Engine Operation Strategies for the Alternative Diesel Fuel Oxymethylene Ether (OME): Evaluation based on Injection Rate Analyzer and 0D-/1D-Simulation

Engineering

• Injection Rate 100%
• Ignitability 100%
• Pilot Injection 100%
• Diesel Fuel 100%
• Degree of Freedom 50%
• Hydraulics 50%
• Injection Pressure 50%
• Pareto Front 50%
• Simulation Model 50%
• Operating Point 50%
• Single Cylinder 50%
• Control Parameter 50%
• Internal Combustion Engine 50%
• Mass Flowrate 50%
• Exhaust Gas Recirculation 50%
• Pressure Range 50%
• Air-Fuel Ratio 50%
• Polyoxymethylene 50%
• Antiknock Rating 50%
• Crank Angle 50%
• Low Heating Value 50%
• e-Fuel 50%
• Energy Flow 50%
• Pareto Optimal 50%
• Pressure Gradient 50%

Keyphrases

• Engine Operation 100%
• Injection Rate 100%
• Operation Strategy 100%
• 1D Simulation 100%
• Oxymethylene Ethers 100%
• Alternative Diesel Fuel 100%
• Nitrogen Oxide Emissions 30%
• Diesel 20%
• Fuel Consumption 20%
• Injection Strategy 20%
• Combustion 20%
• Rail Pressure 20%
• Ignitability 20%
• Pilot Injection 20%
• Degrees of Freedom 10%
• Injector Geometry 10%
• Injection Pressure 10%
• Injector 10%
• Simulation Model 10%
• Low Energy 10%
• Acoustics 10%
• Energy Flow 10%
• Pareto Front 10%
• Pareto Optimal 10%
• Pareto 10%
• Slow Motion 10%
• Optimal Operation 10%
• Pressure Range 10%
• Operating Point 10%
• Control Parameters 10%
• Moving on 10%
• Pressure Gradient 10%
• Soot 10%
• Heavy-duty Engine 10%
• Start of Injection 10%
• Internal Combustion Engine 10%
• Lower Heating Value 10%
• Mass Flow Rate 10%
• Air-fuel Ratio 10%
• Maximum Pressure 10%
• Carbon Neutrality 10%
• Speed Range 10%
• Soot Emission 10%
• Premixed 10%
• Polyoxymethylene Dimethyl Ethers (PODEn) 10%
• Fossil Diesel 10%
• Single Cylinder Research Engine 10%
• Full-factorial 10%
• Electrofuels 10%
• Crank Angle 10%
• Cetane number 10%
• Solenoid Injector 10%
• Hydraulic Behavior 10%
• EGR Rate 10%
• Heavy Duty Applications 10%
• Maximum Mass 10%
• Flow Gradient 10%
• Factorial Simulations 10%
• Two-Degree 10%