Graph theory characterizes planar-connected beyond-diagonal RIS architectures realizable on double-layer PCBs and identifies those with the maximum number of degrees of freedom.
Intelligent reflecting surface enhanced wireless network via joint active and passive beamforming
5 Pith papers cite this work. Polarity classification is still indexing.
5
Pith papers citing it
verdicts
UNVERDICTED 5representative citing papers
Movable signals in the frequency domain enable smart radio environments, delivering higher average received power than quantized EGT in LoS MISO and up to four times the power of fixed-frequency RIS systems when paired with fixed intelligent surfaces in NLoS.
A multi-stream tensor alternating optimization method for joint beamforming in RIS-aided multiuser MIMO systems that reduces complexity while approaching benchmark performance.
Develops a physics-based frequency model for LC-RIS and a location-driven phase optimization framework that improves secrecy rates across subcarriers, validated via simulations and hardware experiments.
A physics-based model of LC unit cell dynamics combined with location-based phase design reduces RIS reconfiguration time while maintaining area coverage in TDMA scenarios.
citing papers explorer
-
Low-Complexity Planar Beyond-Diagonal RIS Architecture Design Using Graph Theory
Graph theory characterizes planar-connected beyond-diagonal RIS architectures realizable on double-layer PCBs and identifies those with the maximum number of degrees of freedom.
-
Enabling Smart Radio Environments in the Frequency Domain With Movable Signals
Movable signals in the frequency domain enable smart radio environments, delivering higher average received power than quantized EGT in LoS MISO and up to four times the power of fixed-frequency RIS systems when paired with fixed intelligent surfaces in NLoS.
-
Low-Complexity Tensor Beamforming for RIS-Aided Multiuser Multistream MIMO Systems
A multi-stream tensor alternating optimization method for joint beamforming in RIS-aided multiuser MIMO systems that reduces complexity while approaching benchmark performance.
-
Wideband Illumination with Liquid Crystal Reconfigurable Intelligent Surfaces: Modeling, Design, and Experimental Tests
Develops a physics-based frequency model for LC-RIS and a location-driven phase optimization framework that improves secrecy rates across subcarriers, validated via simulations and hardware experiments.
-
Fast Reconfiguration of Liquid Crystal-RISs: Modeling and Algorithm Design
A physics-based model of LC unit cell dynamics combined with location-based phase design reduces RIS reconfiguration time while maintaining area coverage in TDMA scenarios.