Laboratory scale cultivation of Salinispora tropica in shake flasks and mechanically stirred bioreactors

Objective Marine actinomycetes from the genus Salinispora have an unexploited biotechnological potential. To accurately estimate their application potential however, data on their cultivation, including biomass growth kinetics, are needed but only incomplete information is currently available. Resul...

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Veröffentlicht in:Biotechnology letters 2021-09, Vol.43 (9), p.1715-1722
Hauptverfasser: Jezkova, Zuzana, Binda, Elisa, Potocar, Tomas, Marinelli, Flavia, Halecky, Martin, Branyik, Tomas
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container_end_page 1722
container_issue 9
container_start_page 1715
container_title Biotechnology letters
container_volume 43
creator Jezkova, Zuzana
Binda, Elisa
Potocar, Tomas
Marinelli, Flavia
Halecky, Martin
Branyik, Tomas
description Objective Marine actinomycetes from the genus Salinispora have an unexploited biotechnological potential. To accurately estimate their application potential however, data on their cultivation, including biomass growth kinetics, are needed but only incomplete information is currently available. Results This work provides some insight into the effect of temperature, salinity, nitrogen source, glucose concentration and oxygen supply on growth rate, biomass productivity and yield of Salinispora tropica CBN-440 T . The experiments were carried out in unbaffled shake flasks and agitated laboratory-scale bioreactors. The results show that the optimum growth temperature lies within the range 28–30 °C, salinity is close to sea water and the initial glucose concentration is around 10 g/L. Among tested nitrogen sources, yeast extract and soy peptone proved to be the most suitable. The change from unbaffled to baffled flasks increased the volumetric oxygen transfer coefficient (k L a) as did the use of agitated bioreactors. The highest specific growth rate (0.0986 h −1 ) and biomass productivity (1.11 g/L/day) were obtained at k L a = 28.3 h −1 . A further increase in k L a was achieved by increasing stirrer speed, but this led to a deterioration in kinetic parameters. Conclusions Improvement of S. tropica biomass growth kinetics of was achieved mainly by identifying the most suitable nitrogen sources and optimizing k L a in baffled flasks and agitated bioreactors.
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To accurately estimate their application potential however, data on their cultivation, including biomass growth kinetics, are needed but only incomplete information is currently available. Results This work provides some insight into the effect of temperature, salinity, nitrogen source, glucose concentration and oxygen supply on growth rate, biomass productivity and yield of Salinispora tropica CBN-440 T . The experiments were carried out in unbaffled shake flasks and agitated laboratory-scale bioreactors. The results show that the optimum growth temperature lies within the range 28–30 °C, salinity is close to sea water and the initial glucose concentration is around 10 g/L. Among tested nitrogen sources, yeast extract and soy peptone proved to be the most suitable. The change from unbaffled to baffled flasks increased the volumetric oxygen transfer coefficient (k L a) as did the use of agitated bioreactors. The highest specific growth rate (0.0986 h −1 ) and biomass productivity (1.11 g/L/day) were obtained at k L a = 28.3 h −1 . A further increase in k L a was achieved by increasing stirrer speed, but this led to a deterioration in kinetic parameters. Conclusions Improvement of S. tropica biomass growth kinetics of was achieved mainly by identifying the most suitable nitrogen sources and optimizing k L a in baffled flasks and agitated bioreactors.</description><identifier>ISSN: 0141-5492</identifier><identifier>EISSN: 1573-6776</identifier><identifier>DOI: 10.1007/s10529-021-03121-1</identifier><identifier>PMID: 34003399</identifier><language>eng</language><publisher>Dordrecht: Springer Netherlands</publisher><subject>Actinomycetes ; Agitation ; Applied Microbiology ; Batch Cell Culture Techniques - methods ; Biochemistry ; Biomass ; Biomedical and Life Sciences ; Bioreactors ; Bioreactors - microbiology ; Biotechnology ; Cell culture ; Chemical analysis ; Cultivation ; Culture Media - chemistry ; Flasks ; Glucose ; Glucose - metabolism ; Growth kinetics ; Growth rate ; Kinetics ; Laboratories ; Life Sciences ; Mechanical Phenomena ; Microbiology ; Micromonosporaceae - growth &amp; development ; Nitrogen ; Nitrogen - metabolism ; Nitrogen sources ; Optimization ; Original Research Paper ; Oxygen ; Oxygen - metabolism ; Oxygen transfer ; Peptones ; Productivity ; Salinispora tropica ; Salinity ; Salinity effects ; Seawater ; Temperature ; Temperature effects ; Water analysis ; Yeasts</subject><ispartof>Biotechnology letters, 2021-09, Vol.43 (9), p.1715-1722</ispartof><rights>The Author(s), under exclusive licence to Springer Nature B.V. 2021</rights><rights>2021. 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To accurately estimate their application potential however, data on their cultivation, including biomass growth kinetics, are needed but only incomplete information is currently available. Results This work provides some insight into the effect of temperature, salinity, nitrogen source, glucose concentration and oxygen supply on growth rate, biomass productivity and yield of Salinispora tropica CBN-440 T . The experiments were carried out in unbaffled shake flasks and agitated laboratory-scale bioreactors. The results show that the optimum growth temperature lies within the range 28–30 °C, salinity is close to sea water and the initial glucose concentration is around 10 g/L. Among tested nitrogen sources, yeast extract and soy peptone proved to be the most suitable. The change from unbaffled to baffled flasks increased the volumetric oxygen transfer coefficient (k L a) as did the use of agitated bioreactors. The highest specific growth rate (0.0986 h −1 ) and biomass productivity (1.11 g/L/day) were obtained at k L a = 28.3 h −1 . A further increase in k L a was achieved by increasing stirrer speed, but this led to a deterioration in kinetic parameters. 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The highest specific growth rate (0.0986 h −1 ) and biomass productivity (1.11 g/L/day) were obtained at k L a = 28.3 h −1 . A further increase in k L a was achieved by increasing stirrer speed, but this led to a deterioration in kinetic parameters. Conclusions Improvement of S. tropica biomass growth kinetics of was achieved mainly by identifying the most suitable nitrogen sources and optimizing k L a in baffled flasks and agitated bioreactors.</abstract><cop>Dordrecht</cop><pub>Springer Netherlands</pub><pmid>34003399</pmid><doi>10.1007/s10529-021-03121-1</doi><tpages>8</tpages><orcidid>https://orcid.org/0000-0002-2463-2067</orcidid></addata></record>
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subjects Actinomycetes
Agitation
Applied Microbiology
Batch Cell Culture Techniques - methods
Biochemistry
Biomass
Biomedical and Life Sciences
Bioreactors
Bioreactors - microbiology
Biotechnology
Cell culture
Chemical analysis
Cultivation
Culture Media - chemistry
Flasks
Glucose
Glucose - metabolism
Growth kinetics
Growth rate
Kinetics
Laboratories
Life Sciences
Mechanical Phenomena
Microbiology
Micromonosporaceae - growth & development
Nitrogen
Nitrogen - metabolism
Nitrogen sources
Optimization
Original Research Paper
Oxygen
Oxygen - metabolism
Oxygen transfer
Peptones
Productivity
Salinispora tropica
Salinity
Salinity effects
Seawater
Temperature
Temperature effects
Water analysis
Yeasts
title Laboratory scale cultivation of Salinispora tropica in shake flasks and mechanically stirred bioreactors
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