Validation of CFD Model for Simulation of Spontaneous Ignition in Bio-mass Fuel Storage
(2005) IAFSS 8th Symposium on Fire Safety Science 2005- Abstract
- Both numerical simulations and experimental measurements of small scale spontaneous ignition with different biomass fuels have been performed. In the experiments,
temperature history was monitored at five different locations inside the fuel bed. The measured temperature history was used for validation of comprehensive threedimensional computer simulations which were carried out using a parallel finite volume CFD code SMAFS (Smoke Movement and Flame Spread) developed by the first author.
The computation was based on numerical solution of a set of governing equations including the continuity equation, extended Darcy momentum equations, energy conservation equations for both gas and solid phases, and mass conservation... (More) - Both numerical simulations and experimental measurements of small scale spontaneous ignition with different biomass fuels have been performed. In the experiments,
temperature history was monitored at five different locations inside the fuel bed. The measured temperature history was used for validation of comprehensive threedimensional computer simulations which were carried out using a parallel finite volume CFD code SMAFS (Smoke Movement and Flame Spread) developed by the first author.
The computation was based on numerical solution of a set of governing equations including the continuity equation, extended Darcy momentum equations, energy conservation equations for both gas and solid phases, and mass conservation equations for different chemical species. With reliable material properties input data provided by
separate measurements, it simulated the temporal state evolution inside the biomass fuel storage. In the simulation, consideration was given to a series of essential physical and chemical processes, including convection and diffusion in porous media, evaporation,
condensation and heat generation which is mainly due to chemical oxidation. Numerical results were compared with experimental measurements, showing excellent agreement. (Less)
Please use this url to cite or link to this publication:
https://lup.lub.lu.se/record/772157
- author
- Yan, Zhenghua LU ; Blomqvist, Per LU ; Göransson, Ulf LU ; Holmstedt, Göran LU ; Wadsö, Lars LU and Van Hees, Patrick LU
- organization
- publishing date
- 2005
- type
- Chapter in Book/Report/Conference proceeding
- publication status
- published
- subject
- host publication
- [Host publication title missing]
- publisher
- International association for fire safety science
- conference name
- IAFSS 8th Symposium on Fire Safety Science 2005
- conference dates
- 2005-09-15
- external identifiers
-
- scopus:80455168440
- language
- English
- LU publication?
- yes
- id
- b929448a-8218-49c1-93a9-ffbf96487f9c (old id 772157)
- date added to LUP
- 2016-04-04 10:01:25
- date last changed
- 2022-01-29 19:37:32
@inproceedings{b929448a-8218-49c1-93a9-ffbf96487f9c,
abstract = {{Both numerical simulations and experimental measurements of small scale spontaneous ignition with different biomass fuels have been performed. In the experiments,<br/><br>
temperature history was monitored at five different locations inside the fuel bed. The measured temperature history was used for validation of comprehensive threedimensional computer simulations which were carried out using a parallel finite volume CFD code SMAFS (Smoke Movement and Flame Spread) developed by the first author.<br/><br>
The computation was based on numerical solution of a set of governing equations including the continuity equation, extended Darcy momentum equations, energy conservation equations for both gas and solid phases, and mass conservation equations for different chemical species. With reliable material properties input data provided by<br/><br>
separate measurements, it simulated the temporal state evolution inside the biomass fuel storage. In the simulation, consideration was given to a series of essential physical and chemical processes, including convection and diffusion in porous media, evaporation,<br/><br>
condensation and heat generation which is mainly due to chemical oxidation. Numerical results were compared with experimental measurements, showing excellent agreement.}},
author = {{Yan, Zhenghua and Blomqvist, Per and Göransson, Ulf and Holmstedt, Göran and Wadsö, Lars and Van Hees, Patrick}},
booktitle = {{[Host publication title missing]}},
language = {{eng}},
publisher = {{International association for fire safety science}},
title = {{Validation of CFD Model for Simulation of Spontaneous Ignition in Bio-mass Fuel Storage}},
year = {{2005}},
}