- Why traditional electrical steel laminations have limited electrical machine design and how additive manufacturing overcomes these constraints
- How additive manufacturing enables precise geometry control to minimize eddy current losses in 3D magnetic structures
- The emerging machine architectures that leverage 3D magnetic circuits for superior power density
- Real-world applications in aviation electrification and other high-performance sectors where power density is critical
- The current state of soft-magnetic material additive manufacturing and what's on the horizon
Additive Manufacturing of 3D Magnetic Circuits for Electrical Machines
Virtual Webinar
On-demand
About the Virtual Event
Breaking Through the Barriers of Traditional Electrical Machine Design
For decades, electrical machine designers have been constrained by the fundamental limitations of electrical steel laminations—restricted to 2D geometries and unable to form the complex 3D magnetic circuits that could unlock unprecedented performance gains. The result? Compromised power density, significant eddy current losses, and machines that fall short of the demanding requirements for next-generation applications like aviation electrification.
What if we could build magnetic circuits in three dimensions?
This webinar reveals how additive manufacturing is transforming soft-magnetic material processing, finally making 3D magnetic circuits a practical reality. Discover how tailored geometries can dramatically reduce eddy currents while maintaining efficient magnetic pathways—opening the door to entirely new machine architectures that were previously impossible to manufacture.
Inspection of Additive Materials in Advanced 3D Printing
The rapid advancement of 3D printing technology has revolutionized manufacturing processes, enabling the creation of complex geometries and customized components with unprecedented precision. However, defects such as porosity, layer delamination, and material inconsistencies can compromise the structural integrity and performance of printed components. This study demonstrates the application of the Evident DSX2000 digital microscope for comprehensive inspection and analysis of additive materials and printed structures. The microscope's high-resolution imaging and advanced measurement capabilities enable detailed characterization of material microstructure, surface morphology, and defect detection, providing essential quality control for additive manufacturing processes.
What You'll Learn:
Who Should Attend:
This webinar is essential for electrical machine designers, aerospace engineers, additive manufacturing specialists, R&D professionals in electrification, and anyone working on high-power-density applications where conventional design approaches have reached their limits.
Join us to explore how additive manufacturing is reshaping what's possible in electrical machine design—and how you can leverage these breakthrough capabilities in your next project.