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DESCRIPTION:Abstract: Numerous trends are driving the need for advances in 
 electrical power conversion technologies\, including rapid deployment of r
 enewables in the electric power grid and electrification of the transporta
 tion sector. Soft magnetics technologies play a critical role as an enable
 r for state-of-art power electronics conversion topologies and systems abl
 e to fully exploit the latest advances in wide bandgap (WBG) and ultrawide
  bandgap (UWBG) semiconductor-based switching devices. Current commercial 
 soft magnetic materials and manufacturing solutions are not optimized for 
 these new application requirements. Amorphous and nanocrystalline soft mag
 netic alloys have emerged as the premier solution for many WBG-based power
  electronics converter applications\, including medium frequency transform
 ers and inductors\, as a result of increased saturation flux densities rel
 ative to ferrites and reduced eddy current losses compared to electrical s
 teels. Historically\, brittle mechanical properties of nanocrystalline all
 oys have limited their application in WBG power electronics conversion. In
  case of future UWBG power electronics\, alternative soft magnetic materia
 ls systems and manufacturing pathways are required for the unprecedented c
 ombinations of power\, voltage\, and switching frequencies. This presentat
 ion will provide an overview of needs and examples of future engineering d
 esign pathways being pursued. Specifically\, we will discuss (1) emerging 
 nanocrystalline alloys with improved magnetic properties and enhanced duct
 ility combined with advanced manufacturing methods for WBG power electroni
 cs and (2) new ideas in ferrite based soft magnetic materials for future U
 WBG power electronics. An overview of some relevant commercialization effo
 rts as it relates to amorphous and nanocrystalline soft magnetics technolo
 gy will also be discussed. Broader needs for workforce development in adva
 nced magnetic materials and devices for power applications will also be ad
 dressed.\n\nCo-sponsored by: Virginia Commonwealth University\, Department
  of Mechanical and Nuclear Engineering \n\nSpeaker(s): Paul\n\nRoom: E3229
 \, Bldg: East Engineering Building \, 401 W Main Street\, Mechanical and N
 uclear Engineer\, Richmond\, Virginia\, United States\, 23284
LOCATION:Room: E3229\, Bldg: East Engineering Building \, 401 W Main Street
 \, Mechanical and Nuclear Engineer\, Richmond\, Virginia\, United States\,
  23284
ORGANIZER:rhadimani@vcu.edu
SEQUENCE:2
SUMMARY:Enabling Soft Magnetic Materials and Technology for Wide (WBG) and 
 Ultra-Wide Bandgap (UWBG) Power Electronics
URL;VALUE=URI:https://events.vtools.ieee.org/m/374172
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;&lt;strong&gt;&lt;u&gt;Abstract:&lt;/u&gt;&lt;/strong&gt; Numerous
  trends are driving the need for advances in electrical power conversion t
 echnologies\, including rapid deployment of renewables in the electric pow
 er grid and electrification of the transportation sector. Soft magnetics t
 echnologies play a critical role as an enabler for state-of-art power elec
 tronics conversion topologies and systems able to fully exploit the latest
  advances in wide bandgap (WBG) and ultrawide bandgap (UWBG) semiconductor
 -based switching devices. Current commercial soft magnetic materials and m
 anufacturing solutions are not optimized for these new application require
 ments.&amp;nbsp\; Amorphous and nanocrystalline soft magnetic alloys have emer
 ged as the premier solution for many WBG-based power electronics converter
  applications\, including medium frequency transformers and inductors\, as
  a result of increased saturation flux densities relative to ferrites and 
 reduced eddy current losses compared to electrical steels. Historically\, 
 brittle mechanical properties of nanocrystalline alloys have limited their
  application in WBG power electronics conversion. In case of future UWBG p
 ower electronics\, alternative soft magnetic materials systems and manufac
 turing pathways are required for the unprecedented combinations of power\,
  voltage\, and switching frequencies. This presentation will provide an ov
 erview of needs and examples of future engineering design pathways being p
 ursued. Specifically\, we will discuss (1) emerging nanocrystalline alloys
  with improved magnetic properties and enhanced ductility combined with ad
 vanced manufacturing methods for WBG power electronics and (2) new ideas i
 n ferrite based soft magnetic materials for future UWBG power electronics.
  An overview of some relevant commercialization efforts as it relates to a
 morphous and nanocrystalline soft magnetics technology will also be discus
 sed.&amp;nbsp\; Broader needs for workforce development in advanced magnetic m
 aterials and devices for power applications will also be addressed.&lt;/p&gt;
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