Methyl-3-hexenoate combustion chemistry: Experimental study and numerical kinetic simulation

Research output: Contribution to journalArticle

Abstract

This work represents a detailed investigation of combustion and oxidation of methyl-3-hexenoate (CAS Number 2396-78-3), including experimental studies of combustion and oxidation characteristics, quantum chemistry calculations and kinetic model refinement. Following experiments have been carried out: Speciation measurements during oxidation in a jet-stirred reactor at 1 atm; chemical speciation measurements in a stoichiometric premixed flame at 1 atm using molecular-beam mass-spectrometry; ignition delay times measurements in a shock tube at 20 and 40 bar; and laminar burning velocity measurements at 1 atm using a heat-flux burner over a range of equivalence ratios. An updated detailed chemical kinetic mechanism for methyl-3-hexenoate combustion based on previous studies was proposed and validated against the novel experimental data and the relevant data available in literature with satisfactory agreement. Sensitivity and reaction pathway analyses were performed to show main decomposition pathways of methyl-3-hexenoate and underline possible sources of disagreements between experiments and simulations.

Details

Authors
  • Ilya E. Gerasimov
  • Denis A. Knyazkov
  • Tatyana A. Bolshova
  • Andrey G. Shmakov
  • Oleg P. Korobeinichev
  • Maxime Carbonnier
  • Benoîte Lefort
  • Alan Kéromnès
  • Luis Le Moyne
  • Marco Lubrano Lavadera
  • Alexander A. Konnov
  • Chong Wen Zhou
  • Zeynep Serinyel
  • Guillaume Dayma
  • Philippe Dagaut
Organisations
External organisations
  • Voevodsky Institute of Chemical Kinetics and Combustion
  • University of Burgundy
  • Beihang University
  • University of Orléans
  • Institut de Combustion, Aérothermique, Réactivité et Environnement
Research areas and keywords

Subject classification (UKÄ) – MANDATORY

  • Energy Engineering

Keywords

  • Burning velocity, Flame structure, Ignition, Methyl-3-hexenoate, Oxidation
Original languageEnglish
Pages (from-to)170-180
Number of pages11
JournalCombustion and Flame
Volume222
Publication statusPublished - 2020
Publication categoryResearch
Peer-reviewedYes