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The role of ferroelasticity in toughening of brittle materials
Anil V. Virkar
, Jan Fong Jue
, Paul Smith
, Karun Mehta
, Kevin Prettyman
Materials and Fuels Complex
Research output
:
Contribution to journal
›
Article
›
peer-review
39
Scopus citations
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Keyphrases
Brittle Materials
100%
Ferroelectric Domain Switching
100%
Toughening Mechanism
100%
Ferroelasticity
100%
Prototypic
50%
Hysteresis
50%
Zirconia
50%
X Ray Diffraction
50%
Lead Zirconate Titanate
50%
Dysprosium
50%
Tetragonal
50%
Fracture Toughness
50%
Terbium
50%
Crack Tip
50%
Ferroics
50%
Domain Switching
50%
Ferroelastic
50%
Gadolinium Molybdate
50%
Crack-tip Stress Field
50%
Energy Absorption Mechanism
50%
Ferroelastic Materials
50%
Enhanced Toughness
50%
Material Science
Crack Tip
100%
Brittleness
100%
X-Ray Diffraction
50%
Zirconia
50%
Lead Zirconate Titanate
50%
Dysprosium
50%
Stress Field
50%
Fracture Toughness
50%
Gadolinium
50%
Terbium
50%
Molybdate
50%
Engineering
Brittleness
100%
Toughening
100%
Fracture Strength
33%
Titanate
33%
Crack Tip
33%
Molybdate
33%
Lead Zirconate
33%
Crack Tip Stress Field
33%
Energy Absorption Mechanism
33%
X Ray Diffraction
33%