Towards T7 RNA polymerase (T7RNAP)-based expression system in yeast: challenges and opportunities

ABSTRACTDuring the last decades, we have witnessed unprecedented advances in biological engineering and synthetic biology. These disciplines aim to take advantage of gene pathway regulation and gene expression in different organisms, to enable cells to perform desired functions. Yeast has been widel...

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Bibliographic Details
Main Authors: David Sáez Moreno, Udi Qimron, Joana Azeredo, Lucília Domingues
Format: Article
Language:English
Published: Taylor & Francis Group 2022-12-01
Series:Bioengineered
Subjects:
Online Access:https://www.tandfonline.com/doi/10.1080/21655979.2023.2180579
Description
Summary:ABSTRACTDuring the last decades, we have witnessed unprecedented advances in biological engineering and synthetic biology. These disciplines aim to take advantage of gene pathway regulation and gene expression in different organisms, to enable cells to perform desired functions. Yeast has been widely utilized as a model for the study of eukaryotic protein expression while bacteriophage T7RNAP and its promoter constitute the preferred system for prokaryotic protein expression (such as pET-based expression systems). The ability to integrate a T7RNAP-based expression system in yeast could allow for a better understanding of gene regulation in eukaryotic cells, and potentially increase the efficiency and processivity of yeast as an expression system. However, the attempts for the creation of such a system have been unsuccessful to date. This review aims to: (i) summarize the efforts that, for many years, have been devoted to the creation of a T7RNAP-based yeast expression system and ii) provide an overview of the latest advances in knowledge of eukaryotic transcription and translation that could lead to the construction of a successful T7RNAP expression system in yeast. The completion of this new expression system would allow to further expand the toolkit of yeast in synthetic biology and ultimately contribute to boost yeast usage as a key cell factory in sustainable biorefinery and circular economy.
ISSN:2165-5979
2165-5987