Novel magnetic architectures for next generation electric vehicles

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Title
Novel magnetic architectures for next generation electric vehicles

CoPED ID
edb47e0c-e422-4795-8f74-cff3dc38be47

Status
Closed


Value
No funds listed.

Start Date
Sept. 30, 2019

End Date
Sept. 30, 2023

Description

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The project will develop high performance permanent magnet materials based on Nd-Fe-B materials for automotive applications. This research will be guided by computer modelling being performed by another PhD student project. This will include the use of coatings, graded materials and investigation of novel microstructures and grain designs.
Thin films will be deposited using a new multi-technique deposition system to develop new materials and microstructures. Novel powders will be fabricated using new powder processing facilities at the Department's Royce Translational Centre (including gas atomisation, powder milling and plasma spheroidisation) and create bulk specimens using spark plasma sintering (SPS) and vacuum sintering with aligned powder grains.
We will use a new SQUID/VSM magnetometer (HRI funded; 7T magnetic field) to measure temperature-dependent magnetic properties. Crystal structure, microstructure and element distributions will be characterised using electron microscopy techniques (SEM, EDX, EBSD), glow discharge optical emission spectroscopy, X-ray diffraction and X-ray tomography; the latter will include central facilities beamtime applications to simultaneously characterise grain positions and orientations.
The modelling that will guide this project will use finite element and finite difference micromagnetic packages with advanced microstructural generation to simulate magnetic properties. It will explore the effects of grain size, shape and boundaries, and compositional variation, secondary phases, diffusion effects and porosity. Finally, it will use micromagnetic simulation outcomes to inform large-scale FEM simulations for bulk property predictions. Materials properties established through the experimental programme will be fed back into the models.
The project is supported by VW and will involve a three-month placement at their Research Centre in Wolfsburg, Germany.

University of Sheffield LEAD_ORG
Volkswagen Ag STUDENT_PP_ORG

Daniel Allwood SUPER_PER

Subjects by relevance
  1. Simulation
  2. Magnetic properties
  3. Microstructures
  4. Porosity
  5. Spectroscopy

Extracted key phrases
  1. Novel magnetic architecture
  2. High performance permanent magnet material
  3. Novel powder
  4. Novel microstructure
  5. Dependent magnetic property
  6. New material
  7. Material property
  8. New powder processing facility
  9. Generation electric vehicle
  10. T magnetic field
  11. B material
  12. Phd student project
  13. Powder grain
  14. Use
  15. Bulk property prediction

Related Pages

UKRI project entry

UK Project Locations