| Acronym: SenSat |
| Main Objective: OBJ1.1: Develop a numerical simulation tool for high-capacity Earth-satellite FSO communication OBJ1.2: Integrate gases/particles signatures into the channel simulator OBJ1.3: Explore in simulation the sensing capabilities of FSO satellite network. OBJ2.1: Determine the impact of different gases/particles on the optical wireless beam OBJ2.2: Identify the dominant signatures of different gases/particles in the optical beam OBJ2.3: Build an AI-based model for identifying gases/particles in typical FSO links OBJ3.1: Characterize the impact of sensing features on the communication performance of coherent FSO links OBJ3.2: Maximize achievable capacity for different scenarios / use cases OBJ3.3: Define dominant degrees of freedom for communication encoding OBJ4.1: Exploit coherent DSP to extract gases/particles signatures OBJ4.2: Enhance sensing capabilities by adding extra optical hardware OBJ4.3: Design an optimized ISAC-FSO communication architecture OBJ5.1: Provide experimental support to T2, T3 and T4. OBJ5.2: Validate the proposed sensing methodology in an atmospheric chamber OBJ5.3: Integrate the sensing capabilities with real-time 400 Gbps transmission |
| Reference: 2023.13961.PEX |
| Funding: FCT |
| Start Date: 01-01-2025 |
| End Date: 30-06-2026 |
| Team: Fernando Pedro Pereira Guiomar, Isiaka Ajewale Alimi, Nelson de Jesus Cordeiro Muga, Bruno Tavares Brandão, Manuel José Matias de Freitas, Vitor Diogo Fernandes Correia |
| Groups: Optical Communication Systems and Networking – Av |
| Partners: N/A |
| Local Coordinator: Fernando Pedro Pereira Guiomar |
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Associated Publications
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