336 pages | 251 B/W Illus.
A newcomer to the scene, aerobic granulation is on its way to becoming the hot new technology for high-efficiency wastewater treatment. Thus far, intensive research has been conducted with regard to the understanding of the mechanism of aerobic granulation in sequencing batch reactors (SBR) and its application in treating a wide variety of municipal and industrial wastewater. This basic research has promoted the technology from laboratory-study all the way to the present pilot- and full-scale application. The time is right for a reference that discusses the technology and its application in wastewater purification.
Wastewater Purification: Aerobic Granulation in Sequencing Batch Reactors discusses state-of-the-art research and application of this environmental biotechnology tailored to enhanced wastewater purification. The seventeen chapters provide a systematic and comprehensive understanding of aerobic granulation in SBR by incorporating fundamental principles of aerobic granulation with the basis of process operation under various conditions. The book clearly explains what aerobic granules are and how they form. It elucidates key factors that influence aerobic granulation and addresses common problems encountered and their solutions.
This is the first book-length exploration of aerobic granulation. Other books that cover it are smaller, less comprehensive, less in depth, and less up to date. This book provides first-hand information derived from the authors’ research and presents a newly-developed theory for aerobic granulation that offers a deep understanding into the essence of current aerobic granulation technology. Using this book as a platform, the technology can be developed further and quickly applied in the wastewater treatment industry.
Aerobic Granulation at Different Carbon Sources and Concentrations, Q.-S. Liu and Y. Liu
Aerobic Granulation at Different Shear Forces, Q.-S. Liu and Y. Liu
Aerobic Granulation at Different SBR Cycle Times, Z.-W. Wang and Y. Liu
Aerobic Granulation at Different Settling Times, L. Qin and Y. Liu
Roles of SBR Volume Exchange Ratio and Discharge Time in Aerobic Granulation, Z.-W. Wang and Y. Liu
Selection Pressure Theory for Aerobic Granulation in Sequencing Batch Reactors, Y. Liu and Z.-W. Wang
Growth Kinetics of Aerobic Granules, Q.-S. Liu and Y. Liu
Diffusion of Substrate and Oxygen in Aerobic Granules, Y. Li, Z.-W. Wang, and Y. Liu
The Essential Role of Cell Surface Hydrophobicity in Aerobic Granulation, Y. Liu and Z.-W. Wang
Essential Roles of Extracellular Polymeric Substances in Aerobic Granulation, Y. Liu and Z.-W. Wang
Internal Structure of Aerobic Granules, Z.-W. Wang and Y. Liu
Biodegradability of Extracellular Polymeric Substances Produced by Aerobic Granules, Z.-W. Wang and Y. Liu
Calcium Accumulation in Acetate-Fed Aerobic Granules, Z.-W. Wang, Y. Li, and Y. Liu
Influence of Starvation on Aerobic Granulation, Y. Liu, Z.-W. Wang, and Q.-S. Liu
Filamentous Growth in an Aerobic Granular Sludge SBR, Y. Liu and Q.-S. Liu
Improved Stability of Aerobic Granules by Selecting Slow-Growing Bacteria, Y. Liu and Z.-W. Wang
Pilot Study of Aerobic Granulation for Wastewater Treatment, Q.-S. Liu and Y. Liu