Project Details
Description
The project aims at developing a Computational Fluid Dynamics platform for analysing and reducting enissions of industrial gas burners with rated power up to 1.2 MW. To this aim the work will use advanced turbulence modelling such as the Reynolds Stremm Molel approach, and partially turbulence methods, such as Large Eddy Simulation. The flow chemistry associated with the combustion model will be handled by means of computationally efficient approaches, such as the Flamelet-Generated Manifold. The developed analysis and design method will be validated by means of full-scale experiments, wheby flow velocity and temperatures and well as flue gas composition will be measured. The new technology will enable design of new burners and redesign of existing ones to achieve reduced pollutant emissions and higher thermal efficiency. The research will be carried out in collaboration with Proctor Process Plant ltd, world leader in the deign and production of gas burners for the process industry.
| Status | Finished |
|---|---|
| Effective start/end date | 4/01/21 → 30/12/23 |
Collaborative partners
- Lancaster University (lead)
- Proctor Process Plant Ltd., Burnley, United Kingdom BB11 5UB
Research output
- 2 Journal article
-
Numerical and Experimental Analysis of the Formation of Nitrogen Oxides in a Non-premixed Industrial Gas Burner
Ortolani, A., Yeadon, J., Ruane, B., Paul, M. C. & Campobasso, M. S., 30/09/2024, In: Results in Engineering. 23, 102392.Research output: Contribution to Journal/Magazine › Journal article › peer-review
Open Access -
Numerical and Experimental Analysis of the Cold Flow Physics of a Non Pre-mixed Industrial Gas Burner
Ortolani, A., Yeadon, J., Ruane, B., Paul, M. & Campobasso, M. S., 1/08/2023, In: Journal of Fluids Engineering. 145, 8, 16 p., 081202.Research output: Contribution to Journal/Magazine › Journal article › peer-review
Open AccessFile41 Downloads (Pure)