
Overall focus on research, including – Fusion of measurement and numerical analysis using weak flame phenomenon in micro combustion system
Author(s) -
Kaoru Maruta,
Hisashi Nakamura,
Youhi Morii,
T. Tezuka
Publication year - 2020
Publication title -
impact
Language(s) - English
Resource type - Journals
eISSN - 2398-7081
pISSN - 2398-7073
DOI - 10.21820/23987073.2020.4.62
Subject(s) - combustion , exothermic reaction , ignition system , process engineering , computational fluid dynamics , range (aeronautics) , computer science , nuclear engineering , mechanical engineering , aerospace engineering , materials science , automotive engineering , engineering , chemistry , thermodynamics , physics , organic chemistry
To achieve highly efficient internal combustion engines, it is essential that the fuel and air mixtures in cylinder burn rapidly without making undesired 'knocking' phenomena. Fuel reactions should be fast enough for attaining sufficiently fast exothermic combustion for power output but simultaneously, it should be durable to the undesired knocking, he notes. It is essential to clarify both ignition-related fuel reactivity and combustion processes that are governed by flame dynamics under intense turbulence. Obtained knowledge should be used for designing combustion phenomena. Dr Karou Maruta from the Institute of Fluid Science at Tohoku University is an expert in flame dynamics. Maruta and his team have been conducting a wide range of practical and theoretical experiments of weak flames in MFR ultimately for practical engine applications. They are looking to address the modelling capabilities of complex chemical reactions. In order to achieve this, the team is attempting to develop high fidelity chemical reaction kinetics, as well as intelligent computational methods.