Capuano, Giovanni Maria (2025) Edge AI for Autonomous Spacecraft: Enabling Onboard Intelligence with FPGA Acceleration. [Tesi di dottorato]
|
Documento PDF
capuano_giovanni_maria_38.pdf Visibile a [TBR] Amministratori dell'archivio Download (130MB) | Richiedi una copia |
| Tipologia del documento: | Tesi di dottorato |
|---|---|
| Lingua: | English |
| Titolo: | Edge AI for Autonomous Spacecraft: Enabling Onboard Intelligence with FPGA Acceleration |
| Autori: | Autore Email Capuano, Giovanni Maria giovannimaria.capuano@unina.it |
| Data: | 10 Dicembre 2025 |
| Numero di pagine: | 184 |
| Istituzione: | Università degli Studi di Napoli Federico II |
| Dipartimento: | Ingegneria Elettrica e delle Tecnologie dell'Informazione |
| Dottorato: | Information technology and electrical engineering |
| Ciclo di dottorato: | 38 |
| Coordinatore del Corso di dottorato: | nome email Russo, Stefano sterusso@unina.it |
| Tutor: | nome email Strollo, Antonio Giuseppe Maria [non definito] Petra, Nicola [non definito] Severi, Mariano [non definito] |
| Data: | 10 Dicembre 2025 |
| Numero di pagine: | 184 |
| Parole chiave: | Artificial Intelligence, FPGA-based Acceleration, Autonomous Spacecraft, Object Detection, Relative Navigation, Radiation Tolerance |
| Settori scientifico-disciplinari del MIUR: | Area 09 - Ingegneria industriale e dell'informazione > ING-INF/01 - Elettronica |
| Informazioni aggiuntive: | Ciclo di appartenenza: 38 |
| Depositato il: | 10 Dic 2025 21:05 |
| Ultima modifica: | 12 Ago 2026 05:37 |
| URI: | https://www.fedoa.unina.it/id/eprint/15958 |
Abstract
Artificial intelligence (AI)-driven onboard data processing is a cornerstone of future space missions, enabling autonomous and time-critical decision-making in applications such as planetary exploration, in-orbit servicing, and Earth Observation (EO). Executing AI algorithms directly onboard mitigates the latency and bandwidth constraints inherent to ground-based processing. However, most commercial off-the-shelf edge-AI accelerators lack the radiation tolerance required for long-duration and deep-space missions. Space-qualified Field-Programmable Gate Arrays (FPGAs) provide a robust alternative, combining fault tolerance, low power consumption, and in-flight reconfigurability. This thesis investigates FPGA-based acceleration of deep learning models for real-time target detection in optical Earth observation. The proposed SR-YOLOv5s network integrates a convolutional super-resolution backbone to enhance the recognition of small maritime targets, achieving a mean mAP50 of 0.9272 ± 0.0029 and a 64.5% gain in very small object detection. Implemented on the Microchip PolarFire System-on-Chip with the CoreVectorBlox accelerator, the model achieves 18 fps while consuming less than 2 W of power, demonstrating the feasibility of compact, energy-efficient neural pipelines for size-, weight-, and power-constrained platforms such as CubeSats. Integration of the CoreVectorBlox within the ANHEO autonomous navigation unit demonstrated the advantages of FPGA reconfigurability through bitstream updates, yielding a 3.3× performance improvement and a 50% energy reduction per frame in the satellite detection task. Altogether, the findings establish reconfigurable FPGAs as a key enabler of intelligent and resilient spacecraft, providing the capability to adapt onboard computational resources to evolving mission objectives, operational conditions, and algorithmic developments.
Downloads
Downloads per month over past year
Actions (login required)
![]() |
Modifica documento |


