This PhD thesis explores the challenges and solutions at the intersection of autonomous mobile robots (AMRs) and real-time video streaming, aiming to improve both robot control and communication systems. It begins by digging into the control strategies that drive AMRs, particularly focusing on Model Predictive Control (MPC) and Dynamic Programming (DP) to optimize decision-making and navigation. The research then shifts to industrial vehicles, proposing a fault-tolerant system designed to detect encoder sensor failures during motor speed control, which improves safety and reliability in real-world applications. The thesis also investigates the use of drones for tasks like surveillance and rescue, addressing the challenge of maintaining high-quality video streams despite fluctuating network conditions. A novel approach using Nonlinear MPC is introduced to optimize drone altitudes, ensuring clear video transmission and efficient altitude control. Finally, the thesis presents an adaptive bitrate algorithm, RT-MPC, to enhance video quality in real time by adjusting to network fluctuations. This work bridges the gap between autonomous robotics and video streaming, providing practical solutions for both fields.

Autonomous mobile robots

Racanelli, Vito Andrea
2025

Abstract

This PhD thesis explores the challenges and solutions at the intersection of autonomous mobile robots (AMRs) and real-time video streaming, aiming to improve both robot control and communication systems. It begins by digging into the control strategies that drive AMRs, particularly focusing on Model Predictive Control (MPC) and Dynamic Programming (DP) to optimize decision-making and navigation. The research then shifts to industrial vehicles, proposing a fault-tolerant system designed to detect encoder sensor failures during motor speed control, which improves safety and reliability in real-world applications. The thesis also investigates the use of drones for tasks like surveillance and rescue, addressing the challenge of maintaining high-quality video streams despite fluctuating network conditions. A novel approach using Nonlinear MPC is introduced to optimize drone altitudes, ensuring clear video transmission and efficient altitude control. Finally, the thesis presents an adaptive bitrate algorithm, RT-MPC, to enhance video quality in real time by adjusting to network fluctuations. This work bridges the gap between autonomous robotics and video streaming, providing practical solutions for both fields.
2025
Inglese
Mascolo, Saverio
De Cicco, Luca
Ciminelli, Caterina
Politecnico di Bari
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.14242/188433
Il codice NBN di questa tesi è URN:NBN:IT:POLIBA-188433