The content presented here represents the most current version of this section, which was printed in the 24th edition of Standard Methods for the Examination of Water and Wastewater.
1. Characklis WG. Bacterial regrowth in distribution systems. Denver (CO): American Water Works Association Research Foundation; 1988. Google Scholar
2. Fransolet G, Villers G, Masschelein WJ. Influence of temperature on bacterial development in waters. Ozone Sci Eng. 1985;7(3):205227. Google Scholar
3. Maul A, El-Shaarawi AH, Block JC. 1985. Heterotrophic bacteria in water distribution systems. I. Spatial and temporal variation. Sci Total Environ. 44(3):201214. Google Scholar
4. LeChevallier MW, Cawthon CD, Lee RG. Factors promoting survival of bacteria in chlorinated water supplies. Appl Environ Microbiol. 1988;54(3):649654. Google Scholar
5. van der Kooij D, Visser A, Hijnen WAM. Determining the concentration of easily assimilable organic carbon in drinking water. J Amer Water Works Assoc. 1982;74(10):540545. Google Scholar
6. Serváis P, Billen G, Hascoet MC. Determination of the biodegradable fraction of dissolved organic matter in waters. Water Res. 1987;21(4):445450. Google Scholar
7. Joret JC, Levi Y, Dupin T, Gilbert M. Rapid method for estimating bioeliminable organic carbon in water. In: Proceedings of the Annual Conference of the American Water Works Association; 1988 June 1923; Orlando FL. Denver (CO): American Water Works Association; 1988, p. 1715. Google Scholar
8. Wetzel RG, Manny BA. Decomposition of dissolved organic carbon and nitrogen compounds from leaves in an experimental hard-water stream. Limnol Oceanogr. 1972;17(6):927931. Google Scholar
9. Ogura N. Further studies on decomposition of dissolved organic matter in coastal seawater. Mar Biol. 1975;31(2):101111. Google Scholar
10. Van der Kooij D. Assimilable organic carbon (AOC) in water. In: The Search for a Surrogate. AWWA Research Foundation/KIWA Cooperative Research Report. Denver (CO): American Water Works Association Research Foundation; 1988, p. 311. Google Scholar
11. Kaplan LA, Bott TL. Nutrients for bacterial growth in drinking water: bioassay evaluation. EPA Project Summary, EPA-600/S2-89-030: 1-7. Cincinnati (OH): Risk Reduction Engineering Laboratory, U.S. Environmental Protection Agency; 1990. Google Scholar
12. Kim S, Kramer RW, Hatcher PG. Graphical method for analysis of ultrahigh-resolution broadband mass spectra of natural organic matter, the Van Krevelen Diagram. Anal Chem. 2003;75(20):53365344. Google Scholar
13. Hockaday WC, Purcell JM, Marshall AG, Baldock JA, Hatcher PG. Electrospray and photoionization mass spectrometry for the characterization of organic matter in natural waters: a qualitative assessment. Limnol Ocean Meth. 2009;7(1):8195. Google Scholar
14. Cotner JB, Sada RH, Bootsma H, Johengen T, Cavaletto JF, Gardner WS. Nutrient limitation of heterotrophic bacteria in Florida Bay. Estuaries. 2000;23:611620. Google Scholar
15. Kenny F, Fry JC, Breach RA. Development and operational implementation of modified and simplified method for determination of assimilable organic carbon (AOC) in drinking water. Water Sci Tech. 1989;21(3):155159. Google Scholar
16. Nedwell DB. Distribution and pool sizes of microbially available carbon in sediment measured by a microbiological assay. Microbiol Ecol. 1987;3(1):4752. Google Scholar
17. Werner P. Investigations on the substrate character of organic substances in connection with drinking water treatment. Zen-tralbl Bakt Hyg. 1984;180:46. Google Scholar
18. van der Kooij D, Hijnen WAM. Nutritional versatility of a starch utilizing Flavobacterium at low substrate concentrations. Appl Environ Microbiol. 1983;45(3):804810. Google Scholar
19. Van der Kooij D, Hijnen WAM. Substrate utilization of an oxalate-consuming Spirillum species in relation to its growth in ozonated water. Appl Environ Microbiol. 1984;47(3):551559. Google Scholar
20. Weinrich LA, Giraldo E, LeChevallier MW. Development and application of a bioluminescence-based test for assimilable organic carbon in reclaimed waters. Appl Environ Microbiol. 2009;75(23):73857390. Google Scholar
21. Hammes FA, Egli T. New method for assimilable organic carbon determination using flow-cytometric enumeration and a natural microbial consortium as inoculum. Environ Sci Technol. 2005;39(9):32893294. Google Scholar
22. Colbourne JS, Trew RM, Dennis. PJ. Treatment of water for aquatic bacterial growth studies. J Appl Bacteriol. 1988;65(1):7985. Google Scholar
23. Kaplan LA, Bott TL. Measurement of assimilable organic carbon in water distribution systems by a simplified bioassay technique. In: Advances in water analysis and treatment, Proceedings of the 16th Annual AWWA Water Quality Technology Conference; 1988 Nov 13–17; St. Louis MO. Denver (CO): American Water Works Association; 1989, p. 475. Google Scholar
24. Kaplan LA, Bott TL, Reasoner DJ. Evaluation and simplification of the assimilable organic carbon nutrient bioassay for bacterial growth in drinking water. Appl Environ Microbiol. 1993;59(5):15321539. Google Scholar
25. Moriarty DJW. Measurement of bacterial growth rates in aquatic systems from rates of nucleic acid synthesis. In: Marshall KC, ed. Advances in microbial ecology. Springer; 1986, p. 245292. (Volume 9) Google Scholar
26. LeChevallier MW, Shaw NE, Kaplan LA, Bott TL. Development of a rapid assimilable organic carbon method for water. Appl Environ Microbiol. 1993;59:15261531. Google Scholar
27. LeChevallier MW, Welch NJ, Smith DB. Full-scale studies of factors related to coliform regrowth in drinking water. Appl Environ Microbiol. 1996;62(7):22012211. Google Scholar
28. Prevost M, Duchesne D, Coallier J, Desjardins R, Lafrance P. Full-scale evaluation of biological activated carbon filtration for the treatment of drinking water. In: Advances in water analysis and treatment. Proceedings of the 17th Annual AWWA Water Quality Technology Conference; 1989 Nov 12-16; Philadelphia PA. Denver (CO): American Water Works Association; 1990, p. 147. Google Scholar
van der Kooij D. 1979. Characterization and classification of fluorescent pseudomonads isolated from tap water and surface water. Antonie van Leeuwenhoek. 1979;45(2):225240. Google Scholar
van der Kooij D, Visser A, Hijnen WAM. Growth of Aeromonas hydrophila at low concentrations of substrates added to tap water. Appl Environ Microbiol. 1980;39(6):11981204. Google Scholar
Werner P. Microbiological studies on the chemical and biological treatment of ground water containing humic acid [in German]. Vom Wasser 1981;57:157164. Google Scholar
Rizet M, Fiessinger F, Houel N. Bacterial regrowth in a distribution system and its relationship with the quality of the feed water: case studies. In: Proceedings of the Annual Conference of the American Water Works Association; 1982 May 16–20; Miami Beach FL. Denver (CO): American Water Works Association; 1982, p. 1199. Google Scholar
van der Kooij D, Oranje JP, Hijnen WAM. Growth of Pseudomonas aeruginosa in tap water in relation to utilization of substrates at concentrations of a few micrograms per liter. Appl Environ Microbiol. 1982;44(5):10861095. Google Scholar
Camper AK, LeChevallier MW, Broadaway SC, McFeters GA. Bacteria associated with granular activated carbon particles in drinking water. Appl Environ Microbiol. 1986;52(3):434438. Google Scholar
Weng C, Hoven DL, Schwartz BJ. 1986. Ozonation: an economic choice for water treatment. J Amer Water Works Assoc. 1986;78(11):8389. Google Scholar
Carlucci AF, Shimp SL, Craven DB. Bacterial response to labile dissolved organic matter increases associated with marine discontinuities. Microbiol Ecol. 1987;3(4):211220. Google Scholar
LeChevallier MW, Babcock TM, Lee RG. Examination and characterization of distribution system biofilms. Appl Environ Microbiol. 1987;53(12):27142724. Google Scholar
Thingstad TF. Utilization of N, P, and organic C by heterotrophic bacteria. I. Outline of a chemostat theory with a consistent concept of maintenance metabolism. Marine Ecol Progr Ser. 1987;35:99109. Google Scholar
Anselme C, Suffet IH, Mallevialle J. Effects of ozonation on tastes and odors. J Amer Water Works Assoc. 1988;80(10):4551. Google Scholar
Fransolet G, Depelchin A, Villers G, Goossens R, Masschelein WJ. The role of bicarbonate in bacterial growth in oligotrophic waters. J Amer Water Works Assoc. 1988;80(11):5761. Google Scholar
Haddix PL, Shaw NJ, LeChevallier MW. Characterization of bioluminescent derivatives of assimilable organic carbon test bacteria. Appl Environ Microbiol. 2004;70(2)850854. Google Scholar
1. Kaplan LA, Bott TL. Measurement of assimilable organic carbon in water distribution systems by a simplified bioassay technique. In: Advances in water analysis and treatment, Proceedings of the 16th Annual AWWA Water Quality Technology Conference; 1988 Nov 13–17; St. Louis MO. Denver (CO): American Water Works Association; 1989, p. 475. Google Scholar
2. van der Kooij D, Visser A, Oranje JP. Multiplication of fluorescent pseudomonads at low substrate concentrations in tap water. Antonie van Leeuwenhoek. 1982;48(3):229243. Google Scholar
3. LeChevallier MW, Shulz WH, Lee RG. Bacterial nutrients in drinking water. In: LeChevallier MW, Olson BH, McFeters GA, eds. Assessing and controlling bacterial regrowth in distribution systems. American Water Works Association Research Foundation Research Report. Denver (CO): American Water Works Association; 1989. Google Scholar
4. Kaplan LA, Bott TL. Modifications to simplify an AOC bioassay for routine use by utilities monitoring bacterial regrowth potential in water distribution systems. In: Advances in water analysis and treatment. Proceedings of the 17th Annual AWWA Water Quality Technology Conference; 1989 Nov 12–16; Philadelphia PA. Denver (CO): American Water Works Association; 1990, p. 1031. Google Scholar
5. van der Kooij D, Hijnen WAM, Kruithof JC. The effects of ozonation, biological filtration and distribution on the concentration of easily assimilable organic carbon (AOC) in drinking water. Ozone Sci Eng. 1989;11(3):297311. Google Scholar
6. Kaplan LA, Bott TL. Nutrients for bacterial growth in drinking water: bioassay evaluation. EPA Project Summary, EPA-600/S2-89-030: 1–7. Cincinnati (OH): Risk Reduction Engineering Laboratory, U.S. Environmental Protection Agency; 1990. Google Scholar
King EO, Ward MK, Raney DE. Two simple media for the demonstration of pyocyanin and fluorescin. J Lab Clin Med. 1954;44(2):301307. Google Scholar
Mason J, Kelly DP. Thiosulfate oxidation by obligately heterotrophic bacteria. Microbial Ecol. 1988;15(2):123134. Google Scholar

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CITATION

Standard Methods Committee of the American Public Health Association, American Water Works Association, and Water Environment Federation. 9217 biodegradable organic matter In: Standard Methods For the Examination of Water and Wastewater. Lipps WC, Baxter TE, Braun-Howland E, editors. Washington DC: APHA Press.

DOI: 10.2105/SMWW.2882.190

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