Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry

The exact knowledge of Drop Size Distributions (DSD) plays a major role in various fields of applications to control and optimise processes as well as reduce waste. In the microbial production of advanced biofuels, oil droplets are produced under turbulent conditions in an aqueous medium containing...

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Main Authors: Panckow Robert P., Reinecke Laura, Cuellar Maria C., Maaß Sebastian
Format: Article
Language:English
Published: EDP Sciences 2017-05-01
Series:Oil & Gas Science and Technology
Online Access:https://doi.org/10.2516/ogst/2017009
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spelling doaj-a6d022fdee414287819590d3ed46435d2021-02-02T05:14:05ZengEDP SciencesOil & Gas Science and Technology1294-44751953-81892017-05-017231410.2516/ogst/2017009ogst160136Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and IndustryPanckow Robert P.Reinecke LauraCuellar Maria C.Maaß SebastianThe exact knowledge of Drop Size Distributions (DSD) plays a major role in various fields of applications to control and optimise processes as well as reduce waste. In the microbial production of advanced biofuels, oil droplets are produced under turbulent conditions in an aqueous medium containing many surface active components, which might hinder the recovery of the product. Knowledge of DSD is thus essential for process optimisation. This study demonstrates the capability of a photo-optical measurement method for DSD measurement in fermentation broth and in plate separators aimed at cost reduction in the microbial production of advanced biofuels. Measurements were made with model mixtures in a bioreactor, and at the inlet and outlet of a plate separator. In the bioreactor, the method was effective in detecting a broad range of droplet sizes and in differentiating other disperse components (e.g. microbial cells and gas bubbles). In the plate separator, the method was effective in determining the influence of the varied parameters on the separation efficiency.https://doi.org/10.2516/ogst/2017009
collection DOAJ
language English
format Article
sources DOAJ
author Panckow Robert P.
Reinecke Laura
Cuellar Maria C.
Maaß Sebastian
spellingShingle Panckow Robert P.
Reinecke Laura
Cuellar Maria C.
Maaß Sebastian
Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
Oil & Gas Science and Technology
author_facet Panckow Robert P.
Reinecke Laura
Cuellar Maria C.
Maaß Sebastian
author_sort Panckow Robert P.
title Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
title_short Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
title_full Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
title_fullStr Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
title_full_unstemmed Photo-Optical In-Situ Measurement of Drop Size Distributions: Applications in Research and Industry
title_sort photo-optical in-situ measurement of drop size distributions: applications in research and industry
publisher EDP Sciences
series Oil & Gas Science and Technology
issn 1294-4475
1953-8189
publishDate 2017-05-01
description The exact knowledge of Drop Size Distributions (DSD) plays a major role in various fields of applications to control and optimise processes as well as reduce waste. In the microbial production of advanced biofuels, oil droplets are produced under turbulent conditions in an aqueous medium containing many surface active components, which might hinder the recovery of the product. Knowledge of DSD is thus essential for process optimisation. This study demonstrates the capability of a photo-optical measurement method for DSD measurement in fermentation broth and in plate separators aimed at cost reduction in the microbial production of advanced biofuels. Measurements were made with model mixtures in a bioreactor, and at the inlet and outlet of a plate separator. In the bioreactor, the method was effective in detecting a broad range of droplet sizes and in differentiating other disperse components (e.g. microbial cells and gas bubbles). In the plate separator, the method was effective in determining the influence of the varied parameters on the separation efficiency.
url https://doi.org/10.2516/ogst/2017009
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AT maaßsebastian photoopticalinsitumeasurementofdropsizedistributionsapplicationsinresearchandindustry
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