1.Introduction, - PART I.- 2.Modeling combustion with detailed kinetic mechanisms.- 3.Automatic generation of detailed mechanisms.- 4.Specificities related to detailed kinetic models for the combustion of oxygenated fuel components.- 5.Multistep kinetic model of biomass pyrolysis.- PART II.- 6.Speciation in shock tubes.- 7.Rapid compression machines.- 8.Jet-stirred reactors.- 9.Tubular flow reactors.- 10.Flame studies of oxygenated hydrocarbons.- PART III.- 11.Formation and characterization of polyaromatic hydrocarbons.- 12.Laser diagnostics for selective and quantitative measurement of PAHs and soot.- 13.Characterization of soot .- 14.An Advanced Multi-Sectional Method for Particulate Matter Modeling in Flames.- 15.Modelling soot formation: model of particle formation.- PART IV.- 16.Investigation and improvement of reaction mechanisms using sensitivity analysis and optimization.- 17.Mechanism reduction to skeletal form and species lumping.- 18.Time Scale Splitting Based Mechanism Reduction.- 19.Storage of chemical kinetic information.- PART V.- 20.Calculation of molecular thermochemical data and their availability in databases.- 21.Statistical rate theory in combustion: An operational approach.- 22.Primary products and branching ratios for combustion multi-channel bimolecular reactions from crossed molecular beam studies.- 23.Kinetic studies of elementary chemical steps with relevance in combustion and environmental chemistry.- 24.Shock-tube studies of combustion-relevant elementary chemical steps and sub-Mechanisms.