REBASE — Restriction Enzymes and Methylases
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Molecular Cloning of DNA Fragments Produced by Restriction
Proc. Natl. Acad. Sci. USA Vol. 73, No. 5, pp. 1537-1541, May 1976 Biochemistry Molecular cloning of DNA fragments produced by restriction endonucleases SailI and BamI (DNA joining/plasmid/insertional inactivation of genes/Drosophila melanogaster) DEAN H. HAMER AND CHARLES A. THOMAS, JR. Department of Biological Chemistry, Harvard Medical School, Boston, Massachusetts 02115 Communicated by Bernard D. Dats, February 25,1976 ABSTRACT The highly specific restriction endonucleases cleaves various DNAs about once every 8 kb (kilobases), as SalI and BamI produce DNA fragments with complementary, compared to about once every 4 kb for EcoRI (16, 18). The cohesive termini that can be covalently joined by DNA ligase. resulting fragments have cohesive termini, and can be joined The Escherichia coli kanamycin resistance factor pML21 has to one another in head-to-tail, head-to-head, and one Sall site, at which DNA can be inserted without interfering probably with the expression of drug resistance or replication of the tail-to-tail orientation. Another highly specific restriction en- plasmid. A more convenient cloning vehicle can be made with donuclease that produces cohesive termini is BamI, from Ba- the tetracycline resistance factor pSC101, since insertion of cillus amyloliqefaciens H (G. Wilson and F. Young, personal DNA either at its single site for Sall or at that for BamI inacti- communication). We have shown that it cleaves D. melano- vates plasmid-specified drug resistance but not replication. To gaster DNA about once every 6 kb. This report describes the take advantage of this insertional inactivation, pSC101 was construction and verification of plasmid vehicles that allow one joined to a ColEl-ampicillin resistance plasmid having no Sall site, and to a ColEl-kanamycin resistance plasmid having no to clone and amplify potentially any DNA fragment produced BamI site. -
Restriction Endonucleases
Molecular Biology Problem Solver: A Laboratory Guide. Edited by Alan S. Gerstein Copyright © 2001 by Wiley-Liss, Inc. ISBNs: 0-471-37972-7 (Paper); 0-471-22390-5 (Electronic) 9 Restriction Endonucleases Derek Robinson, Paul R. Walsh, and Joseph A. Bonventre Background Information . 226 Which Restriction Enzymes Are Commercially Available? . 226 Why Are Some Enzymes More Expensive Than Others? . 227 What Can You Do to Reduce the Cost of Working with Restriction Enzymes? . 228 If You Could Select among Several Restriction Enzymes for Your Application, What Criteria Should You Consider to Make the Most Appropriate Choice? . 229 What Are the General Properties of Restriction Endonucleases? . 232 What Insight Is Provided by a Restriction Enzyme’s Quality Control Data? . 233 How Stable Are Restriction Enzymes? . 236 How Stable Are Diluted Restriction Enzymes? . 236 Simple Digests . 236 How Should You Set up a Simple Restriction Digest? . 236 Is It Wise to Modify the Suggested Reaction Conditions? . 237 Complex Restriction Digestions . 239 How Can a Substrate Affect the Restriction Digest? . 239 Should You Alter the Reaction Volume and DNA Concentration? . 241 Double Digests: Simultaneous or Sequential? . 242 225 Genomic Digests . 244 When Preparing Genomic DNA for Southern Blotting, How Can You Determine If Complete Digestion Has Been Obtained? . 244 What Are Your Options If You Must Create Additional Rare or Unique Restriction Sites? . 247 Troubleshooting . 255 What Can Cause a Simple Restriction Digest to Fail? . 255 The Volume of Enzyme in the Vial Appears Very Low. Did Leakage Occur during Shipment? . 259 The Enzyme Shipment Sat on the Shipping Dock for Two Days. -
How to Clone Ref V1-2
A primer on cloning in E. coli Michael Nonet Department of Neuroscience Washington University Medical School St Louis, MO 63110 Draft 1.2.1 Nov. 10, 2019 Things to add: gel electrophoresis methods basic bacteriology methods Index Overview E. coli vectors! 6 Types of E. coli vectors! 6 Components of typical plasmid vectors! 6 Origin of replication! 6 Antibiotic resistance genes! 7 Master Cloning Sites! 7 LacZ"! 7 ccdB ! 8 Design of DNA constructs! 9 Choice of vector! 9 Source of insert! 9 Plasmids! 9 Genomic or cDNA! 9 Synthetic DNA! 10 Overview of different approaches to creating clones! 10 Restriction enzyme based cloning! 10 Single vs. double cut method! 11 Blunt vs “sticky” restriction sites! 11 Typical methodology for restriction enzyme cloning! 11 Golden Gate style cloning! 12 Typical methodology for Golden Gate cloning! 12 Gateway cloning! 13 Typical methodology for Gateway cloning! 14 Gibson assembly cloning! 15 Typical procedure for Gibson assembly! 15 Site directed mutagenesis! 16 PCR overlap approach! 16 DpnI mediated site directed mutagenesis! 16 Typical procedure for site directed mutagenesis! 17 Detailed methodology for all five methods Restriction enzyme cloning! 18 Designing the cloning strategy ! 18 Determining which vector to use! 18 Designing the insert fragment! 19 Designing primers! 19 Vector preparation! 19 Insert preparation! 19 Detailed protocol! 20 Step 1: Design oligonucleotides to amplify the product of interest! 20 Step 2: PCR amplification of insert DNA! 20 Step 3: Clean-up purification of PCR product! 21 Step 4: Digestion of products! 21 Step 5: Gel purification of products! 22 Step 6: Ligation! 22 Step 7: Transformation of E. -
The Cloning Guide the First Step Towards a Succesful Igem Project Igem Bonn NRP-UEA Igem
The Cloning Guide The first step towards a succesful iGEM Project iGEM Bonn NRP-UEA iGEM iGEM Manchester-Graz iGEM Evry iGEM Vanderbilt iGEM Minnesota Carnegie Mellon iGEM iGEM Sydney UIUC iGEM iGEM York iGEM Toulouse iGEM Pasteur UCLA iGEM iGEM Stockholm Preface The cloning guide which is lying before you or on your desktop is a document brought to you by iGEM TU Eindhoven in collaboration with numerous iGEM (International Genetically Engi- neered Machine) teams during iGEM 2015. An important part in the iGEM competition is the collabration of your own team with other teams. These collaborations are fully in line with the dedications of the iGEM Foundation on education and competition, the advancement of syn- thetic biology, and the development of an open community and collaboration. Collaborations between groups of (undergrad and overgrad) students can lead to nice products, as we have tried to provide one for you in 2015. In order to compile a cloning guide, several iGEM teams from all over the world have been con- tacted to cooperate on this. Finally fifiteen teams contributed in a fantastic way and a cloning guide consisting of the basics about nine different cloning methods and experiences of teams working with them has been realized. Without the help of all collaborating teams this guide could never have been realized, so we will thank all teams in advance. This guide may be of great help when new iGEM teams (edition 2016 and later) are at the point of designing their project. How to assemble the construct for you project, is an important choice which is possibly somewhat easier to make after reading this guide. -
1. Restriction Endonucleases (® Fermentas 2006)
We guarantee that these products are Introduction ..........................................................................................................2 free of contaminating activities. Restriction Endonucleases Guide Our stringent quality control with the most FastDigest™ Restriction Endonucleases .........................................................2 Fermentas Restriction Endonucleases............................................................3 advanced tests guarantees you pure 1 Alphabetic List of Commercially Available Restriction Endonucleases.........6 products for your experiments. ISO9001 Recognition Specifi cities...............................................................................16 and ISO14001 is your assurance of con- Commercial Restriction Enzymes Sorted by the Type of DNA Ends Generated sistency and lot-to-lot reproducibility. Enzymes Generating 5’-protruding Ends.......................................................18 Enzymes Generating 3’-protruding Ends.......................................................18 ™ PureExtreme Quality will provide the Enzymes Generating Blunt Ends...................................................................19 performance you need for your most Enzymes Cleaving DNA on the Both Sides of Their Recognition Sequences.....19 demanding experiments. PureExtreme™ Quality PureExtreme™ Quality Guarantee..................................................................20 Activity Assay.................................................................................................20 -
Restriction Endonucleases
Restriction Endonucleases TECHNICAL GUIDE UPDATE 2017/18 be INSPIRED drive DISCOVERY stay GENUINE RESTRICTION ENZYMES FROM NEB Cut Smarter with Restriction Enzymes from NEB® Looking to bring CONVENIENCE to your workflow? Simplify Reaction Setup and Double Activity of DNA Modifying Enzymes in CutSmart Buffer: Digestion with CutSmart® Buffer Clone Smarter! Activity Enzyme Required Supplements Over 210 restriction enzymes are 100% active in a single buffer, in CutSmart Phosphatases: CutSmart Buffer, making it significantly easier to set up your Alkaline Phosphatase (CIP) + + + double digest reactions. Since CutSmart Buffer includes BSA, there Antarctic Phosphatase + + + Requires Zn2+ Quick CIP + + + are fewer tubes and pipetting steps to worry about. Additionally, Shrimp Alkaline Phosphatase (rSAP) + + + many DNA modifying enzymes are 100% active in CutSmart Ligases: T4 DNA Ligase + + + Requires ATP Buffer, eliminating the need for subsequent purification. E. coli DNA Ligase + + + Requires NAD T3 DNA Ligase + + + Requires ATP + PEG For more information, visit www.NEBCutSmart.com T7 DNA Ligase + + + Requires ATP + PEG Polymerases: T4 DNA Polymerase + + + DNA Polymerase I, Large (Klenow) Frag. + + + DNA Polymerase I + + + DNA Polymerase Klenow Exo– + + + Bst DNA Polymerase + + + ™ phi29 DNA Polymerase + + + Speed up Digestions with Time-Saver T7 DNA Polymerase (unmodified) + + + Qualified Restriction Enzymes Transferases/Kinases: T4 Polynucleotide Kinase + + + Requires ATP + DTT T4 PNK (3´ phosphatase minus) + + + Requires ATP + DTT > 190 of our restriction enzymes are able to digest DNA in CpG Methyltransferase (M. SssI) + + + 5–15 minutes, and can safely be used overnight with no loss of GpC Methyltransferase (M. CviPI) + Requires DTT T4 Phage β-glucosyltransferase + + + sample. For added convenience and flexibility, most of these are Nucleases, other: supplied with CutSmart Buffer. -
A Short History of the Restriction Enzymes Wil A
Published online 18 October 2013 Nucleic Acids Research, 2014, Vol. 42, No. 1 3–19 doi:10.1093/nar/gkt990 NAR Breakthrough Article SURVEY AND SUMMARY Highlights of the DNA cutters: a short history of the restriction enzymes Wil A. M. Loenen1,*, David T. F. Dryden2,*, Elisabeth A. Raleigh3,*, Geoffrey G. Wilson3,* and Noreen E. Murrayy 1Leiden University Medical Center, Leiden, the Netherlands, 2EaStChemSchool of Chemistry, University of Edinburgh, West Mains Road, Edinburgh EH9 3JJ, Scotland, UK and 3New England Biolabs, Inc., 240 County Road, Ipswich, MA 01938, USA Received August 14, 2013; Revised September 24, 2013; Accepted October 2, 2013 ABSTRACT Type II REases represent the largest group of characterized enzymes owing to their usefulness as tools for recombinant In the early 1950’s, ‘host-controlled variation in DNA technology, and they have been studied extensively. bacterial viruses’ was reported as a non-hereditary Over 300 Type II REases, with >200 different sequence- phenomenon: one cycle of viral growth on certain specificities, are commercially available. Far fewer Type I, bacterial hosts affected the ability of progeny virus III and IV enzymes have been characterized, but putative to grow on other hosts by either restricting or examples are being identified daily through bioinformatic enlarging their host range. Unlike mutation, this analysis of sequenced genomes (Table 1). change was reversible, and one cycle of growth in Here we present a non-specialists perspective on import- the previous host returned the virus to its original ant events in the discovery and understanding of REases. form. These simple observations heralded the dis- Studies of these enzymes have generated a wealth of covery of the endonuclease and methyltransferase information regarding DNA–protein interactions and catalysis, protein family relationships, control of restric- activities of what are now termed Type I, II, III and tion activity and plasticity of protein domains, as well IV DNA restriction-modification systems. -
Promiscuous Restriction Is a Cellular Defense Strategy That Confers Fitness
Promiscuous restriction is a cellular defense strategy PNAS PLUS that confers fitness advantage to bacteria Kommireddy Vasua, Easa Nagamalleswaria, and Valakunja Nagarajaa,b,1 aDepartment of Microbiology and Cell Biology, Indian Institute of Science, Bangalore 560012, India; and bJawaharlal Nehru Centre for Advanced Scientific Research, Bangalore 560064, India Edited by Werner Arber, der Universitat Basel, Basel, Switzerland, and approved March 20, 2012 (received for review November 22, 2011) Most bacterial genomes harbor restriction–modification systems, ognition and cofactor utilization, whereas the cognate MTase is encoding a REase and its cognate MTase. On attack by a foreign very site-specific (14). In addition to its recognition sequence, DNA, the REase recognizes it as nonself and subjects it to restric- GGTACC, the enzyme binds and cleaves a number of noncanoni- tion. Should REases be highly specific for targeting the invading cal sequences (i.e., TGTACC, GTTACC, GATACC, GGAACC, foreign DNA? It is often considered to be the case. However, when GGTCCC, GGTATC, GGTACG, GGTACT), with the binding bacteria harboring a promiscuous or high-fidelity variant of the affinity ranging from 8 to 35 nM (14, 15). Accordingly, many of fi REase were challenged with bacteriophages, tness was maximal these sites are cleaved efficiently with kcat values varying from 0.06 − − under conditions of catalytic promiscuity. We also delineate pos- to 0.15 min 1 vs. 4.3 min 1 for canonical sites (15). The promis- sible mechanisms by which the REase recognizes the chromosome cuous activity of the enzyme is directed by a number of cofactors. as self at the noncanonical sites, thereby preventing lethal dsDNA In the presence of the physiological levels of Mg2+, the most breaks. -
Biology of DNA Restriction THOMAS A
MICROBIOLOGICAL REVIEWS, June 1993, p. 434-450 Vol. 57, No. 2 0146-0749/93/020434-17$02.00/0 Copyright © 1993, American Society for Microbiology Biology of DNA Restriction THOMAS A. BICKLE'* AND DETLEV H. KRUGER2 Department ofMicrobiology, Biozentrum, Basel University, Klingelbergstrasse 70, CH-4056 Basel, Switzerland, 1 and Institute of Virology, Charite School ofMedicine, Humboldt University, D-0-1040 Berlin, Gernany2 INTRODUCTION ........................................................................ 434 TYPE I R-M SYSTEMS ........................................................................ 434 Type I Systems Form Families of Related Enzymes ...................................................................435 Structure of hsd Genes ........................................................................ 435 Evolution of DNA Sequence Recognition by Recombination between hsdS Genes .........................***436 Mutations Affecting Modification Activity........................................................................ 437 TYPE II R-M SYSTEMS........................................................................ 437 Evolutionary Aspects ........................................................................ 437 Control of Expression of Type II RM Genes .....................................................438 Cytosine Can Be Methylated on Either C-5 Or NA: Consequences for Mutagenesis...............438 Type II Restriction Endonucleases That Require Two Recognition Sites for Cleavage.439 What Is the Function of Type IIS Enzymes.440 -
NEB Golden Gate Assembly Kit (Bsai-Hfv2) E1601 Manual
INSTRUCTION MANUAL NEB® Golden Gate Assembly Kit (BsaI-HF®v2) NEB #E1601S/L 20/100 reactions Version 2.0_2/20 Table of Contents Golden Gate Assembly Overview ............................................................................................................................................................... 2 pGGAselect Destination Plasmid Description ............................................................................................................................................ 3 Insert Considerations ................................................................................................................................................................................... 4 Golden Gate Assembly Transformation and Plating Protocols ................................................................................................................... 5 Screening Protocols ..................................................................................................................................................................................... 6 Frequently Asked Questions (FAQs) .......................................................................................................................................................... 6 Golden Gate Assembly Tips ........................................................................................................................................................................ 8 Specifications .............................................................................................................................................................................................. -
Anza Restriction Enzyme Cloning System Complete, One-Buffer System— for Beautifully Simple Cloning Cloning Has Never Been Simpler
Anza Restriction Enzyme Cloning System Complete, one-buffer system— for beautifully simple cloning Cloning has never been simpler Finally, forget the frustrations of finding compatible buffers and sorting through protocols for your restriction enzyme digests—start getting reliable results for your downstream experiments. The Invitrogen™ Anza™ Restriction Enzyme Cloning System is a complete system, comprised of: DNA modifying enzymes 128 restriction enzymes + 5 DNA modifying enzymes Anza T4 DNA Ligase Master Mix Anza Thermosensitive All Anza™ restriction enzymes work together cohesively and are fully functional Alkaline Phosphatase with the single Anza™ buffer. Anza T4 Polynucleotide Kinase The system offers: Anza DNA Blunt End Kit • One buffer for all restriction enzymes Anza DNA End Repair Kit • One digestion protocol for all DNA types • Complete digestion in 15 minutes • Overnight digestion without star activity Convenient buffer formats All Anza restriction enzymes come with an Anza 10X Buffer and an Anza 10X Red Buffer to give you the flexibility you require. The red buffer includes a density reagent containing red and yellow tracking dyes that migrate with 800 bp DNA fragments and faster than the 10 bp DNA fragments, respectively, in a 1% agarose gel. This eliminates tedious dye addition steps prior to gel loading and is compatible with downstream applications.* * For applications that require analysis by fluorescence excitation, Anza 10X Buffer is recommended, as the Anza 10X Red Buffer may interfere with some fluorescence measurements. 2 A one-buffer system Eliminate the frustration of trying to find compatible buffers for all your enzymes. All Anza restriction enzymes allow for complete digestion using a single Anza buffer. -
The Ecori Endonuclease (Temperature-Sensitive Ecori Mutants/DNA Ligase/SOS Response/DNA Repair) JOSEPH HEITMAN, NORTON D
Proc. Nati. Acad. Sci. USA Vol. 86, pp. 2281-2285, April 1989 Genetics Repair of the Escherichia coli chromosome after in vivo scission by the EcoRI endonuclease (temperature-sensitive EcoRI mutants/DNA ligase/SOS response/DNA repair) JOSEPH HEITMAN, NORTON D. ZINDER, AND PETER MODEL The Rockefeller University, New York, N.Y. 10021 Contributed by Norton D. Zinder, November 22, 1988 ABSTRACT We prepared a set of temperature-sensitive Table 1. E. coli strains mutants of the EcoRI endonuclease. Under semipermissive Strain Relevant genotype Source conditions, Escherichia coli strains bearing these alleles form poorly growing colonies in which intracellular substrates are HB101 recAJ3 Ref. 16 cleaved at EcoRI sites and the SOS DNA repair response is JH11 HB101 recAp This study induced. Strains defective in SOS induction (lexA3 mutant) or JH20 K91 IexA3 Ref. 15 SOS induction and recombination (recA56 and recB21 mu- JH27 K91 recA56 This study tants) are not more sensitive to this in vivo DNA scission, JH39 dinDl::Mu dI(Apr lac) Ref. 15 whereas strains deficient in DNA ligase (lig4 and Ug ts7mutants) JH59 JH39 recA56 Ref. 15 are extremely sensitive. We conclude that although DNA JH117 JH39 recB21 thyA::TnJO This study scission induces the SOS response, neither this induction nor JH137 K91 dinDl::Mu dI(Apr lac) This study JH144 K91 recN262 tyrAl6::TnlO This study recombination are required for repair. DNA ligase is necessary JH145 K91 recB2l thyA::TnJO This study and may be sufficient to repair EcoRI-mediated DNA breaks in JH154 JH39 lexA3 maIE::TnJO This study the E. coli chromosome.