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The sintering behavior of ultrafine alumina particles
John E. Bonevich, Laurence D. Marks
Materials Science and Engineering
Research output
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Contribution to journal
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Article
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peer-review
61
Scopus citations
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Earth and Planetary Sciences
Alumina
100%
Sintering
100%
Particle
100%
Ultrahigh Vacuum
25%
Flat Surface
25%
Geometry
12%
High Resolution
12%
Grain Boundary
12%
Crystal Growth
12%
Retraining
12%
Surface Diffusion
12%
Arc Discharge
12%
Adhesion
12%
Ledge
12%
Atomic Structure
12%
Growth
12%
Difference
12%
Size
12%
Condition
12%
Custom
12%
Vacuum Furnace
12%
Angling
12%
INIS
particles
100%
aluminium oxides
100%
sintering
100%
surfaces
50%
ultrahigh vacuum
25%
resolution
12%
range
12%
growth
12%
size
12%
geometry
12%
adhesion
12%
crystal growth
12%
diffusion
12%
electron microscopes
12%
grain boundaries
12%
orthorhombic lattices
12%
spinels
12%
vacuum furnaces
12%
Chemistry
Sintering
100%
Sintering Behavior
100%
Structure
57%
Surface
42%
Vacuum
28%
Electron Particle
14%
Crystal Growth
14%
Surface Diffusion
14%
Chemical Potential
14%
Procedure
14%
Particle Size
14%
Force
14%
Adhesion
14%
Wetting
14%
Spinel
14%
Furnace
14%
Grain Boundary
14%
Material Science
Particle
100%
Aluminum Oxide
100%
Sintering
100%
Surface
37%
Atomic Structure
12%
Adhesion
12%
Contact Angle
12%
Crystal Growth
12%
Grain Boundary
12%