Thermo-mechanical properties and internal architecture of PI composites for high-pressure hydrogen applications

Keyphrases

• Carbon Fiber Reinforced 50%
• Compressor Technique 50%
• Deformation Behavior 50%
• Efficient Transport 50%
• Electron Microscopy 50%
• Energy Produced 50%
• Fiber Reinforced Polymer 50%
• Fiber-reinforced 50%
• Gas Purity 50%
• High Mechanical Strength 50%
• High Pressure 50%
• High Strength 50%
• High-pressure Hydrogen 100%
• Hydrogen Application 100%
• Hydrogen Compression 50%
• Internal Architecture 100%
• Lubricant Additives 50%
• Micromechanical Deformation 50%
• Microstructure Analysis 50%
• Packing Ring 50%
• PI Composite 100%
• Piston 50%
• Polyimide 50%
• Polyimide Blend 50%
• Polyimide Polymer 50%
• Polymer-matrix Composites 50%
• Pressure Gradient 50%
• Reciprocating Compressor 50%
• Reciprocating piston Compressor 50%
• Renewable Sources 50%
• Rod Packing 50%
• Scale Adaption 50%
• Synchrotron Tomography 50%
• Temperature Resistance 50%
• Thermomechanical Properties 100%
• Thermomechanical Test 50%
• Tribological Applications 50%
• Tribological Tests 50%

Engineering

• Compressor Application 100%
• Deformation Behavior 100%
• Fibre Reinforced Polymer 100%
• Hydrogen Compression 100%
• Internal Architecture 100%
• Microstructure 100%
• Polymer Matrix Composite 100%
• Pressure Gradient 100%
• Reciprocating Compressors 100%
• Reciprocating Piston Compressor 100%
• Renewable Source 100%
• Rod 100%

Material Science

• Carbon Fiber 33%
• Electron Microscopy 33%
• Microstructural Analysis 33%
• Polyimide 100%
• Reinforced Plastic 66%
• Thermomechanical Property 100%
• Tomography 33%