Michele Degano

Assistant Professor

University of Nottingham

United Kingdom

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Michele Degano is an Assistant Professor at The University of Nottingham in the United Kingdom. His research focuses on electric machines and motor drives, with recent contributions including the design of induction motors, modeling of synchronous machines, and advancements in winding technologies for sustainable transportation. He is actively engaged in studies pertaining to insulation materials and dielectric properties in electrical engineering applications.

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2022

Collaborators (3)

C. Gerada

University of Nottingham

UNITED KINGDOM

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Petros Karamanakos

Associate Professor

University of Tampere

FINLAND

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Francesco Cupertino

Full Professor

Politecnico di Bari

ITALY

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Michele Degano

Research Interests

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About

Articles (20)

Reduction of Computational Complexity in Modulated Model-Predictive Control for Synchronous Reluctance Motor Drives

Distributed Magnetic Equivalent Circuit Modeling of Synchronous Machines

Continuous Hairpin Winding Technology for Electric Machines Enabling Net Zero Transportation: A Comprehensive Review

Effects of the Floating Capacitor Voltage on the Torque-Speed Characteristic of an Open-End Winding Synchronous Reluctance Motor Drive

Framework for Insulation Thickness Calculation in PD-Free E-Machines for Automotive & Aerospace

High Speed Synchronous Machines: Technologies and Limits

Fillet Radius Impact of Rectangular Insulated Wires on PDIV for Turn-to-Turn Insulation of Inverter-Fed Motors

Additive manufacturing of Nd-Fe-B permanent magnets and their application in electrical machines

Design and Evaluation of Matrix Rotor Induction Motor for High-Torque Low-Speed Applications

Fast Flux Maps Computation of Synchronous Reluctance Machines With and Without Permanent Magnets Assistance

2-DOF Decoupled Discrete Current Control for AC Drives at Low Sampling-to-Fundamental Frequency Ratios

Surface Permanent Magnet Synchronous Machines: High Speed Design and Limits

Decoupled Discrete Current Control for AC Drives at Low Sampling-to-Fundamental Frequency Ratios

Assessment of Edgewise Insulated Wire Bend Radius Impact on Dielectric Properties of Turn-to-Turn Insulation through Thermal Ageing

Fast Assessment of Rotor Barrier Dimensional Allowances in Synchronous Reluctance Machines

PDIV Modelling for Rectangular Wire Turn-to-Turn Insulation of Inverter-Fed Motors through Thermal Ageing

High Speed Permanent Magnet Assisted Synchronous Reluctance Machines – Part I: A General Design Approach

High Speed Permanent Magnet Assisted Synchronous Reluctance Machines – Part II: Performance Boundaries

Accurate Analytical Model for Synchronous Reluctance Machine With Multiple Flux Barriers Considering the Slotting Effect

Modular Power Sharing Control for Bearingless Multithree Phase Permanent Magnet Synchronous Machine

Collaborators (3)

C. Gerada

Petros Karamanakos

Francesco Cupertino

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