FIRES: Fluid Integrated Reflecting and Emitting Surfaces

This letter introduces the concept of fluid integrated reflecting and emitting surface (FIRES), which constitutes a new paradigm seamlessly integrating the flexibility of fluid-antenna systems (FASs) with the dual functionality of simultaneous transmitting and reflecting reconfigurable intelligent surfaces (STAR-RISs). The potential of the proposed metasurface structure is studied though an FIRES-enabled multicast system based on the energy splitting protocol. In this model, the FIRES is divided into non-overlapping subareas, each functioning as a ‘fluid’ element capable of concurrent reflection and transmission and changing its position of radiation within the subarea. In particular, we formulate an optimization problem for the design of the triple tunable features of the surface unit elements, which is solved via a tailored particle swarm optimization approach. Our results showcase that the proposed FIRES architecture significantly outperforms its conventional STAR-RIS counterpart.

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Publication Details

Journal
IEEE Wireless Communications Letters
Published
2025-08-25
DOI
https://doi.org/10.1109/lwc.2025.3602219
Citations
11
Primary Topic
Silicone and Siloxane Chemistry
Type
article
Field-Weighted Citation Impact
5.70
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article

FIRES: Fluid Integrated Reflecting and Emitting Surfaces

Kai‐Kit Wong, F. Javier López‐Martínez, Farshad Rostami Ghadi, Masoud Kaveh et al.
11 citations
IEEE Wireless Communications Letters
Silicone and Siloxane Chemistry
5.70
article

FIRES: Fluid Integrated Reflecting and Emitting Surfaces

Kai‐Kit Wong, F. Javier López‐Martínez, Farshad Rostami Ghadi, Masoud Kaveh, George C. Alexandropoulos, Chan‐Byoung Chae
article en
11 citations

Abstract

This letter introduces the concept of fluid integrated reflecting and emitting surface (FIRES), which constitutes a new paradigm seamlessly integrating the flexibility of fluid-antenna systems (FASs) with the dual functionality of simultaneous transmitting and reflecting reconfigurable intelligent surfaces (STAR-RISs). The potential of the proposed metasurface structure is studied though an FIRES-enabled multicast system based on the energy splitting protocol. In this model, the FIRES is divided into non-overlapping subareas, each functioning as a ‘fluid’ element capable of concurrent reflection and transmission and changing its position of radiation within the subarea. In particular, we formulate an optimization problem for the design of the triple tunable features of the surface unit elements, which is solved via a tailored particle swarm optimization approach. Our results showcase that the proposed FIRES architecture significantly outperforms its conventional STAR-RIS counterpart.

IEEE Wireless Communications LettersVol. 14(11)
Universidad de Granada (ES), Yonsei University (KR), National and Kapodistrian University of Athens (GR), Torrington Hospital (GB), University College London (GB), Aalto University (FI)
Affordable and clean energy
Openalex Percentile: Top 3%
Silicone and Siloxane Chemistry
5.70
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FIRES: Fluid Integrated Reflecting and Emitting Surfaces — Kai‐Kit Wong, F. Javier López‐Martínez, et al. · IEEE Wireless Communications Letters (2025) | TGRS Research Map | TGRS