Sentence examples for wave pyrolysis from inspiring English sources

However, in the thermal wave pyrolysis regime (Bi>10) shrinkage affects both the pyrolysis time and the pyrolysis products.

Within the thermal wave pyrolysis regime these effects significantly reduce the light hydrocarbon yield, increase the tar yield, and reduce the pyrolysis time.

Ignition delay times and ethylene concentration time-histories were measured behind reflected shock waves during decalin oxidation and pyrolysis.

A detailed N/H reaction mechanism has been developed and validated by comparing modeling results with measurements of hydrazine pyrolysis in shock waves, and in hydrazine decomposition flames at low and atmospheric pressures.

Time-resolved laser-induced incandescence (LII) and cw-laser extinction techniques have been used to size soot particles originating from benzene pyrolysis behind reflected shock waves.

Moreover, the model developments led to correct predictions of the temperature dependency of the soot yield in ethylene pyrolysis after reflected shock waves.

Monomethylhydrazine (MMH, CH3NHNH2) pyrolysis was studied behind reflected shock waves using a laser absorption method.

The first measurements of NH2 and NH3 time-histories in monomethyl hydrazine (MMH) pyrolysis were performed behind reflected shock waves in a shock tube using laser absorption techniques.

High temperature dimethyl ether (DME) pyrolysis was studied behind reflected shock waves by measuring time-histories of CO, CH4 and C2H4 in mixtures of 0.5%, 1%, and 2% DME in argon respectively.

Furthermore, the current model has been validated against previous pyrolysis results of the literature obtained behind shock waves and the agreement is reasonable as well.

Methane pyrolysis and oxidation were studied behind reflected shock waves in the temperature range 1350 2400 K at pressures of 1.6 to 4.4 atm.