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Spatial control of heavy-fermion superconductivity in CeIrIn
5
Maja D. Bachmann
, G. M. Ferguson
, Florian Theuss
, Tobias Meng
, Carsten Putzke
, Toni Helm
, K. R. Shirer
, You Sheng Li
, K. A. Modic
, Michael Nicklas
, Markus König
, D. Low
, Sayak Ghosh
, Andrew P. Mackenzie
, Frank Arnold
,
Elena Hassinger
, Ross D. McDonald
, Laurel E. Winter
, Eric D. Bauer
, Filip Ronning
B. J. Ramshaw, Katja C. Nowack, Philip J.W. Moll
Show 3 others
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Assistant Professorship of Quantum Matter - Experimental Solid State Physics
Max Planck Institute for Chemical Physics of Solids
University of St Andrews
Cornell University Laboratory of Atomic and Solid State Physics
Technische Universität Dresden
EPFL
Los Alamos National Laboratory
Kavli Institute at Cornell for NanoScale Science
Research output
:
Contribution to journal
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Article
›
peer-review
47
Scopus citations
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5
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Keyphrases
Spatial Control
100%
CeIrIn5
100%
Heavy-fermion Superconductivity
100%
Complex Patterns
50%
Stoichiometry
50%
Micrometer Scale
50%
Generic Approach
50%
Transition Temperature
50%
Strong Dependence
50%
Strong Correlation
50%
Elastic Deformation
50%
Superconductivity
50%
Cleanliness
50%
Focused Ion Beam Milling
50%
Free Control
50%
Correlated Metals
50%
Thermal Contraction
50%
Superconducting State
50%
Heavy Fermion Superconductors
50%
Mean Free Path
50%
Strongly Correlated Matter
50%
Non-uniform Strain Field
50%
Electronic Ordering
50%
Physics
Fermion
100%
Superconductivity
100%
Boundary Condition
50%
Elastic Deformation
50%
Ion Beam
50%
Stoichiometry
50%
Heavy Fermion Superconductors
50%
Mean Free Path
50%
Crystal Structure
50%
Ground State
50%
Engineering
Superconductivity
100%
Focused Ion Beam
50%
Length Scale
50%
Strain Field
50%
Elastic Deformation
50%
Mean Free Path
50%
Boundary Condition
50%
Crystal Structure
50%
Superconductor
50%
Ground State
50%
Reaction Stoichiometry
50%
Material Science
Superconductivity
100%
Focused Ion Beam
50%
Elastic Deformation
50%
Heavy Fermion Superconductors
50%
Crystal Structure
50%