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Fracture behaviour of diffusion bonded bimaterial Ti-Al joints
Gorel Cam
, Mustafa Kocak
, Daniel Dobi
, Liisa Heikinheimo
,
Mika Siren
Helmholtz-Zentrum Hereon GmbH
Research output
:
Contribution to journal
›
Article
›
Scientific
›
peer-review
41
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Citations (Scopus)
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Keyphrases
Fracture Behavior
100%
TiAl
100%
Diffusion Bonded
100%
Bi-material
100%
TiAl3
100%
Plastic Deformation
66%
Failure Mode
66%
Ductile Fracture
66%
Interlayer Thickness
66%
Reaction Layer
66%
Four-point Bend Specimen
66%
Soft Interlayer
66%
Triaxiality
66%
Rutile
33%
High Strength
33%
Fracture Toughness
33%
Crack Tip
33%
Lower Limb Strength
33%
Load Capacity
33%
Titanium Substrate
33%
Brittle Fracture
33%
Thin Elements
33%
Plastic Foil
33%
Constraint Condition
33%
Fracture Mode
33%
Interface Adhesion
33%
Void Growth
33%
Metal Foil
33%
Pure Aluminum
33%
Aluminum Foil
33%
Elastic Solid
33%
Interface Debonding
33%
Solid-state Diffusion
33%
Metal-plastic
33%
Metallic Interlayer
33%
Aluminum Interlayer
33%
Intermetallic Reaction
33%
Titanium Bar
33%
INIS
layers
100%
diffusion
100%
fractures
100%
interfaces
83%
metals
66%
thickness
50%
aluminium
50%
foils
50%
titanium
50%
failures
33%
solids
33%
plasticity
33%
substrates
16%
plastics
16%
adhesion
16%
capacity
16%
voids
16%
cracks
16%
intermetallic compounds
16%
fracture toughness
16%
Engineering
Fracture Behavior
100%
Joints (Structural Components)
100%
Interlayer
100%
Ductile Fracture
33%
Plastic Deformation
33%
Bend Specimen
33%
Layer Thickness
16%
Load Limits
16%
Pure Aluminum
16%
State Diffusion
16%
Brittle Fracture
16%
Debonding
16%
Void Growth
16%
Crack Tip
16%
Failure Mode
16%
Aluminum Foil
16%
Fracture Strength
16%
Intermetallics
16%
Section Mm
16%
Elastic Solid
16%
Material Science
Fracture Behavior
100%
Titanium
100%
Ductile Fracture
66%
Plastic Deformation
66%
Aluminum
66%
Fracture Toughness
33%
Debonding
33%
Aluminum Foil
33%
Void Growth
33%
Brittle Fracture
33%
Crack Tip
33%
Intermetallics
33%