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Gibson Assembly Cloning Guide, second edition

Cloning GUIDE2ND EDITIONRESTRICTION DIGEST FREE, SEAMLESS CLONINGG ibson Assembly Applications, tools, and protocols for the Gibson Assembly method: Single Insert Multiple Inserts Site-Directed Mutagenesis#DNAMY | (North America) or 1-858-228-4115 (outside North America) 2 Contents Foreword Foreword The Gibson Assembly method has been an integral part of our work at Synthetic Genomics, Inc. and the J. Craig Venter Institute (JCVI) for nearly a decade, enabling us to synthesize a complete bacterial genome in 2008, create the first synthetic cell in 2010, and generate a minimal bacterial genome in 2016. These studies form the framework for basic research in understanding the fundamental principles of cellular function and the precise function of essential genes.

design and maximize opportunities for success. A section of this guide walks users through SGI-DNA’s free primer design tool to ensure simple and optimal primer design. Additionally, a recently developed variation presented in this guide, Gibson Assembly Primer-Bridge End (PBnJ) Cloning, enables users to assemble fragments without

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Transcription of Gibson Assembly Cloning Guide, second edition

1 Cloning GUIDE2ND EDITIONRESTRICTION DIGEST FREE, SEAMLESS CLONINGG ibson Assembly Applications, tools, and protocols for the Gibson Assembly method: Single Insert Multiple Inserts Site-Directed Mutagenesis#DNAMY | (North America) or 1-858-228-4115 (outside North America) 2 Contents Foreword Foreword The Gibson Assembly method has been an integral part of our work at Synthetic Genomics, Inc. and the J. Craig Venter Institute (JCVI) for nearly a decade, enabling us to synthesize a complete bacterial genome in 2008, create the first synthetic cell in 2010, and generate a minimal bacterial genome in 2016. These studies form the framework for basic research in understanding the fundamental principles of cellular function and the precise function of essential genes.

2 Additionally, synthetic cells can potentially be harnessed for commercial applications which could offer great benefits to society through the renewable and sustainable production of therapeutics, biofuels, and biobased 2004, JCVI had embarked on a quest to synthesize genome-sized DNA and needed to develop the tools to make this possible. When I first learned that JCVI was attempting to create a synthetic cell, I truly understood the significance and reached out to Hamilton (Ham) Smith, who leads the Synthetic Biology Group at JCVI. I joined Ham s team as a postdoctoral fellow and the development of Gibson Assembly began as I started investigating methods that would allow overlapping DNA fragments to be assembled toward the goal of generating genome-sized DNA. Over time, we had multiple methods in place for assembling DNA molecules by in vitro recombination, including the method that would later come to be known as Gibson we were attempting was simply not possible with restriction enzyme / ligation-based Cloning and other technologies.

3 Since the development and implementation of the Gibson Assembly method, I no longer use traditional restriction enzyme-based Cloning . There simply are no benefits to using restriction methods for gene Assembly . Gibson Assembly is faster and more robust. With the commercialization of Gibson Assembly by SGI-DNA, this technology is readily available to all research labs. Previously, a major technical bottleneck was in obtaining a large construct. Now, anyone has the ability to build large DNA constructs. If you can easily build constructs 100 kb in size that can constitute entire biological pathways or even an entire bacterial genome, it changes your approach. The question is no longer how, but what, to guide contains useful information for new and experienced Gibson Assembly users alike, compiling some of the uses and downstream applications of the Gibson Assembly method and providing an overview and technical resource for the field of synthetic biology.

4 Included are historical perspectives and overviews of some recent uses of Gibson Assembly Cloning in the literature. Protocols, tips, and FAQs in this guide will assist users in experimental design and maximize opportunities for success. A section of this guide walks users through SGI-DNA s free primer design tool to ensure simple and optimal primer design. Additionally, a recently developed variation presented in this guide , Gibson Assembly Primer-Bridge End (PBnJ) Cloning , enables users to assemble fragments without homologous overlaps, adding to the flexibility of the method. Ultimately, Gibson Assembly is a tool. It is the implementation of that tool that opens the door of innumerable possibilities. Daniel G. Gibson , President, Synthetic Genomics, Professor, J.

5 Craig Venter Institute Inventor of Gibson AssemblyLa Jolla, | 1-855-474-4362 (North America) or 1-858-228-4115 (outside North America) 3 Contents ContentsForeword 2 Historical Perspective 4 Key Discoveries Enabling Molecular Cloning 4 Key Discoveries Enabling Synthetic Biology 5 Gibson Assembly Cloning 6 Overview 6 Types of Gibson Assembly Kits 6 Applications 10 Simple Cloning : One insert with one vector 10 Assembly of Multiple Fragments 11 Site-Directed Mutagenesis 12 Using the Gibson Assembly Method for Library Construction 14 Using the Gibson Assembly Method for Shotgun Cloning 15 Advantages of Gibson Assembly Cloning 16 Gibson Assembly Method Advantages 16 Gibson Assembly Method and Other Cloning Approaches 17 Designing Homologous Overlaps 18 Primer Design 18 Online Tool for Designing Gibson Assembly Primers 20 Variations of Gibson Assembly Cloning 25 Gibson Assembly PBnJ Cloning 25 Gibson Assembly PBnJ Seamless Joining

6 26 Gibson Assembly PBnJ 3 Overhang Extension 27 Gibson Assembly PBnJ Sequence Insertion Cloning 28 Appendix A: Protocols 29 PCR Amplification of DNA Fragments Before Starting the Gibson Assembly Reaction 29 Calculating the amount of DNA to use in a Gibson Assembly reaction 30 Gibson Assembly HiFi 1-Step Kit 31 Gibson Assembly Ultra Kit 32 Gibson Assembly Site-Directed Mutagenesis Kit 33 Appendix B: Transformation 35 Transformation Guidelines 35 Plating Guidelines 35 Calculating Cloning Efficiency 35 Appendix C: Expected Results 36 Gel Electrophoresis Following an Assembly Reaction 36 Appendix D: FAQs 37 General Gibson Assembly Cloning Questions 37 Questions about Primers 37 Questions about Inserts 38 Questions about Vectors 38 Homologous Overlap Region Questions 38 Procedural Questions 39 Troubleshooting and Optimization 40 Appendix E: Selected Citations 41 Appendix F.

7 References 42 Ordering Information | (North America) or 1-858-228-4115 (outside North America) 4 Historical Perspective Historical PerspectiveKey Discoveries Enabling Molecular Cloning 1949 1977 Bacterial host Restriction described1949 Nobel Laureates: Salvador Edward Luria and Renato DulbeccoSalvador Edward Luria andRenato Dulbecco 1 Demonstration of joiningDNA by cohesive sites1963 Allan Campbell 2 Generation of recombinant DNA1972 Nobel Laureate: Paul BergDavid Jackson, Robert Symons,and Paul Berg 3 First synthesis of acomplete gene1972 Nobel Laureate: Har G. KhoranaHar G. Khorana et al 4 Eukaryotic genescloned into bacteria1974Co-founder of Genentech: Herbert BoyerJohn F. Morrow,..Herbert Boyer et al 5 Isolation ofrestriction enzymes1975 Nobel Laureates: Daniel Nathans and Hamilton O.

8 SmithDaniel Nathans andHamilton O. Smith 6 Improved DNAsequencing techniques1977 Nobel Laureates: Walter Gilbert and Frederick SangerAllan M. Maxam and Walter Gilbert 7; Frederick Sanger et al 8 Discovery of RNA splicing1977 Nobel Laureates: Richard J. Roberts and Phillip A. SharpSusan M. Berget, Claire Moore, & Phillip A. Sharp 9; Louise T. Chow et Richard J. Roberts 10 Key Discoveries & BreakthroughsNotable Awards & Commercial VenturesKey AuthorsFigure 1. (A) Key Discoveries Enabling Molecular Cloning , 1949 1977. | 1-855-474-4362 (North America) or 1-858-228-4115 (outside North America) 5 Historical Perspective Historical PerspectiveKey Discoveries Enabling Synthetic Biology 1987 2016 PCR described1987 Nobel Laureate: Kary B. MullisKary B.

9 Mullis & Fred A. Faloona 11 Co-founders of Synthetic Genomics, Inc.: J. Craig Venter and Hamilton O. SmithFirst complete sequenceof a free-living organism1995 Robert D. Fleischmann et O. Smith, J. Craig Venter 12 First draft of humangenome sequence2001 John D. McPherson, et al. 13 Eric S. Lander, et al. 14 J. Craig Venter, et al. 15 First NGS-sequencedhuman genome2008 Founder of 454 Life Sciences Corporation: Jonathan M. RothbergDavid A. Wheeler et M. Rothberg 16 DNA Synthesis of completebacterial genome2008 Daniel G. Gibson et al. 17 Gibson Assembly Cloning developed2009 Head of DNA Technology, Synthetic Genomics, Inc.: Daniel G. GibsonDaniel G. Gibson et al. 18 Creation of rstsynthetic bacterial cell2010 The J. Craig Venter Institute, at the forefront of Genomics DiscoveryDaniel G.

10 Gibson et al. 19 Minimal genomedesign and synthesis2016 Clyde A. Hutchison III et G. Gibson , J. Craig Venter 20 Notable Awards & Commercial VenturesKey AuthorsKey Discoveries & BreakthroughsFigure 1. (B) Key Discoveries Enabling Synthetic Biology, 1987 2016. | (North America) or 1-858-228-4115 (outside North America) 6 Gibson Assembly Cloning Gibson Assembly CloningOverviewThe Gibson Assembly method is a Cloning procedure that allows the Cloning of two or more fragments without the need for restriction enzyme digestion or compatible restriction sites. Instead, user-defined overlapping ends are incorporated into the fragments to allow the seamless joining of adjacent fragments. This innovative approach to creating both simple and complex constructs was first published in 2008 by Daniel Gibson and colleagues17.


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