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Design of fiber composite aerospace structures under vibration loads
Horst Baier
Engineering and Design
Research output
:
Chapter in Book/Report/Conference proceeding
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Chapter
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peer-review
2
Scopus citations
Overview
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Dive into the research topics of 'Design of fiber composite aerospace structures under vibration loads'. Together they form a unique fingerprint.
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Keyphrases
Fiber Composites
100%
Composite Aerospace Structures
100%
Vibration Load
100%
High Stiffness
50%
Metal Structure
50%
Matrix Materials
25%
Degrees of Freedom
25%
Polymer Matrix
25%
Other-benefit
25%
Vibration Behavior
25%
Operating Conditions
25%
Design Concept
25%
Design Parameters
25%
Coupling Effect
25%
Anisotropy
25%
Life Cycle Cost
25%
Maintenance Effort
25%
Design Case
25%
Impact Resistance
25%
Material Density
25%
High Strength
25%
Beneficial Properties
25%
High Durability
25%
Component Structure
25%
Composite Structures
25%
Shape-adaptive
25%
Beneficial Use
25%
Fatigue Durability
25%
Temperature Damage
25%
Bending-twisting
25%
Fiber-reinforced Materials
25%
Flexible Polymer
25%
Fiber Composite Materials
25%
Less Maintenance
25%
Engineering
Composite Fiber
100%
Aerospace Material
100%
Degree of Freedom
33%
Design Parameter
33%
Design Concept
33%
Lifecycle Cost
33%
Coupling Effect
33%
Operational Condition
33%
Fiber Composite Material
33%
Morphing Structure
33%
Fibre-Reinforced Material
33%
Impact Damage
33%
Polymer Matrix
33%
Matrix Material
33%
Composite Structure
33%
Material Science
Composite Material
100%
Aerospace Material
100%
Composite Material
25%
Polymer Matrix
25%
Density
25%
Anisotropy
25%
Fiber Reinforced Material
25%