Prediction of the Adaptability of Pseudomonas putida DOT-T1E to a Second Phase of a Solvent for Economically Sound Two-Phase Biotransformations

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Published inApplied and Environmental Microbiology Vol. 71; no. 11; pp. 6606 - 6612
Main Authors NEUMANN, Grit, KABELITZ, Nadja, ZEHNSDORF, Andreas, MILTNER, Anja, LIPPOLD, Holger, MEYER, Daniel, SCHMID, Andreas, HEIPIEPER, Hermann J
Format Journal Article
LanguageEnglish
Published Washington, DC American Society for Microbiology 01.11.2005
Subjects
1-Octanol - metabolism
Adaptability
Adaptation, Physiological
Bacteria
Bioconversions. Hemisynthesis
Biological and medical sciences
Bioreactors
Biotechnology
Biotechnology - methods
Cells
Culture Media
Fatty Alcohols - metabolism
Fermentation
Fundamental and applied biological sciences. Psychology
Methods. Procedures. Technologies
Microbiology
Physiology and Biotechnology
Predictive Value of Tests
Pseudomonas putida
Pseudomonas putida - growth & development
Pseudomonas putida - metabolism
Pseudomonas putida - physiology
Solvents
Solvents - metabolism
Toluene - analogs & derivatives
Toluene - metabolism
Water
Pseudomonadales
Organic solvent
Biphasic system
Biotransformation
Prediction
Alkanol
Tolerance
Bacteria
Pseudomonadaceae
Pseudomonas putida
Adaptation
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AbstractList The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase biotransformations. Although 1-decanol showed an about 10-fold higher toxicity to the cells than 1-octanol, the cells were able to adapt completely to 1-decanol only and could not be adapted in order to grow stably in the presence of a second phase of 1-octanol. The main explanation for this observation can be seen in the higher water and membrane solubility of 1-octanol. The hydrophobicity (log P) of a substance correlates with a certain partitioning of that compound into the membrane. Combining the log P value with the water solubility, the maximum membrane concentration of a compound can be calculated. With this simple calculation, it is possible to predict the property of an organic chemical for its potential applicability as a solvent for two-liquid-phase biotransformations with solvent-tolerant P. putida strains. Only compounds that show a maximum membrane concentration of less than 400 mM, such as 1-decanol, seem to be tolerated by these bacterial strains when applied in supersaturating concentrations to the medium. Taking into consideration that a solvent for a two-liquid-phase system should possess partitioning properties for potential substrates and products of a fine chemical synthesis, it can be seen that 1-decanol is a suitable solvent for such biotransformation processes. This was also demonstrated in shake cultures, where increasing amounts of a second phase of 1-decanol led to bacteria tolerating higher concentrations of the model substrate 3-nitrotoluene. Transferring this example to a 5-liter-scale bioreactor with 10% (vol/vol) 1-decanol, the amount of 3-nitrotoluene tolerated by the cells is up to 200-fold higher than in pure aqueous medium. The system demonstrates the usefulness of two-phase biotransformations utilizing solvent-tolerant bacteria.
The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase biotransformations. Although 1-decanol showed an about 10-fold higher toxicity to the cells than 1-octanol, the cells were able to adapt completely to 1-decanol only and could not be adapted in order to grow stably in the presence of a second phase of 1-octanol. The main explanation for this observation can be seen in the higher water and membrane solubility of 1-octanol. The hydrophobicity (log P) of a substance correlates with a certain partitioning of that compound into the membrane. Combining the log P value with the water solubility, the maximum membrane concentration of a compound can be calculated. With this simple calculation, it is possible to predict the property of an organic chemical for its potential applicability as a solvent for two-liquid-phase biotransformations with solvent-tolerant P. putida strains. Only compounds that show a maximum membrane concentration of less than 400 mM, such as 1-decanol, seem to be tolerated by these bacterial strains when applied in supersaturating concentrations to the medium. Taking into consideration that a solvent for a two-liquid-phase system should possess partitioning properties for potential substrates and products of a fine chemical synthesis, it can be seen that 1-decanol is a suitable solvent for such biotransformation processes. This was also demonstrated in shake cultures, where increasing amounts of a second phase of 1-decanol led to bacteria tolerating higher concentrations of the model substrate 3-nitrotoluene. Transferring this example to a 5-liter-scale bioreactor with 10% (vol/vol) 1-decanol, the amount of 3-nitrotoluene tolerated by the cells is up to 200-fold higher than in pure aqueous medium. The system demonstrates the usefulness of two-phase biotransformations utilizing solvent-tolerant bacteria.
The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase biotransformations. Although 1-decanol showed an about 10-fold higher toxicity to the cells than 1-octanol, the cells were able to adapt completely to 1-decanol only and could not be adapted in order to grow stably in the presence of a second phase of 1-octanol. The main explanation for this observation can be seen in the higher water and membrane solubility of 1-octanol. The hydrophobicity (log P) of a substance correlates with a certain partitioning of that compound into the membrane. Combining the log P value with the water solubility, the maximum membrane concentration of a compound can be calculated. With this simple calculation, it is possible to predict the property of an organic chemical for its potential applicability as a solvent for two-liquid-phase biotransformations with solvent-tolerant P. putida strains. Only compounds that show a maximum membrane concentration of less than 400 mM, such as 1-decanol, seem to be tolerated by these bacterial strains when applied in supersaturating concentrations to the medium. Taking into consideration that a solvent for a two-liquid-phase system should possess partitioning properties for potential substrates and products of a fine chemical synthesis, it can be seen that 1-decanol is a suitable solvent for such biotransformation processes. This was also demonstrated in shake cultures, where increasing amounts of a second phase of 1-decanol led to bacteria tolerating higher concentrations of the model substrate 3-nitrotoluene. Transferring this example to a 5-liter-scale bioreactor with 10% (vol/vol) 1-decanol, the amount of 3-nitrotoluene tolerated by the cells is up to 200-fold higher than in pure aqueous medium. The system demonstrates the usefulness of two-phase biotransformations utilizing solvent-tolerant bacteria. [PUBLICATION ABSTRACT]
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ABSTRACT The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase biotransformations. Although 1-decanol showed an about 10-fold higher toxicity to the cells than 1-octanol, the cells were able to adapt completely to 1-decanol only and could not be adapted in order to grow stably in the presence of a second phase of 1-octanol. The main explanation for this observation can be seen in the higher water and membrane solubility of 1-octanol. The hydrophobicity (log P) of a substance correlates with a certain partitioning of that compound into the membrane. Combining the log P value with the water solubility, the maximum membrane concentration of a compound can be calculated. With this simple calculation, it is possible to predict the property of an organic chemical for its potential applicability as a solvent for two-liquid-phase biotransformations with solvent-tolerant P. putida strains. Only compounds that show a maximum membrane concentration of less than 400 mM, such as 1-decanol, seem to be tolerated by these bacterial strains when applied in supersaturating concentrations to the medium. Taking into consideration that a solvent for a two-liquid-phase system should possess partitioning properties for potential substrates and products of a fine chemical synthesis, it can be seen that 1-decanol is a suitable solvent for such biotransformation processes. This was also demonstrated in shake cultures, where increasing amounts of a second phase of 1-decanol led to bacteria tolerating higher concentrations of the model substrate 3-nitrotoluene. Transferring this example to a 5-liter-scale bioreactor with 10% (vol/vol) 1-decanol, the amount of 3-nitrotoluene tolerated by the cells is up to 200-fold higher than in pure aqueous medium. The system demonstrates the usefulness of two-phase biotransformations utilizing solvent-tolerant bacteria.
Author Andreas Schmid
Hermann J. Heipieper
Nadja Kabelitz
Andreas Zehnsdorf
Daniel Meyer
Anja Miltner
Holger Lippold
Grit Neumann
AuthorAffiliation Department of Bioremediation, Centre for Environmental Research Leipzig-Halle (UFZ), Permoserstrasse 15, 04318 Leipzig, Germany, 1 Environmental and Biotechnology Centre (UBZ), Permoserstrasse 15, 04318 Leipzig, Germany, 2 Institute of Interdisciplinary Isotope Research (IIF), Permoserstrasse 15, 04318 Leipzig, Germany, 3 Institute of Biotechnology, Swiss Federal Institute of Technology (ETH), 8093 Zurich, Switzerland, 4 Chair of Chemical Biotechnology and Institute for Analytical Sciences, University of Dortmund, 44227 Dortmund, Germany 5
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Issue 11
Keywords Pseudomonadales
Organic solvent
Biphasic system
Biotransformation
Prediction
Alkanol
Tolerance
Bacteria
Pseudomonadaceae
Pseudomonas putida
Adaptation
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Corresponding author. Mailing address: Department of Bioremediation, Centre for Environmental Research Leipzig-Halle (UFZ), Permoserstr. 15, 04318 Leipzig, Germany. Phone: 49 341 235 2772. Fax: 49 341 235 2492. E-mail: hermann.heipieper@ufz.de.
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Snippet Classifications Services AEM Citing Articles Google Scholar PubMed Related Content Social Bookmarking CiteULike Delicious Digg Facebook Google+ Mendeley Reddit...
The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase...
ABSTRACT The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in...
The strain Pseudomonas putida DOT-T1E was tested for its ability to tolerate second phases of different alkanols for their use as solvents in two-liquid-phase...
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SourceType Open Access Repository
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Publisher
StartPage 6606
SubjectTerms 1-Octanol - metabolism
Adaptability
Adaptation, Physiological
Bacteria
Bioconversions. Hemisynthesis
Biological and medical sciences
Bioreactors
Biotechnology
Biotechnology - methods
Cells
Culture Media
Fatty Alcohols - metabolism
Fermentation
Fundamental and applied biological sciences. Psychology
Methods. Procedures. Technologies
Microbiology
Physiology and Biotechnology
Predictive Value of Tests
Pseudomonas putida
Pseudomonas putida - growth & development
Pseudomonas putida - metabolism
Pseudomonas putida - physiology
Solvents
Solvents - metabolism
Toluene - analogs & derivatives
Toluene - metabolism
Water
Title Prediction of the Adaptability of Pseudomonas putida DOT-T1E to a Second Phase of a Solvent for Economically Sound Two-Phase Biotransformations
URI http://aem.asm.org/content/71/11/6606.abstract
https://www.ncbi.nlm.nih.gov/pubmed/16269688
https://www.proquest.com/docview/205965219/abstract/
https://search.proquest.com/docview/19965784
https://pubmed.ncbi.nlm.nih.gov/PMC1287635
Volume 71
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