Structural, Physiological and Regulatory Analysis of Maltose Transporter Genes in Saccharomyces eubayanus CBS 12357 T

lager brewing yeasts are domesticated hybrids of and cold-tolerant . To understand the contribution of both parental genomes to maltose metabolism in brewing wort, this study focuses on maltose transport in the type strain CBS 12357 /FM1318. To obtain complete sequences of the loci of this strain, a...

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Veröffentlicht in:Frontiers in microbiology 2018, Vol.9, p.1786
Hauptverfasser: Brickwedde, Anja, Brouwers, Nick, van den Broek, Marcel, Gallego Murillo, Joan S, Fraiture, Julie L, Pronk, Jack T, Daran, Jean-Marc G
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container_title Frontiers in microbiology
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Brouwers, Nick
van den Broek, Marcel
Gallego Murillo, Joan S
Fraiture, Julie L
Pronk, Jack T
Daran, Jean-Marc G
description lager brewing yeasts are domesticated hybrids of and cold-tolerant . To understand the contribution of both parental genomes to maltose metabolism in brewing wort, this study focuses on maltose transport in the type strain CBS 12357 /FM1318. To obtain complete sequences of the loci of this strain, a near-complete genome assembly was generated using the Oxford Nanopore Technology MinION sequencing platform. Except for CHRXII, all sixteen chromosomes were assembled as single contigs. Four loci harboring putative maltose transporter genes ( ), located in subtelomeric regions of CHRII, CHRV, CHRXIII, and CHRXVI, were completely resolved. The near-identical loci on CHRV and CHRXVI strongly resembled canonical loci, while those on CHRII and CHRXIII showed different structures suggestive of gene loss. Overexpression of in a maltose-transport-deficient strain restored growth on maltose, but not on maltotriose, indicating maltose-specific transport functionality of all four transporters. Simultaneous CRISPR-Cas9-assisted deletion of only and , which shared 99.7% sequence identity, eliminated growth of CBS 12357 on maltose. Transcriptome analysis of CBS 12357 established that and , are poorly expressed in maltose-grown cultures, while and were expressed at much higher levels than and , indicating that only are responsible for maltose consumption in CBS 12357 . These results represent a first genomic and physiological characterization of maltose transport in CBS 12357 and provides a valuable resource for further industrial exploitation of this yeast.
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To understand the contribution of both parental genomes to maltose metabolism in brewing wort, this study focuses on maltose transport in the type strain CBS 12357 /FM1318. To obtain complete sequences of the loci of this strain, a near-complete genome assembly was generated using the Oxford Nanopore Technology MinION sequencing platform. Except for CHRXII, all sixteen chromosomes were assembled as single contigs. Four loci harboring putative maltose transporter genes ( ), located in subtelomeric regions of CHRII, CHRV, CHRXIII, and CHRXVI, were completely resolved. The near-identical loci on CHRV and CHRXVI strongly resembled canonical loci, while those on CHRII and CHRXIII showed different structures suggestive of gene loss. Overexpression of in a maltose-transport-deficient strain restored growth on maltose, but not on maltotriose, indicating maltose-specific transport functionality of all four transporters. Simultaneous CRISPR-Cas9-assisted deletion of only and , which shared 99.7% sequence identity, eliminated growth of CBS 12357 on maltose. Transcriptome analysis of CBS 12357 established that and , are poorly expressed in maltose-grown cultures, while and were expressed at much higher levels than and , indicating that only are responsible for maltose consumption in CBS 12357 . 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Simultaneous CRISPR-Cas9-assisted deletion of only and , which shared 99.7% sequence identity, eliminated growth of CBS 12357 on maltose. Transcriptome analysis of CBS 12357 established that and , are poorly expressed in maltose-grown cultures, while and were expressed at much higher levels than and , indicating that only are responsible for maltose consumption in CBS 12357 . 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title Structural, Physiological and Regulatory Analysis of Maltose Transporter Genes in Saccharomyces eubayanus CBS 12357 T
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