Development of a microreactor as a thermal source for microelectromechanical systems power generation

Keyphrases

• Power Generation 100%
• System Energy 100%
• Micro-electro-mechanical Systems 100%
• Microreactor 100%
• Thermal Source 100%
• Reactor Design 33%
• Thermoelectric 33%
• Heat Transfer 33%
• Performance Characteristics 33%
• Energy Input 33%
• Pyroelectric 33%
• Alumina Ceramic 33%
• Air-fuel Mixture 33%
• Reactor Performance 33%
• Heat Source 33%
• Equivalence Ratio 33%
• Chemical Energy 33%
• Airflow 33%
• Wall Surfaces 33%
• Surface Contact 33%
• Combustion Products 33%
• Catalyst Degradation 33%
• Near-room Temperature 33%
• System Application 33%
• Gas-phase Reactions 33%
• Surface Phase 33%
• Operational Temperature 33%
• Wall Temperature 33%
• Energy Balance Model 33%
• Sustained Operations 33%
• Internal Wall 33%
• High Temperature Operation 33%
• Air Mixture 33%
• Spiral Shape 33%
• Product Surfaces 33%
• Self-sustained Combustion 33%
• Hydrogen Blending 33%

Engineering

• Microelectromechanical System 100%
• Power Generation 100%
• Microreactor 100%
• Aluminum Oxide 66%
• Air Mixture 66%
• Operating Temperature Range 33%
• Reactant 33%
• Flow Rate 33%
• Reactor Design 33%
• Room Temperature 33%
• Performance Characteristic 33%
• Equivalence Ratio 33%
• Gas-Phase 33%
• Energy Input 33%
• Potential Application 33%
• Ignition 33%
• Contact Surface 33%
• Combustion Product 33%
• Phase Reaction 33%
• Chemical Energy 33%
• Global Energy 33%
• High Operating Temperature 33%
• Surface Phase 33%
• Actuator 33%
• Air Flow 33%
• Flow Velocity 33%
• Thermoelectricity 33%
• Heat Source 33%

Chemical Engineering

• Microelectromechanical System 100%
• Combustion Product 50%
• Energy Balance 50%
• Reactor Performance 50%