The electrification of aerospace and unmanned aerial vehicle (UAV) systems has fundamentally shifted the operational demands placed on electric motors, making reliability a strict necessity rather than a mere asset. In these high-stakes environments, an unexpected motor failure can lead to catastrophic system loss, driving an urgent need for fault-tolerant propulsion architectures that can sustain continuous operation or ensure safe, controlled degradation, even under partial electrical or magnetic faults. Achieving this resilience requires innovative machine topologies that offer high power density alongside physical and magnetic phase isolation to prevent fault propagation. To address these complex engineering challenges, the Advanced Course on Design of a Fault-Tolerant Axial-Flux PM Motor with Core-Less Winding provides a comprehensive framework for conceptualizing, simulating, and optimizing specialized high-reliability machines, equipping participants with the analytical and multi-physics tools needed to pioneer the next generation of resilient aerospace propulsion.