LrgpV1, Istex, Corpus, bibRecord, 000166

The oxidation of solid graphite using a 5-kW CO2 laser

Identifieur interne : 000166 ( Istex/Corpus ); précédent : 000165; suivant : 000167

The oxidation of solid graphite using a 5-kW CO2 laser

Auteurs : P. Caminat ; E. Saatdjian

Source :

Combustion and Flame [ 0010-2180 ] ; 1991.

RBID : ISTEX:BD8A4AAA1C0626D7A45EF42BAE4D820C011115EE

English descriptors

KwdEn :
- Boundary conditions, Combust, Combustion rate, Combustion reactions, Convection, Cylindrical samples, Experimental setup, First approximation, Graphite, Graphite oxidation, Graphite samples, Heat flux, Heat losses, Heat transfer coefficient, Heterogeneous reaction, High value, Kinetic data, Larger samples, Laser, Laser beam, Laser power, Longitudinal direction, Mass loss, Mass loss rate, Natural convection, Numerical values, Oxidizer, Oxidizer flow, Oxidizer flow rate, Oxygen flow, Oxygen flow rate, Reaction mechanism, Reaction order, Reaction rate, Response time, Simple model, Solid graphite, Solid line, Solid lines, Surface temperature, Thermal conductivity, Thermal diffusivity, Time step, Total mass loss, Transverse direction, Variable oxidizer flow rate, Water vapor.
Teeft :
- Boundary conditions, Combust, Combustion rate, Combustion reactions, Convection, Cylindrical samples, Experimental setup, First approximation, Graphite, Graphite oxidation, Graphite samples, Heat flux, Heat losses, Heat transfer coefficient, Heterogeneous reaction, High value, Kinetic data, Larger samples, Laser, Laser beam, Laser power, Longitudinal direction, Mass loss, Mass loss rate, Natural convection, Numerical values, Oxidizer, Oxidizer flow, Oxidizer flow rate, Oxygen flow, Oxygen flow rate, Reaction mechanism, Reaction order, Reaction rate, Response time, Simple model, Solid graphite, Solid line, Solid lines, Surface temperature, Thermal conductivity, Thermal diffusivity, Time step, Total mass loss, Transverse direction, Variable oxidizer flow rate, Water vapor.

Abstract

Abstract: The combustion of solid graphite was studied experimentally using a 5-kW CO2 laser to heat an 8-cm-diameter 4-cm-high cylindrical samples to temperatures of the order of 1200°C. The absence of volatile matter and the large size of the samples used here are main obstacles to the combustion of these very pure graphites. A simple model which takes into account the main heat transfer modes here as well as mass loss was developed and its validity checked against the obtained data. The experimental parameters that were varied were the laser power and flux, the aerodynamics and composition of the oxidizer flow. The contribution of each heat transfer mode to the total energy balance is followed during each run. Under certain conditions, the sample continues to burn even though the laser has been shut off.

Url:

https://api.istex.fr/document/BD8A4AAA1C0626D7A45EF42BAE4D820C011115EE/fulltext/pdf

DOI: 10.1016/0010-2180(91)90105-K

Links to Exploration step

ISTEX:BD8A4AAA1C0626D7A45EF42BAE4D820C011115EE

Le document en format XML

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The oxidation of solid graphite using a 5-kW CO2 laser

The oxidation of solid graphite using a 5-kW CO2 laser

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