforming and algorithm convergence while showing SE-EE gains and robustness.
On the performance of pinching-antenna systems (PASS) with orthogonal and non-orthogonal multiple access
5 Pith papers cite this work. Polarity classification is still indexing.
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UNVERDICTED 5representative citing papers
A two-stage framework recasts high-dimensional channel acquisition as geometric localization and constructs oracle-guided access codebooks under OS, SA, and SM modes to improve uplink random access in SWANs.
JSACC dynamically switches between secrecy and covert modes using RIS, derives closed-form outage probability and ergodic rate, shows diversity order depends on Nakagami parameters and RIS elements, and outperforms conventional secrecy communication in simulations.
Pinching-antenna systems with in-waveguide attenuation achieve superior secrecy outage probability and ergodic secrecy capacity compared to conventional fixed-antenna systems.
PASS-NOMA achieves lower blockage outage and higher ergodic rates than PASS-OMA, with further gains as the number of pinching antennas increases.
citing papers explorer
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Spectral and Energy Efficiency Tradeoff for Pinching-Antenna Systems
Develops two-stage optimization for single-user and alternating optimization for multi-user pinching-antenna systems, proving position independence from beamforming and algorithm convergence while showing SE-EE gains and robustness.
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Access Protocols for Segmented Waveguide-Enabled Pinching-Antenna Systems (SWANs)
A two-stage framework recasts high-dimensional channel acquisition as geometric localization and constructs oracle-guided access codebooks under OS, SA, and SM modes to improve uplink random access in SWANs.
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Joint Secrecy and Covert Communication (JSACC): An Enhanced Physical Layer Security Approach
JSACC dynamically switches between secrecy and covert modes using RIS, derives closed-form outage probability and ergodic rate, shows diversity order depends on Nakagami parameters and RIS elements, and outperforms conventional secrecy communication in simulations.
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Physical Layer Security Performance of Pinching-Antenna Systems With In-Waveguide Attenuation
Pinching-antenna systems with in-waveguide attenuation achieve superior secrecy outage probability and ergodic secrecy capacity compared to conventional fixed-antenna systems.
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Performance Analysis of Pinching Antenna Systems Enabled NOMA Communications
PASS-NOMA achieves lower blockage outage and higher ergodic rates than PASS-OMA, with further gains as the number of pinching antennas increases.