PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA

We formulated a method to synthesize 1 kbp DNA fragments using ‘oligomer unidirectional joining method’ via asymmetric extension supported by a simulator for oligonucleotide extension (AESOE). In this study, trials were conducted on 41 sets of different genomic pieces of ten flaviviral genomes, and...

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Main Authors: Yasunori Nishida, Kotetsu Kayama, Taichi Endoh, Kiwamu Hanazono, Gerry Amor Camer, Daiji Endoh
Format: Article
Language:English
Published: Future Science Ltd 2023-06-01
Series:BioTechniques
Subjects:
Online Access:https://www.future-science.com/doi/10.2144/btn-2022-0127
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author Yasunori Nishida
Kotetsu Kayama
Taichi Endoh
Kiwamu Hanazono
Gerry Amor Camer
Daiji Endoh
author_facet Yasunori Nishida
Kotetsu Kayama
Taichi Endoh
Kiwamu Hanazono
Gerry Amor Camer
Daiji Endoh
author_sort Yasunori Nishida
collection DOAJ
description We formulated a method to synthesize 1 kbp DNA fragments using ‘oligomer unidirectional joining method’ via asymmetric extension supported by a simulator for oligonucleotide extension (AESOE). In this study, trials were conducted on 41 sets of different genomic pieces of ten flaviviral genomes, and 31 bacterial 16s rRNA fragments with sizes ranging from 500 bases to 1.0 kbp. Synthetic gene production was found to be successful in all those sets. The synthesis method has three steps: the first step is a seven-linked AESOE, the second step is the linking of the 400-base fragments from the first step, and the third step is the final amplification. Our present approach is highly reproducible and may no longer require optimization of oligomer design.
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spelling doaj.art-fbf481aee640489db6e1383d79b060a22023-07-25T10:35:25ZengFuture Science LtdBioTechniques0736-62051940-98182023-06-0174631733210.2144/btn-2022-0127PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNAYasunori Nishida0Kotetsu Kayama1Taichi Endoh2Kiwamu Hanazono3Gerry Amor Camer4Daiji Endoh51Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, Japan1Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, Japan1Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, Japan1Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, Japan1Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, Japan1Department of Radiation Biology, School of Veterinary Medicine, Rakuno Gakuen University, Ebetsu, 069-8501, JapanWe formulated a method to synthesize 1 kbp DNA fragments using ‘oligomer unidirectional joining method’ via asymmetric extension supported by a simulator for oligonucleotide extension (AESOE). In this study, trials were conducted on 41 sets of different genomic pieces of ten flaviviral genomes, and 31 bacterial 16s rRNA fragments with sizes ranging from 500 bases to 1.0 kbp. Synthetic gene production was found to be successful in all those sets. The synthesis method has three steps: the first step is a seven-linked AESOE, the second step is the linking of the 400-base fragments from the first step, and the third step is the final amplification. Our present approach is highly reproducible and may no longer require optimization of oligomer design.https://www.future-science.com/doi/10.2144/btn-2022-0127AESOEoptimization-free oligomer joiningsynthetic genesunisense joining oligomers
spellingShingle Yasunori Nishida
Kotetsu Kayama
Taichi Endoh
Kiwamu Hanazono
Gerry Amor Camer
Daiji Endoh
PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
BioTechniques
AESOE
optimization-free oligomer joining
synthetic genes
unisense joining oligomers
title PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
title_full PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
title_fullStr PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
title_full_unstemmed PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
title_short PCR-based gene synthesis with overlapping unisense-oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsDNA
title_sort pcr based gene synthesis with overlapping unisense oligomers asymmetric extension supported by a simulator for oligonucleotide extension achieved 1 kbp dsdna
topic AESOE
optimization-free oligomer joining
synthetic genes
unisense joining oligomers
url https://www.future-science.com/doi/10.2144/btn-2022-0127
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