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Spin Dynamics in Antiferromagnetic van der Waals Heterostructures
Spin Dynamics in Antiferromagnetic van der Waals Heterostructures
Spin Dynamics in Antiferromagnetic van der Waals Heterostructures

상세정보

자료유형  
 학위논문 서양
최종처리일시  
20250211152700
ISBN  
9798384052333
DDC  
530
저자명  
Cham, Thow Min Jerald.
서명/저자  
Spin Dynamics in Antiferromagnetic van der Waals Heterostructures
발행사항  
[Sl] : Cornell University, 2024
발행사항  
Ann Arbor : ProQuest Dissertations & Theses, 2024
형태사항  
261 p
주기사항  
Source: Dissertations Abstracts International, Volume: 86-03, Section: B.
주기사항  
Advisor: Ralph, Daniel.
학위논문주기  
Thesis (Ph.D.)--Cornell University, 2024.
초록/해제  
요약Recent advancements in identifying magnetic van der Waals (vdW) materials that can be isolated down to a single 2D layer provide opportunities for probing and manipulating spin dependent phenomena down to the atomically thin limit. The reduction of magnetic volume, combined with the unique attributes such as low-damping could enable spintronic devices with better efficiencies. Additionally, a major advantage of vdW materials is their universal compatibility with other layers without the need for lattice matching across the vdW gap. These atomically flat interfaces between layers allow for the investigation of interfacial physics without effects of inter diffusion common in conventional heterostructures. Such pristine interfaces may also enhance the coupling of spin and charge between layers, optimizing mechanisms such as spin-transfer torques and voltage controlled magneto-anisotropy. With the discovery of high spin-to-charge conversion efficiencies in van der Waals topological insulators, as well as nonconventional spin-orbit torques in low-symmetry van der Waals materials, van der Waals heterostructures are a promising platform for building next generation highly efficient, highly scalable magnetic memory.
일반주제명  
Condensed matter physics
일반주제명  
Electromagnetics
일반주제명  
Materials science
일반주제명  
Quantum physics
키워드  
Antiferromagnet
키워드  
Heterostructures
키워드  
Antiferromagnetic resonance
키워드  
Spin-orbit torques
키워드  
Spintronics
기타저자  
Cornell University Physics
기본자료저록  
Dissertations Abstracts International. 86-03B.
전자적 위치 및 접속  
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MARC

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■020    ▼a9798384052333
■035    ▼a(MiAaPQ)AAI31487879
■040    ▼aMiAaPQ▼cMiAaPQ
■0820  ▼a530
■1001  ▼aCham,  Thow  Min  Jerald.▼0(orcid)0000-0001-9620-3846
■24510▼aSpin  Dynamics  in  Antiferromagnetic  van  der  Waals  Heterostructures
■260    ▼a[Sl]▼bCornell  University▼c2024
■260  1▼aAnn  Arbor▼bProQuest  Dissertations  &  Theses▼c2024
■300    ▼a261  p
■500    ▼aSource:  Dissertations  Abstracts  International,  Volume:  86-03,  Section:  B.
■500    ▼aAdvisor:  Ralph,  Daniel.
■5021  ▼aThesis  (Ph.D.)--Cornell  University,  2024.
■520    ▼aRecent  advancements  in  identifying  magnetic  van  der  Waals  (vdW)  materials  that  can  be  isolated  down  to  a  single  2D  layer  provide  opportunities  for  probing  and  manipulating  spin  dependent  phenomena  down  to  the  atomically  thin  limit.  The  reduction  of  magnetic  volume,  combined  with  the  unique  attributes  such  as  low-damping  could  enable  spintronic  devices  with  better  efficiencies.  Additionally,  a  major  advantage  of  vdW  materials  is  their  universal  compatibility  with  other  layers  without  the  need  for  lattice  matching  across  the  vdW  gap.  These  atomically  flat  interfaces  between  layers  allow  for  the  investigation  of  interfacial  physics  without  effects  of  inter  diffusion  common  in  conventional  heterostructures.  Such  pristine  interfaces  may  also  enhance  the  coupling  of  spin  and  charge  between  layers,  optimizing  mechanisms  such  as  spin-transfer  torques  and  voltage  controlled  magneto-anisotropy.  With  the  discovery  of  high  spin-to-charge  conversion  efficiencies  in  van  der  Waals  topological  insulators,  as  well  as  nonconventional  spin-orbit  torques  in  low-symmetry  van  der  Waals  materials,  van  der  Waals  heterostructures  are  a  promising  platform  for  building  next  generation  highly  efficient,  highly  scalable  magnetic  memory.
■590    ▼aSchool  code:  0058.
■650  4▼aCondensed  matter  physics
■650  4▼aElectromagnetics
■650  4▼aMaterials  science
■650  4▼aQuantum  physics
■653    ▼aAntiferromagnet
■653    ▼aHeterostructures
■653    ▼aAntiferromagnetic  resonance
■653    ▼aSpin-orbit  torques
■653    ▼aSpintronics
■690    ▼a0611
■690    ▼a0794
■690    ▼a0607
■690    ▼a0599
■71020▼aCornell  University▼bPhysics.
■7730  ▼tDissertations  Abstracts  International▼g86-03B.
■790    ▼a0058
■791    ▼aPh.D.
■792    ▼a2024
■793    ▼aEnglish
■85640▼uhttp://www.riss.kr/pdu/ddodLink.do?id=T17163375▼nKERIS▼z이  자료의  원문은  한국교육학술정보원에서  제공합니다.

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