Journal of Fire Sciences · 2010 · 15 citations · 9 references
EngineeringComputational EngineeringPhysicsFire Protection EngineeringHeat TransferThermal AnalysisFire ModelingFire SimulationFire TestingHeat Transfer In FiresMultiphysics SimulationThermal SimulationCoherent Anti-stokes Raman SpectroscopyCoherent ScatteringExperimental Fire Heat TransferFire Simulation ValidationGas Temperature DistributionMean Squared ErrorThermocouple InstrumentationThermocouple Measurement
A virtual thermocouple model for high fidelity multiphysics computer simulation is introduced in this article. Detailed thermocouple and gas temperature (Coherent Anti-Stokes Raman Scattering) measurements were performed using a well-controlled, adiabatic, flat-flame Hencken burner, which provided data for validating the thermocouple model in a Sandia National Laboratories fire code. Comparison of simulation results to test data indicated a mean error of 6% between the thermocouple reading and predicted temperature.
9