<scp>DNA</scp> Synthesis and Assembly Technologies: From Oligonucleotides to Complete Genomes

Comprehensive Summary DNA synthesis and assembly technology is the fundamental enabling technology of synthetic biology, providing methods for humans to understand and modify organisms. Oligonucleotide chains and long DNA fragments synthesized through DNA synthesis and assembly technology are becoming increasingly widely used in fields such as biomedicine, energy, new materials, and information storage, with strong application prospects. This review provides a comprehensive and systematic introduction and exposition of current DNA synthesis and assembly technologies, discussing current challenges and future research prospects. Key Scientists DNA synthesis and assembly technology is a cutting‐edge technology for human understanding and modification of living organisms, with wide applications in the fields of biomedicine, energy, new materials, and information storage. In 1962, the Bollum group first proposed that TDT enzyme could be used for the synthesis of DNA oligonucleotide chains. In 1987, the Carruthers group established column‐based oligo synthesis. In 1992, the Fodor group established microarray‐based oligo synthesis. In 1995, the Stemmer and Crameri groups established PCR based DNA assembly. In 2003, the Knight group proposed BioBricks TM . In 2007, the Elledge group was the first to report sequence and ligation‐independent cloning assembly. In 2008, three scientists Hamilton O. Smith, Clyde A. Hutchison III, and J Craig Venter co‐established transformation associated recombination technology. In the same year, the Marillonnet group established Gloden Gate technology. In 2009, the Gibson group established Gibson assembly technology. In 2012, the Zhang group established Red/Rec technology. In 2016, the Qin group established Cas9‐facilitated homologous recombination assembly. In the same year, the Dai group established Meiotic recombination‐mediated assembly. In 2017, the Bader group established switching auxotrophies progressively for integration. The Yuan group established yeast life cycle assembly in 2023 and established haploidization‐based DNA assembly and delivery in yeast in 2024. This review systematically introduces the latest research progress in DNA synthesis and assembly technology, providing a reference for subsequent research.

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Publication Details

Journal
Chinese Journal of Chemistry
Published
2025-05-20
DOI
https://doi.org/10.1002/cjoc.202401134
Citations
1
Primary Topic
CRISPR and Genetic Engineering
Type
article
Field-Weighted Citation Impact
0.81

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article

DNA Synthesis and Assembly Technologies: From Oligonucleotides to Complete Genomes

Xuemei Jia, Dayong Yang, Ying Liu, Chi Yao et al.
1 citations
Chinese Journal of Chemistry
CRISPR and Genetic Engineering
0.81
article

DNA Synthesis and Assembly Technologies: From Oligonucleotides to Complete Genomes

Xuemei Jia, Dayong Yang, Ying Liu, Chi Yao, Wei Tan
article en
1 citations

Abstract

Comprehensive Summary DNA synthesis and assembly technology is the fundamental enabling technology of synthetic biology, providing methods for humans to understand and modify organisms. Oligonucleotide chains and long DNA fragments synthesized through DNA synthesis and assembly technology are becoming increasingly widely used in fields such as biomedicine, energy, new materials, and information storage, with strong application prospects. This review provides a comprehensive and systematic introduction and exposition of current DNA synthesis and assembly technologies, discussing current challenges and future research prospects. Key Scientists DNA synthesis and assembly technology is a cutting‐edge technology for human understanding and modification of living organisms, with wide applications in the fields of biomedicine, energy, new materials, and information storage. In 1962, the Bollum group first proposed that TDT enzyme could be used for the synthesis of DNA oligonucleotide chains. In 1987, the Carruthers group established column‐based oligo synthesis. In 1992, the Fodor group established microarray‐based oligo synthesis. In 1995, the Stemmer and Crameri groups established PCR based DNA assembly. In 2003, the Knight group proposed BioBricks TM . In 2007, the Elledge group was the first to report sequence and ligation‐independent cloning assembly. In 2008, three scientists Hamilton O. Smith, Clyde A. Hutchison III, and J Craig Venter co‐established transformation associated recombination technology. In the same year, the Marillonnet group established Gloden Gate technology. In 2009, the Gibson group established Gibson assembly technology. In 2012, the Zhang group established Red/Rec technology. In 2016, the Qin group established Cas9‐facilitated homologous recombination assembly. In the same year, the Dai group established Meiotic recombination‐mediated assembly. In 2017, the Bader group established switching auxotrophies progressively for integration. The Yuan group established yeast life cycle assembly in 2023 and established haploidization‐based DNA assembly and delivery in yeast in 2024. This review systematically introduces the latest research progress in DNA synthesis and assembly technology, providing a reference for subsequent research.

Chinese Journal of ChemistryVol. 43(16)
Tianjin University (CN)
National Key Research and Development Program of China
Responsible consumption and production
Openalex Percentile: Top 28%
CRISPR and Genetic Engineering
0.81
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