Hybrid metamodel - NSGA-III - EDAS based optimal design of thin film coatings

INIS

• solutions 100%
• design 100%
• coatings 100%
• thin films 100%
• hybrids 100%
• deposition 75%
• flow rate 75%
• friction 75%
• polynomials 50%
• carbon 50%
• argon 50%
• diamonds 50%
• methane 50%
• evaluation 25%
• surfaces 25%
• plasma 25%
• prediction 25%
• morphology 25%
• optimization 25%
• hydrogen 25%
• atomic force microscopy 25%
• substrates 25%
• distance 25%
• minimization 25%
• genetic algorithms 25%
• silicon 25%
• sorting 25%
• young modulus 25%
• chemical vapor deposition 25%

Engineering

• Flow Rate 100%
• Optimal Design 100%
• Thin Films 100%
• Friction Coefficient 100%
• Coefficient of Friction 100%
• Flow Velocity 100%
• Deposition Temperature 66%
• Pareto Solution 66%
• Diamond-Like Carbon 66%
• Methane 66%
• Young's Modulus 33%
• Chemical Vapor Deposition 33%
• Vapor Deposition 33%
• Silicon Substrate 33%
• Hybrid Approach 33%
• Genetic Algorithm 33%
• Multiobjective Optimization 33%
• Design of Experiments 33%
• Polynomial Order 33%
• Carbon Deposition 33%
• Atomic Force Microscopy 33%
• Feasible Solution 33%
• Surface Morphology 33%
• Maximization 33%

Material Science

• Thin Film Coating 100%
• Coefficient of Friction 100%
• Diamond-Like Carbon 66%
• Surface Morphology 33%
• Young's Modulus 33%
• Silicon 33%
• Plasma-Enhanced Chemical Vapor Deposition 33%