Manual: Pbluescript II Phagemid Vectors
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Cloning of Gene Coding Glyceraldehyde-3-Phosphate Dehydrogenase Using Puc18 Vector
Available online a t www.pelagiaresearchlibrary.com Pelagia Research Library European Journal of Experimental Biology, 2015, 5(3):52-57 ISSN: 2248 –9215 CODEN (USA): EJEBAU Cloning of gene coding glyceraldehyde-3-phosphate dehydrogenase using puc18 vector Manoj Kumar Dooda, Akhilesh Kushwaha *, Aquib Hasan and Manish Kushwaha Institute of Transgene Life Sciences, Lucknow (U.P), India _____________________________________________________________________________________________ ABSTRACT The term recombinant DNA technology, DNA cloning, molecular cloning, or gene cloning all refers to the same process. Gene cloning is a set of experimental methods in molecular biology and useful in many areas of research and for biomedical applications. It is the production of exact copies (clones) of a particular gene or DNA sequence using genetic engineering techniques. cDNA is synthesized by using template RNA isolated from blood sample (human). GAPDH (Glyceraldehyde 3-phosphate dehydrogenase) is one of the most commonly used housekeeping genes used in comparisons of gene expression data. Amplify the gene (GAPDH) using primer forward and reverse with the sequence of 5’-TGATGACATCAAGAAGGTGGTGAA-3’ and 5’-TCCTTGGAGGCCATGTGGGCCAT- 3’.pUC18 high copy cloning vector for replication in E. coli, suitable for “blue-white screening” technique and cleaved with the help of SmaI restriction enzyme. Modern cloning vectors include selectable markers (most frequently antibiotic resistant marker) that allow only cells in which the vector but necessarily the insert has been transfected to grow. Additionally the cloning vectors may contain color selection markers which provide blue/white screening (i.e. alpha complementation) on X- Gal and IPTG containing medium. Keywords: RNA isolation; TRIzol method; Gene cloning; Blue/white screening; Agarose gel electrophoresis. -
Phagemid-Based Method of Producing Filamentous Bacteriophage Particles Displaying Antibody Molecules and the Corresponding Bacteriophage Particles
Europäisches Patentamt *EP001433846A2* (19) European Patent Office Office européen des brevets (11) EP 1 433 846 A2 (12) EUROPEAN PATENT APPLICATION (43) Date of publication: (51) Int Cl.7: C12N 15/10, C07K 16/00, 30.06.2004 Bulletin 2004/27 C12N 15/62, C12N 7/00, C12N 15/73 (21) Application number: 04005419.9 (22) Date of filing: 10.07.1991 (84) Designated Contracting States: • Griffiths, Andrew David AT BE CH DE DK ES FR GB GR IT LI LU NL SE Cambridge CB1 4AY (GB) • Jackson, Ronald Henry (30) Priority: 10.07.1990 GB 9015198 Cambridge CB1 2NU (GB) 19.10.1990 GB 9022845 • Holliger, Kaspar Philipp 12.11.1990 GB 9024503 Cambridge CB1 4HT (GB) 06.03.1991 GB 9104744 • Marks, James David 15.05.1991 GB 9110549 Kensington, CA 94707-1310 (US) • Clackson, Timothy Piers (62) Document number(s) of the earlier application(s) in Somerville, MA 02143 (US) accordance with Art. 76 EPC: • Chiswell, David John 97120149.6 / 0 844 306 Buckingham MK18 2LD (GB) 96112510.1 / 0 774 511 • Winter, Gregory Paul Cambridge CB2 1TQ (GB) (71) Applicants: • Bonnert, Timothy Peter • Cambridge Antibody Technology LTD Seattle, WA 98102 (US) Cambridge CB1 6GH (GB) • Medical Research Council (74) Representative: Walton, Seán Malcolm et al London W1B 1AL (GB) Mewburn Ellis LLP York House, (72) Inventors: 23 Kingsway • McCafferty, John London WC2B 6HP (GB) Babraham CB2 4AP (GB) • Pope, Anthony Richard Remarks: Cambridge CB1 2LW (GB) This application was filed on 08 - 03 - 2004 as a • Johnson, Kevin Stuart divisional application to the application mentioned Highfields, Cambridge CB3 7NY (GB) under INID code 62. -
GFP Plasmid) 35X
Název: Biotechnology and Fluorescent protein Školitel: Ana Maria Jimenez Jimenez, Iva Blažková Datum: 19.7.2013 Reg.č.projektu: CZ.1.07/2.3.00/20.0148 Název projektu: Mezinárodní spolupráce v oblasti "in vivo" zobrazovacích technik INTRODUCTION GFP - Green fluorescent protein A protein composed of 238 amino acid residues (26.9 kDa) exhibits bright green fluorescence when exposed to light in the blue to ultraviolet range GFP was isolated from the jellyfish Aequorea victoria. In cell and molecular biology, the GFP gene is frequently used as a reporter of expression The GFP gene has been introduced and expressed in many bacteria, yeast and other fungi, fish, plant and mammalian cells. Green fluorescent protein (GFP) Nobel prize in Chemistry (2008): for the discovery and development of the green fluorescent protein, GFP Osamu Shimomura Martin Chalfie Roger Y. Tsien Now GFP is found in laboratories all over the world where it is used in every conceivable plant and animal GFP Types Fluorescent proteins enable the creation of highly specific biosensors to monitor a wide range of intracellular phenomena. Mutagenesis of A. victoria GFP has resulted in fluorescent proteins that range in color from blue to yellow Transluminator Fluoresence spectrophotometry Fluorescence In-vivo Xtreme Detection Fluorescence microscopy In-vivo Xtreme cm Polyacrylamide gel In-vivo Xtreme 1/16 1/8 1/4 1/2 1 10000 y = 9003x + 732,46 9000 R² = 0,9984 Max-Backgroumd 8000 7000 Rostoucí koncentrace Mean-Background 6000 5000 4000 3000 y = 5748,2x + 490,64 R² = 0,9995 2000 Fluorescence intensity [a.u.] 1000 0 0 0,2 0,4 0,6 0,8 1 1,2 concentration [µg/ml] In-vivo Xtreme GFP encapsulated GFP in liposome GFP water in liposome Max.int: 8800 a. -
Molecular Biology and Applied Genetics
MOLECULAR BIOLOGY AND APPLIED GENETICS FOR Medical Laboratory Technology Students Upgraded Lecture Note Series Mohammed Awole Adem Jimma University MOLECULAR BIOLOGY AND APPLIED GENETICS For Medical Laboratory Technician Students Lecture Note Series Mohammed Awole Adem Upgraded - 2006 In collaboration with The Carter Center (EPHTI) and The Federal Democratic Republic of Ethiopia Ministry of Education and Ministry of Health Jimma University PREFACE The problem faced today in the learning and teaching of Applied Genetics and Molecular Biology for laboratory technologists in universities, colleges andhealth institutions primarily from the unavailability of textbooks that focus on the needs of Ethiopian students. This lecture note has been prepared with the primary aim of alleviating the problems encountered in the teaching of Medical Applied Genetics and Molecular Biology course and in minimizing discrepancies prevailing among the different teaching and training health institutions. It can also be used in teaching any introductory course on medical Applied Genetics and Molecular Biology and as a reference material. This lecture note is specifically designed for medical laboratory technologists, and includes only those areas of molecular cell biology and Applied Genetics relevant to degree-level understanding of modern laboratory technology. Since genetics is prerequisite course to molecular biology, the lecture note starts with Genetics i followed by Molecular Biology. It provides students with molecular background to enable them to understand and critically analyze recent advances in laboratory sciences. Finally, it contains a glossary, which summarizes important terminologies used in the text. Each chapter begins by specific learning objectives and at the end of each chapter review questions are also included. -
Antibody Discovery for Development of a Serotyping Dengue Virus NS1 Capture Assay
Antibody Discovery for Development of a Serotyping Dengue Virus NS1 Capture Assay Kebaneilwe Lebani Master of Biotechnology (Advanced) A thesis submitted for the degree of Doctor of Philosophy at The University of Queensland in 2014 Australian Institute for Bioengineering and Nanotechnology ABSTRACT Dengue virus (DENV) infections are a significant public health burden in tropical and sub-tropical regions of the world. Infections are caused by four different but antigenically related viruses which result in four DENV serotypes. The multifaceted nature of DENV pathogenesis hinders the sensitivity of assays designed for the diagnosis of infection. Different markers can be optimally detected at different stages of infection. Of particular clinical importance is the identification of acute viremia during the febrile phase of infection which is pivotal for management of infection. Non-structural protein 1 (NS1) has been identified as a good early surrogate marker of infection with possible applications in epidemiological surveillance and the development of blood screening assays. This contribution is towards using serotype-specificity to achieve specific and more sensitive diagnostic detection of DENV NS1. The general aim of this work is to isolate immune-reagents that can be used to develop an assay with improved sensitivity of DENV NS1 detection in a diagnostic setting. In this work, we sought to isolate serotype-specific antibodies that discern discreet antigenic differences in NS1 from each DENV serotype. Additionally, we also sought to isolate a pairing antibody that recognises NS1 from all four DENV serotypes (pan-reactive) for tandem capture of the DENV NS1. To achieve this, three naive, immunoglobulin gene libraries (a VH domain, a scFv and a Fab library) were interrogated for binders to recombinant NS1 antigen from all four DENV serotypes using phage display technology and various biopanning approaches. -
Molecular Cloning and Functional Expression of Gibberellin 2- Oxidases, Multifunctional Enzymes Involved in Gibberellin Deactivation
Proc. Natl. Acad. Sci. USA Vol. 96, pp. 4698–4703, April 1999 Plant Biology Molecular cloning and functional expression of gibberellin 2- oxidases, multifunctional enzymes involved in gibberellin deactivation STEPHEN G. THOMAS,ANDREW L. PHILLIPS, AND PETER HEDDEN* Institute of Arable Crops Research (IACR)-Long Ashton Research Station, Department of Agricultural Sciences, University of Bristol, Long Ashton, Bristol BS41 9AF, United Kingdom Communicated by Jake MacMillan FRS, University of Bristol, Bristol, United Kingdom, February 16, 1999 (received for review December 22, 1998) ABSTRACT A major catabolic pathway for the gibberel- centration of bioactive GAs, the genes for these enzymes have lins (GAs) is initiated by 2b-hydroxylation, a reaction cata- not yet been isolated and it has not been possible to study their lyzed by 2-oxoglutarate-dependent dioxygenases. To isolate a regulation. GA 2b-hydroxylase cDNA clone we used functional screening Gibberellin 2b-hydroxylase activity is abundant in seeds of a cDNA library from developing cotyledons of runner bean during the later stages of maturation, particularly in legume (Phaseolus coccineus L.) with a highly sensitive tritium-release seeds, which accumulate large amounts of 2b-hydroxylated b assay for enzyme activity. The encoded protein, obtained by GAs (6–8). Indeed, GA8, the first 2 -hydroxyGA to be heterologous expression in Escherichia coli, converted GA9 to identified, was extracted from seeds of runner bean (Phaseolus b GA51 (2 -hydroxyGA9) and GA51-catabolite, the latter pro- coccineus, originally classified as P. multiflorus) (9). In certain duced from GA51 by further oxidation at C-2. The enzyme thus species, including legumes, further metabolism of 2b- is multifunctional and is best described as a GA 2-oxidase. -
Pspark® DNA Cloning System Manual for Cat
pSpark® DNA cloning system Manual for cat. nº : C0001 (pSpark® I) C0002 (pSpark® II) C0003 (pSpark® III) C0004 (pSpark® IV) C0005 (pSpark® V) C0006 (pSpark® Done) Upon Receipt Store Kits at -20°C PRODUCT MANUAL Version 3.0 Last updated: December 2012 www.canvaxbiotech.com TABLE OF CONTENTS TABLE OF CONTENTS ii MATERIALS PROVIDED, KIT STORAGE AND EXPIRATION DATE iii 1. INTRODUCTION 1 1.1 Principle and advantages 1 1.2 The family of pSpark® DNA cloning vectors 2 1.3 pSpark® DNA cloning vector maps 3 1.4 Specialized applications of the pSpark® DNA cloning systems 4 1.5 Additional materials required (but NOT supplied with kits unless otherwise stated)4 2. DETAILED PROTOCOL 5 2.1 Experimental outline 5 2.2 PCR 6 2.2.1 PCR Primers design 6 2.2.2 PCR Amplification 6 2.3 Ligation 8 2.3.1 Amount of insert needed for ligation into pSpark® DNA cloning systems. 8 2.3.2 Protocol for ligation using the pSpark® DNA cloning systems 10 2.3.3 Tips for cloning of long or problematic PCR products. 11 2.4 Transformation 12 2.4.1 General considerations about transformation into E coli 12 2.4.2 Standard protocol for transformation 13 2.4.3 Fast transformation protocol (Recommended alternative) 14 2.4.4 Transformation by electroporation protocol 16 2.5 Selection of recombinants 17 2.5.1 Expected results 17 2.6 Analysis of transformants 20 2.6.1 PCR directly from bacterial colonies (Colony PCR protocol) 20 2.6.2 Isolation of plasmid DNA 21 2.6.3 Sequencing 22 2.6.4 Long term storage of sequence-verified clones 22 3. -
To Obtain Approval for Projects to Develop Genetically Modified Organisms in Containment
APPLICATION FORM Containment – GMO Project To obtain approval for projects to develop genetically modified organisms in containment Send to Environmental Protection Authority preferably by email ([email protected]) or alternatively by post (Private Bag 63002, Wellington 6140) Payment must accompany final application; see our fees and charges schedule for details. Application Number GMO17LU001 Date 26 June 2017 www.epa.govt.nz 2 Application Form Approval for projects to develop genetically modified organisms in containment Completing this application form 1. This form has been approved under section 42A of the Hazardous Substances and New Organisms (HSNO) Act 1996. It only covers projects for development (production, fermentation or regeneration) of genetically modified organisms in containment. This application form may be used to seek approvals for a range of new organisms, if the organisms are part of a defined project and meet the criteria for low risk modifications. Low risk genetic modification is defined in the HSNO (Low Risk Genetic Modification) Regulations: http://www.legislation.govt.nz/regulation/public/2003/0152/latest/DLM195215.html. 2. If you wish to make an application for another type of approval or for another use (such as an emergency, special emergency or release), a different form will have to be used. All forms are available on our website. 3. It is recommended that you contact an Advisor at the Environmental Protection Authority (EPA) as early in the application process as possible. An Advisor can assist you with any questions you have during the preparation of your application. 4. Unless otherwise indicated, all sections of this form must be completed for the application to be formally received and assessed. -
Gene Cloning
PLNT2530 2021 Unit 6a Gene Cloning Vectors Molecular Biotechnology (Ch 4) Principles of Gene Manipulation (Ch 3 & 4) Analysis of Genes and Genomes (Ch 5) Unless otherwise cited or referenced, all content of this presenataion is licensed under the Creative Commons License 1 Attribution Share-Alike 2.5 Canada Plasmids Gene 1 Naturally occurring plasmids ori -occur widely in bacteria -are covalently closed circular dsDNA -are replicons, stably inherited as extra-chromosomal DNA -can be 1 kbp to 500 kbp in size (compared to 4000 kbp chromosome) -bacteria can contain several different types of plasmid simultaneously -many naturally occurring plasmids carry genes for restriction enzymes, antibiotic resistance, or other genes 2 Bacterial Vectors All vectors : 1. -must replicate autonomously in ori - origin of replication their specific host even when sequence at which DNA polymerase joined to foreign DNA initiates replication 2. - should be easily separated from host chromosomal DNA E. coli chromosomal DNA: ~ 4 million bp typical plasmid vector: ~ 3 to 10 kb Most modern cloning vectors in E. coli are derived from naturally-ocurring plasmid col E1. Most of col E1 was deleted except for an origin of replication and an antibiotic resistance gene. 3 Vectors Types cloning small plasmids- can occur naturally in as circular dsDNA in fragments bacteria (up to 15 kb) eg. single genes bacteriophage -viruses of bacteria (~10-50 kb) used in the cDNA cloning, high-efficiency construction of cDNA and genomic libraries cloning BAC-bacterial artificial chromosome (130-150 kb genomic libraries YAC-Yeast artificial chromosome (1000-2000 kb) with large inserts Each type of vector has specific applications but primary function is to carry foreign DNA (foreign to bacteria) and have it replicated by the bacteria 4 Introduction of foreign DNA into E. -
Lab Exercise: Transformation
Lab Exercise: Transformation OBJECTIVES 1. Understand the process of transformation and how it is used in a laboratory setting for expression of genes (i.e. production of proteins). 2. Perform a successful transformation using the pTOM plasmid. INTRODUCTION Genetic transformation is used in many areas of biotechnology, and, at its heart, requires two things: Donor DNA and recipient cells. Cells which receive the donor DNA are considered genetically recombined, that is, they have their original DNA (their chromosome) and new DNA (the plasmid) and whatever genes that plasmid carries. Before considering the details of recombination, we will consider each of these players individually. Plasmids were discovered as extra-chromosomal genetic material in the late 1960s. Like the bacterial chromosome, they are circular but they are much smaller (2,000–10,000 bp), and usually contain genes for one or more traits that may be beneficial to bacterial survival. In nature, bacteria can transfer plasmids back and forth allowing them to share these beneficial genes and adapt to new environments. For instance, the quick dissemination of bacterial resistance to antibiotics is due in part to the transmission of plasmids. These naturally occurring plasmids have been engineered to contain not only antibiotic resistance (which is used in the laboratory as a selective marker for successful transformation) but other “genes of interest.” If a plasmid is transformed into an E. coli cell that is sensitive to the antibiotic ampicillin, it will confer resistance to that antibiotic. Growing the transformants in the presence of ampicillin is an easy way to select for recombined E. -
A Biobrick Compatible Strategy for Genetic Modification of Plants Boyle Et Al
A BioBrick compatible strategy for genetic modification of plants Boyle et al. Boyle et al. Journal of Biological Engineering 2012, 6:8 http://www.jbioleng.org/content/6/1/8 Boyle et al. Journal of Biological Engineering 2012, 6:8 http://www.jbioleng.org/content/6/1/8 METHODOLOGY Open Access A BioBrick compatible strategy for genetic modification of plants Patrick M Boyle1†, Devin R Burrill1†, Mara C Inniss1†, Christina M Agapakis1,7†, Aaron Deardon2, Jonathan G DeWerd2, Michael A Gedeon2, Jacqueline Y Quinn2, Morgan L Paull2, Anugraha M Raman2, Mark R Theilmann2, Lu Wang2, Julia C Winn2, Oliver Medvedik3, Kurt Schellenberg4, Karmella A Haynes1,8, Alain Viel3, Tamara J Brenner3, George M Church5,6, Jagesh V Shah1* and Pamela A Silver1,5* Abstract Background: Plant biotechnology can be leveraged to produce food, fuel, medicine, and materials. Standardized methods advocated by the synthetic biology community can accelerate the plant design cycle, ultimately making plant engineering more widely accessible to bioengineers who can contribute diverse creative input to the design process. Results: This paper presents work done largely by undergraduate students participating in the 2010 International Genetically Engineered Machines (iGEM) competition. Described here is a framework for engineering the model plant Arabidopsis thaliana with standardized, BioBrick compatible vectors and parts available through the Registry of Standard Biological Parts (www.partsregistry.org). This system was used to engineer a proof-of-concept plant that exogenously expresses the taste-inverting protein miraculin. Conclusions: Our work is intended to encourage future iGEM teams and other synthetic biologists to use plants as a genetic chassis. -
3 Main Classification of Vectors (With Diagram)
4/20/2020 3 Main Classification of Vectors (With Diagram) Privacy Policy | Join our Community :- Upload Now 3 Main Classification of Vectors (With Diagram) Article shared by : The classifications are: 1. On the Basis of Our Aim with Gene of Interest 2. On the Basis of Host Cell Used 3. On the Basis of Cellular Nature of Host Cell. Vector Classification # 1. On the Basis of Our Aim with Gene of Interest: The point is what we are targeting from our gene of interest — its multiple copies or its protein product. Depending on these criteria vec tors are of following two types: 1. Cloning Vectors: We use a cloning vec tor when our aim is to just obtain numer ous copies (clones) of our gene of interest (hence the name cloning vectors). These are mostly used in construction of gene libraries. A number of organisms can be used as sources for cloning vectors. Some are created synthetically, as in the case of yeast artificial chromosomes and bacte rial artificial chromosomes, while others are taken from bacteria and bacteriopha ges. In all cases, the vector needs to be genetically modified in order to accommo date the foreign DNA by creating an in sertion site where the new DNA will fit ted. Example: PUC cloning vectors, pBR322 cloning vectors, etc. 2. Expression Vectors or Expression construct: www.biotechnologynotes.com/recombinant-dna-technology/3-main-classification-of-vectors-with-diagram/395 1/64 4/20/2020 3 Main Classification of Vectors (With Diagram) We use an expression vector when our aim is to obtain the protein prod uct of our gene of interest.