Engineering
Optimum Design
100%
Composite
75%
Density
75%
Actuators
75%
Design
75%
Performance
50%
Actuation
50%
Parametric Study
50%
Response Time
25%
Polymeric Composite
25%
Performance Improvement
25%
Thermal Stress
25%
Finite Element Modeling
25%
Design Parameter
25%
Maximum Strain
25%
Maximum Operating Temperature
25%
Coefficient of Thermal Expansion
25%
Maximum Stress
25%
Young's Modulus
25%
Keyphrases
Electrothermal Microactuator
100%
Optimum Design
100%
SU-8
75%
Work Density
75%
Composite Actuator
25%
Polymer Actuator
25%
Maximum Stress
25%
Thermal Phase Change
25%
Design Case
25%
Thermal Response Time
25%
Phase Change Actuator
25%
Maximum Operation Temperature
25%
Maximum Strain
25%
Actuation Performance
25%
Polymeric Composites
25%
Young's Modulus
25%
Actuation Capability
25%
Microactuation
25%
Material Science
Silicon
100%
Composite Material
100%
Density
75%
Actuator
75%
Young's Modulus
25%
Temperature
25%
Thermal Stress
25%
Thermal Expansion
25%
Finite Element Modeling
25%
INIS
design
100%
silicon
100%
actuators
37%
density
37%
performance
37%
parametric analysis
25%
thermal stresses
12%
finite element method
12%
young modulus
12%
thermal expansion
12%
comparative evaluations
12%
pressure range mega pa
12%
strains
12%