Biofilm dynamics studied with microsensors and molecular techniques
Here we present preliminary data on the development of a biofilm from a wastewater treatment plant studied with microsensors and molecular techniques. The development during biofilm growth of oxygen, sulfide and pH profiles was measured with microsensors. Anoxic zones developed within one week and f...
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Veröffentlicht in: | Water science and technology 1998, Vol.37 (4-5), p.125-129 |
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creator | Santegoeds, Cecilia M. Muyzer, Gerard de Beer, Dirk |
description | Here we present preliminary data on the development of a biofilm from a wastewater treatment plant studied with microsensors and molecular techniques. The development during biofilm growth of oxygen, sulfide and pH profiles was measured with microsensors. Anoxic zones developed within one week and further increased during the following weeks. However, sulfide production was delayed and was first detected in a six-week-old biofilm. With denaturing gradient gel electrophoresis (DGGE) of PCR-amplified 165 rRNA gene fragments the sequence of the bacterial community was followed showing an increasing complexity of the biofilm community during development. In a mature biofilm the influence of nitrate on sulfide production was studied by measuring oxygen, sulfide, pH, nitrite and nitrate profiles with microsensors. Sulfide production was detected deeper in the biofilm and in lower concentrations, when nitrate was added to the medium. The DGGE pattern of the mature biofilm showed both differences and similarities with the DGGE pattern of the 12-week-old biofilm. In particular the RNA pattern changed when nitrate was added to the medium, indicating a change in activity of certain strains. |
doi_str_mv | 10.1016/S0273-1223(98)00094-8 |
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The development during biofilm growth of oxygen, sulfide and pH profiles was measured with microsensors. Anoxic zones developed within one week and further increased during the following weeks. However, sulfide production was delayed and was first detected in a six-week-old biofilm. With denaturing gradient gel electrophoresis (DGGE) of PCR-amplified 165 rRNA gene fragments the sequence of the bacterial community was followed showing an increasing complexity of the biofilm community during development. In a mature biofilm the influence of nitrate on sulfide production was studied by measuring oxygen, sulfide, pH, nitrite and nitrate profiles with microsensors. Sulfide production was detected deeper in the biofilm and in lower concentrations, when nitrate was added to the medium. The DGGE pattern of the mature biofilm showed both differences and similarities with the DGGE pattern of the 12-week-old biofilm. 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The development during biofilm growth of oxygen, sulfide and pH profiles was measured with microsensors. Anoxic zones developed within one week and further increased during the following weeks. However, sulfide production was delayed and was first detected in a six-week-old biofilm. With denaturing gradient gel electrophoresis (DGGE) of PCR-amplified 165 rRNA gene fragments the sequence of the bacterial community was followed showing an increasing complexity of the biofilm community during development. In a mature biofilm the influence of nitrate on sulfide production was studied by measuring oxygen, sulfide, pH, nitrite and nitrate profiles with microsensors. Sulfide production was detected deeper in the biofilm and in lower concentrations, when nitrate was added to the medium. The DGGE pattern of the mature biofilm showed both differences and similarities with the DGGE pattern of the 12-week-old biofilm. 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subjects | Activated sludge Activated sludge process Analytical methods Anoxia Bacteria bacterial biofilm Biofilms Communities Denitrification DGGE DNA Dynamics Fragments Gel electrophoresis Gels Growth kinetics Microbiological strains Microsensors Nitrates Nucleic acids Nucleotide sequence Oxygen Oxygen sensors PCR pH effects pH sensors population dynamics Profiles Ribonucleic acid RNA rRNA 16S Sewage treatment plants sulfate reduction Sulfides Sulphides Wastewater Wastewater treatment Wastewater treatment plants |
title | Biofilm dynamics studied with microsensors and molecular techniques |
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