Abstract
Effect of carbon starvation on the rate of dihexylsulfosuccinate (DHSS) biotransformation byComamonas terrigena was determined. The protein content during the starvation was stable in all variants and did not change during the transformation cycle. All starved cultures exhibited a higher biotransformation rate than a non-starved control. Cells ofC. terrigena exposed for 16 h in media with no C source showed the highest specific biotransformation rate (144% of the non-starved culture). Extension of the starvation to 2 d led to a decrease of the rate to close to that found in non-starved cells.
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Flärdh K., Axberg T., Albertson N.H., Kjelleberg S.: Stringent control during carbon starvation of marineVibrio sp. strain S14: molecular cloning, nucleotide sequence, and deletion of therelA gene.J. Bacteriol.19: 5949–5957 (1994).
Hayashi K.: A rapid determination of sodium dodecyl sulphate with methylene blue.Anal. Biochem.67, 503–506 (1975).
Húska J., Závadská I., Tóth D., Dobrotová M., Gemeiner P.: Immobilization of surfactant degrading bacteria in alginate gel.Biologia51, 279–283 (1996).
Kjelleberg S., Hermansson M., Mårdén P., Jones G.W.: The transient phase between growth and nongrowth of heterotrophic bacteria, with emphasis on the marine environment.Ann. Rev. Microbiol.41, 25–49 (1987).
Kragelund L., Nybroe O.: Culturability and expression of outer membrane proteins during carbon, nitrogen, or phosphorus starvation ofPseudomonas fluorescens DF57 andPseudomonas putida DF14.Appl. Environ. Microbiol.8, 2944–2948 (1994)
McCann M.P., Kidwell J.P., Matin A.: The putative factor KatF has a central role in development of starvation mediated general resistance inEscherichia coli.J. Bacteriol.173, 4188–4194 (1991).
Morita R.Y.: Starvation and miniaturisation of heterotrophs, with special emphasis on maintenance of the starved viable state, pp. 111–130 inBacteria in Their Natural Environments (M.M. Fletcher, G.D. Floodgate, Eds.), Academic Press, London 1985.
Morita R.Y.: Bioavailability of energy and its relationship to growth and starvation survival in nature.Can. J. Microbiol.34, 436–441 (1988).
Morton D.S., Oliver J.D.: Induction of carbon starvation-induced proteins inVibrio vulnificus.Appl. Environ. Microbiol.10, 3653–3659 (1994).
Nyström T., Kjelleberg S.: Role of protein synthesis in the cell division and starvation induced resistance to autolysis of a marineVibrio during the initial phases of starvation.J. Gen. Microbiol.135, 1599–1606 (1989).
Nyström T., Albertson N.H., Flärdh K., Kjelleberg S.: Physiological and molecular adaptation to starvation and recovery from starvation by the marineVibrio sp. S14.FEMS Microbiol. Ecol.74, 129–140 (1990).
O'Neal C.R., Gabriel W.M., Turk A.K., Libby S.J., Fang F.C., Spector M.P.: RpoS is necessary for both the positive and negative regulation of starvation survival genes during phosphate, carbon, and nitrogen starvation inSalmonella typhimurium.J. Bacteriol.15, 4610–4616 (1994).
Siegele D.A., Kolter R.: Life after log.J. Bacteriol.174, 345–348 (1992).
Siegele D.A., Kolter R.: Isolation and characterization of anEscherichia coli mutant defective in resuming growth after starvation.Genes & Development7, 2629–2640 (1993).
Truex M.J., Brockman F.J., Johnstone D.L., Fredrickson J.K.: Effect of starvation on induction of quinoline degradation for a subsurface bacterium in a continuous-flow column.Appl. Environ. Microbiol.8, 2386–2392 (1992).
Tuomanen E., Markiewicz Z., Tomasz A.: Autolysis-resistant peptidoglycan of anomalous composition in amino-acid-starvedEscherichia coli.J. Bacteriol.170, 1373–1376 (1988).
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Töth, D., Húska, J., Závadská, I. et al. Effect of bacterial starvation on surfactant biotransformation. Folia Microbiol 41, 477–479 (1996). https://doi.org/10.1007/BF02814661
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DOI: https://doi.org/10.1007/BF02814661