Detailed description of real fuels.- Locally-distributed auto-ignition model and knock detection.- Influence of ethanol-based fuels and water injection on combustion and knock.- Virtual fuel design for SACI combustion strategy.
Francesco Cupo obtained a PhD at the research Institute of Automotive Engineering (IFS) in Stuttgart, Germany. His activity is currently focusing on the design of advanced internal combustion engines and alternative fuels.
To drastically reduce the emission of greenhouse gases, the development of future internal combustion engines will be strictly linked to the development of CO2 neutral fuels (e.g. biofuels and e-fuels). This evolution implies an increase in development complexity, which needs the support of engine 3D-CFD simulations. Francesco Cupo presents approaches to accurately describe fuel characteristics and knock occurrence in SI engines, thus improving the current simulation capability in investigating alternative fuels and innovative combustion processes. The developed models are successfully used to investigate the influence of ethanol-based fuels and water injection strategies on knock occurrence and to conduct a virtual fuel design for and engine operating with the innovative SACI combustion strategy.
Contents
Detailed description of real fuels
Locally-distributed auto-ignition model and knock detection
Influence of ethanol-based fuels and water injection on combustion and knock
Virtual fuel design for SACI combustion strategy
Target Groups
Researchers and students in the field of automotive engineering
Automotive engineers
The Author
Francesco Cupo obtained a PhD at the research Institute of Automotive Engineering (IFS) in Stuttgart, Germany. His activity is currently focusing on the design of advanced internal combustion engines and alternative fuels.