Endogenous decay and bioenergetics theory for aerobic wastewater treatment

Water Research

Volumn 32, Issue 2, 1998, Pages 410-418

  Droste, R L ^a  

^a UNIVERSITY OF OTTAWA   (Canada)

Author keywords

Bioenergetics; Biological wastewater treatment; Endogenous decay; Sludge digestion; Sludge yield; Thermodynamics

Indexed keywords

BIOLOGICAL WATER TREATMENT; BIOMASS; MATHEMATICAL MODELS; OXIDATION; SLUDGE DIGESTION; SUBSTRATES; THERMODYNAMICS;

AEROBIC WASTEWATER TREATMENT; BIOENERGETICS THEORY; BIOLOGICAL WASTEWATER TREATMENT; ENDOGENOUS DECAY; SLUDGE YIELD;

WASTEWATER TREATMENT;

ORGANIC MATTER;

MODEL; THERMODYNAMICS; WASTE WATER; WATER TREATMENT;

ACTIVATED SLUDGE; ARTICLE; BIOENERGY; BIOMASS; METABOLISM; MODEL; OXIDATION; PRIORITY JOURNAL; SLUDGE DIGESTION; SUSPENDED PARTICULATE MATTER; THERMODYNAMICS; WASTE WATER MANAGEMENT;

EID: 0032008141     PISSN: 00431354     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0043-1354(97)00281-9     Document Type: Article

References (21)

1. Adams C. E., Eckenfelder W. W. Jr and Stein R. M. (1974) Modifications to aerobic digester design. Water Res. 8, 213-218.
2. th Industrial Waste Conference, Purdue University, Lafayette, IN.
3. Christensen D. R. and McCarty P. L. (1975) Multi-process biological treatment model. J. Water Pollution Control Federation 47, 2652-2664.
4. Dold P. L., Ekama G. A. and Marais G. v. R. (1980) A general model for the activated sludge process. Progress in Water Technol. 12, 47-77.
5. Droste R. L. (1992) Effect of nitrogen on yield using bioenergetics theory. J. Envir. Engrg., ASCE 118, 814-820.
6. Ekama G. A., Dold P. L. and Marais G. v. R. (1986) Procedures for determining influent COD fraction and the maximum specific growth rate of heterotrophs in activated sludge systems. Water Sci. Tech. 18, 91-114.
7. Goodman B. L. and Englande A. J. Jr (1974) A unified model of the activated sludge process. J. Water Pollution Control Federation 46, 312-332.
8. Heijnen J. J. and Roels J. A. (1981) A macroscopic model describing yield and maintenance relationships in aerobic fermentation. Biotechnology and Bioengineering 23, 739-763.
9. Heijnen J. J., van Loosdrecht M. C. M. and Tijhius L. (1992) A black box mathematical model to calculate auto-and heterotrophic biomass yields based on Gibb's energy dissipation. Biotechnology and Bioengineering 40, 1139-1154.
10. Heijnen J. J. and van Dijken J. P. (1992) In search of a thermodynamic description of biomass yields for the chemotrophic growth of microorganisms. Biotechnology and Bioengineering 39, 833-858.
11. Henze M., Grady C. P. L. Jr, Gujer W., Marais G. v. R. and Matsuo T. (1987) Activated Sludge Model No. 1, IAWPRC Scientific and Technical Reports No. 1, London.
12. Henze M., Gujer W., Mino T., Matsuo T., Wentzel M. C. and Marais G. v. R. (1995) Activated Sludge Model No. 2, IAWQ, London.
13. Krishnamoorthy R. and Loehr R. C. (1989) Aerobic sludge stabilization-factors affecting kinetics. J. of Envir. Engrg., ASCE 115, 283-301.
14. nd ed., Worth Publishers, NY.
15. McCarty P. L. (1965) Thermodynamics of biological synthesis and growth. Int. J. Air and Water Pollution 9, 621-639.
16. McCarty P. L. (1971) Energetics and bacterial growth. In Organic Compounds in Aquatic Environments (Edited by Faust S. D. and Hunter. J. V.), pp. 495-531. Marcel Dekker, NY.
17. McCarty P. L. (1972) Stoichiometry of biological reactions. Progress in Water Technol. 7, 157-173.
18. McKinney R. E. (1962) Microbiology for Sanitary Engineers, McGraw-Hill, NY.
19. th ed., McGraw-Hill, NY.
20. Stumm W. W. and Morgan J. J. (1981) Aquatic Chemistry, 2nd ed., J. Wiley and Sons, Toronto, Canada.
21. Thauer R. K., Jungermann K. and Decker K. (1977) Energy conservation in chemotrophic anaerobic bacteria. Bacteriol. Rev. 41, 100-180.