Optimization of Waste Stabilization Pond Design for Developing Nations
Details
Wastewater stabilization ponds (WSPs) have been used extensively to provide wastewater treatment worldwide. It is preferred to the conventional treatment systems due to its low maintenance and operational cost. Existing literature revealed limited understanding of the hydraulics of WSPs vis-à-vis their optimization. This work therefore focuses on the hydraulic study of a lab-scale model WSP, operated under a controlled environment. The study utilized Computational Fluid Dynamics (CFD) coupled with an optimization program to efficiently optimize the selection of the best WSP configuration that satisfy specific minimum cost objective without jeopardizing the efficiency. This work has verified the use of CFD that it can be realistically applied for efficient assessment of varying ponds configuration, thereby addressing a major knowledge gap in WSP design. The significance of this work is that wastewater engineers and regulators can use it to reasonably assess the performance of WSP, thereby, providing valuable insight on the real investment and operational costs and the requirements for operation and management for this technology that will enhance environmental quality and protection
Autorentext
Dr. David O. Olukanni had his Ph.D at Covenant University. He is a recipient of the Fulbright Scholarship to the United States where he studied at University of Oklahoma and researched at NC State University, USA. He has received Grants and Scholarship awards and has published in many reputable journals.He is happily married and fruitfully blessed.
Weitere Informationen
- Allgemeine Informationen
- Sprache Englisch
- Herausgeber LAP LAMBERT Academic Publishing
- Gewicht 649g
- Untertitel The Impact of Reactor Design on the Treatment Performance of an Optimized Pilot-Scale Waste Stabilization Pond Using CFD
- Autor David O. Olukanni
- Titel Optimization of Waste Stabilization Pond Design for Developing Nations
- Veröffentlichung 01.09.2013
- ISBN 365945060X
- Format Kartonierter Einband
- EAN 9783659450600
- Jahr 2013
- Größe H220mm x B150mm x T26mm
- Anzahl Seiten 424
- GTIN 09783659450600