Establishing new microbial cell factories for sustainable bioprocesses
Publication: Research - peer-review › Conference abstract in journal – Annual report year: 2012
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Establishing new microbial cell factories for sustainable bioprocesses. / Workman, Mhairi; Holt, Philippe; Liu, Xiaoying .
In: New Biotechnology, Vol. 29S, 2012, p. S75.Publication: Research - peer-review › Conference abstract in journal – Annual report year: 2012
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TY - ABST
T1 - Establishing new microbial cell factories for sustainable bioprocesses
A1 - Workman,Mhairi
A1 - Holt,Philippe
A1 - Liu,Xiaoying
AU - Workman,Mhairi
AU - Holt,Philippe
AU - Liu,Xiaoying
PB - Elsevier BV
PY - 2012
Y1 - 2012
N2 - The demands of modern society are increasing pressure on natural resources while creating the need for a wider range of products. There is an interest in developing bioprocesses to meet these demands, with conversion of a variety of waste materials providing the basis for a sustainable society. The application of biological catalysts which can convert a variety of substrates to an array of<br/>desirable products has been demonstrated in both ancient bioprocesses and modern industrial biotechnology. In recent times, focus has been on a limited number of “model” organisms which have been extensively exploited and developed. Systems biology approaches can be applied with these well studied strains, where considerable physiological data has been obtained, genome sequences are known and genetic tools have been developed. With the necessity of considering a wider array of substrates and the need for new types of products, it may be interesting to look to less domesticated strains and towards more non-conventional hosts in the development of new bioprocesses. This approach demands thorough physiological characterization as well as establishment of tools for genetic engineering if new cell factories are to be exploited through application of systems biology tools. Here two potential cell factories for the conversion of glycerol are described: Pachysolen tannophilus and Yarrowia lipolytica. These organisms exhibit considerable potential; producing ethanol and 1,3-butanediol (P. tannophilus) and organic acids, lipids and polyols (Y. lipolytica). In addition to their product range the strains are also capable of converting carbon sources found in a range of sustainable feedstocks.
AB - The demands of modern society are increasing pressure on natural resources while creating the need for a wider range of products. There is an interest in developing bioprocesses to meet these demands, with conversion of a variety of waste materials providing the basis for a sustainable society. The application of biological catalysts which can convert a variety of substrates to an array of<br/>desirable products has been demonstrated in both ancient bioprocesses and modern industrial biotechnology. In recent times, focus has been on a limited number of “model” organisms which have been extensively exploited and developed. Systems biology approaches can be applied with these well studied strains, where considerable physiological data has been obtained, genome sequences are known and genetic tools have been developed. With the necessity of considering a wider array of substrates and the need for new types of products, it may be interesting to look to less domesticated strains and towards more non-conventional hosts in the development of new bioprocesses. This approach demands thorough physiological characterization as well as establishment of tools for genetic engineering if new cell factories are to be exploited through application of systems biology tools. Here two potential cell factories for the conversion of glycerol are described: Pachysolen tannophilus and Yarrowia lipolytica. These organisms exhibit considerable potential; producing ethanol and 1,3-butanediol (P. tannophilus) and organic acids, lipids and polyols (Y. lipolytica). In addition to their product range the strains are also capable of converting carbon sources found in a range of sustainable feedstocks.
U2 - 10.1016/j.nbt.2012.08.211
DO - 10.1016/j.nbt.2012.08.211
JO - New Biotechnology
JF - New Biotechnology
SN - 1871-6784
VL - 29S
SP - S75
ER -