Advanced low-temperature combustion concepts that rely on compression ignition have
placed new technological demands on the modeling of low-temperature oxidation in general …

At a first glance, ethanol, toluene and methyl tert-butyl ether look nothing alike with respect
to their molecular structures. Nevertheless, all share a similarly high octane number. A …

Ongoing progress in synthetic biology, metabolic engineering, and catalysis continues to
produce a diverse array of advanced biofuels with complex molecular structure and …

The pyrolysis and oxidation of diethyl ether (DEE) has been studied at pressures from 1 to 4
atm and temperatures of 900− 1900 K behind reflected shock waves. A variety of …

Future fuels for compression ignition engines will be required both to reduce the
anthropogenic carbon dioxide emissions from fossil sources and to contribute to the …

The quantitative kinetic model presented in this work provides insights of the inner
mechanisms that play a key role in the natural oxidative degradation (photoinduced and …

A detailed chemical kinetics model has been developed to elucidate the auto-ignition
behavior of diethyl ether (DEE) under conditions relevant for internal combustion engines …

Binary blends of fast-reacting diethyl ether (DEE) and slow-reacting ethanol (EtOH) are quite
promising as renewable replacements for conventional fuels in modern compression …

The reactive uptake coefficients (γ) of OH by levoglucosan, abietic acid, and nitroguaiacol
serving as surrogate compounds for biomass burning aerosol have been determined …

This study focused on how the properties of alcohols (ethanol, methanol, n-butanol), ketones
(acetone), alkanes (hexane), esters (ethyl acetate), methyl benzenes (toluene), and ethers …