Lab meeting 2013.04.08. Dilute [pcDNA3.1+cDNA U2AF1] up to 20µl (1µg/µl) Linearize pcDNA3.1+cDNA U2AF1 by ScaI ScaI1µl 10X NEB buffer (No.3)5µl BSA2µl.

Slides:



Advertisements
Similar presentations
Subcloning Techniques
Advertisements

1 st Strand Synthesis in Reverse Transcription AAAAAAAA 3’ N6 TTT TTTTT 5’ 5’ 3’ Random primer Oligo(dT) primer Sequence specific primer 1 st strand cDNA.
COLORECTAL CANCER PLASMA, TUMOR TISSUE, NORMAL TISSUE
Loop-mediated Isothermal Amplification (LAMP) and its application in detection A. Ishwara Bhat Senior Scientist Indian Institute of Spices Research Marikunnu,
PCR way of copying specific DNA fragments from small sample DNA material "molecular photocopying" It’s fast, inexpensive and simple Polymerase Chain Reaction.
Generating the histone code CDK8 kinases histones to repress transcription.
Genomic DNA extraction from whole blood
Primer/probe design Crucial for successful DNA & RNA analysis! Main source of specificity for PCR.
COMPUTER EXERCISE Design of PCR and PCR-RFLP experiments This presentation shows all steps of a PCR-RFLP experiment and is a companion of the computer.
PRESENTED BY: LAUREN SHIN MENTOR: DR. LUIZ BERMUDEZ MICROBIOLOGY DEPARTMENT Determining the Role of the luxR homolog in Mycobacterium avium subsp. paratuberculosis.
PCR Basics Purpose of PCR Overview Components of PCR Reaction
PCR Basics 1.Purpose of PCR 2.Overview 3.Components of PCR Reaction 4.Variables Temperature Cycle Times and Numbers Primer Buffer Polymerase 5.Experimental.
Polymerase Chain Reaction (PCR2) fourth lecture Zoology department 2007 Dr.Maha H. Daghestani.
Genomic DNA purification
Extreme PCR: Efficient and Specific DNA Amplification in 15–60 Seconds
Initial Pool Generation Based on DNA Shuffling Method Eun-jeong Lee.
Long PCR Yanfei Yang Compromise of longer PCR (>3,4kb) Nonspecific primer annealing Suboptimal cycling conditions Secondary structures in the.
IGEM 101: Session 6 4/9/15Jarrod Shilts 4/11/15Ophir Ospovat.
PCR of our OV What is PCR again? I forgot… Preparing for PCR Running a PCR.
PCR- Polymerase chain reaction
Polymerase Chain Reaction (PCR)
EDVOKIT#300: Blue/White Cloning of a DNA Fragment
Lab safety Documentation, GLP Practical tips; primers and PCR.
Lab meeting Plasmid preparation and Linearize the pcDNA3.1 vector  pcDNA3.1 digest with ScaI- blunt end  Plasmid preparation using Midi kit.
Lab meeting  1 st Plasmid preparation of K562, Hela, IM9 -Midi Kit Quiagen  2 nd Prepare control sample within the plasmid preparation process.
PCR Troubleshooting Virginia Balke
Select transformants on LB plates containing 100 μg/ml ampicillin  Successful colonies K562: 27 colonies Hela: 11 colonies IM9: 25 colonies Lab Meeting.
Identifying an Unknown Plasmid Avity Norman Cal Poly San Luis Obispo.
Week 7 Wednesday: –Screening of library transformants –Innoculation of colonies for plasmid preps –Practice PCR Turn in Lab #11 Thursday: –Plasmid minipreps.
Tina Doss Applied Biosystems
PCR Forensics. Today’s Lab There has been an outbreak of Salmonella poisoning in the Student Union cafeteria at Stanford University cafeteria. You have.
Polymerase Chain Reaction (PCR) Developed in 1983 by Kary Mullis Major breakthrough in Molecular Biology Allows for the amplification of specific DNA fragments.
1. 2 VARIANTS OF PCR APPLICATIONS OF PCR MECHANICS OF PCR WHAT IS PCR? PRIMER DESIGN.
PCR is used in; Cloning into plasmid vectors DNA sequencing Genetic screening DNA based phylogeny Functional analysis of genes Identification of DNA fingerprints.
A story about Section 2. What is PCR? Polymerase Chain Reaction A method to synthesis specific DNA fragment in vitro. It is composed of many cycles including.
The polymerase chain reaction
The polymerase chain reaction
SEQUENCING DNA Jos. J. Schall Biology Department University of Vermont.
Introduction to PCR Polymerase Chain Reaction
PUC 19 5’ 3’ 5’ 3’ 5’ 3’ 5’ 3’ PCR -I pUC 19 specific primers Amplicon purification PCR -II 5’ 3’ 5’ 3’ 5’ 3’ 5’ 3’ 5’ 3’ 5’ 3’ Composite pUC 19 primers.
Lab 22 Goals and Objectives: EDVOKIT#300: Blue/White Cloning of a DNA Fragment Calculate transformation efficiencies Compare control efficiency to cloned.
Restriction Enzyme Store in -20 C Digestion. Restriction Enzyme Buffer NaCl or KCl, TrisHCl, MgCl 2, DTT Different salt: varied activity Buffer supplied.
PCR mediated mutagenesis 2013 년도 2 학기 생화학 실험 (2) 5 주차 조교 : 안성원.
Lab meeting Nguyen Thi Dai Trang. Electroporation of K562, Hela, IM9  Protocol 1. 2x10 6 cells 2. PBS wash 2 times 3. Suspend in 90µl PBS.
Lecturer: Bahiya Osrah Background PCR (Polymerase Chain Reaction) is a molecular biological technique that is used to amplify specific.
Rajan sharma.  Polymerase chain reaction Is a in vitro method of enzymatic synthesis of specific DNA sequences.  This method was first time developed.
RT-PCR analysis 생화학 실험 2 조교 : 이 선 민 내선 7699, 첨단과학기술관 201-B 호 신과학원 S438 호.
M Gradient PCR using Taq polymerase with 125ng primer concentration M: 1 kb ladder 1: 60°C 2: 62°C 3: 64.4°C 4:66.8°C 5: 69.2°C 6:71.5°C 284D.
I. PCR- Polymerase Chain Reaction A. A method to amplify a specific piece of DNA. DNA polymerase adds complementary strand DNA heated to separate strands.
January 19, 2016 Biotech 3 Lecture Annealing 1. Melting 3. Elongation 4. Repeat cycle ~ 30 times Polymerase Chain Reaction.
Polymerase Chain Reaction. Before PCR Before PCR Recombinant Recombinant DNA DNA technology technology.
PCR Polymerase Chain Reaction Parviz Fallah Stem Cell Technology Research Centre.
Presented by: Khadija Balubaid.  PCR (Polymerase Chain Reaction) is a molecular biological technique  used to amplify specific fragment of DNA in vitro.
Introduction to PCR Polymerase Chain Reaction
Lab 8: PCR (Polymerase Chain Reaction)
PCR Basics Purpose of PCR Overview Components of PCR Reaction
EDVOKIT#300: Blue/White Cloning of a DNA Fragment
IGEM Bioware Summer Week 7!.
PCR The Polymerase Chain Reaction.
Oligose - Primers Qiagen Dneasy Polymerase Chain Reaction What Does it all Mean? Maria Brown October 22, 1009.
Polymerase Chain Reaction
Gradient PCR using Taq polymerase with 125ng primer concentration
PCR How does PCR work?: Separation of two strands
Initial Pool Generation Based on DNA Shuffling Method
mRNA Sequencing Sample Preparation
PCR types and Trouble shooting
Molecular Biology Working with DNA.
Introduction to Polymerase Chain Reaction (PCR)
Course Project Engineering electricity production by plants
Principles of Quantitative PCR
Presentation transcript:

Lab meeting

Dilute [pcDNA3.1+cDNA U2AF1] up to 20µl (1µg/µl) Linearize pcDNA3.1+cDNA U2AF1 by ScaI ScaI1µl 10X NEB buffer (No.3)5µl BSA2µl pcDNA3.1+cDNA (1µg/µl)1µl D.W41µl Total 50µl Incubation time: O/N Incubation temp: 37 °C  Not completely digested  Need to use new enzyme

Neomycin Antibiotic sensitivities of Hela, THP-1, K562 All cells grow happily at 0, 300, 400, 500, 1000, 1200 μg/ml  need to use new kind of antibiotic to select cells  puromycin plasmid co-transfection

pCAGIPuro plasmid  Do Puromycin antibiotic sensitivities of Hela, K562, IM9  Do plasmid preparation of PCAGIPuro-midi kit  Linearize by PvuI  Co-transfection of [pCDNA3.1+cDNA U2AF1 ] and pCAGIPuro to cell lines Hela, K562, IM9  Expected time: 2 weeks

cDNA SRSF2 Amplify 662 bp by Ex tag Takara (hot-start method) LA Tag x buffer LA tag5 dNTP4 cDNA2 Primer F1 R1 DW36.75 Total °C : 98 °C : 62 °C : 72 °C : 20 °C 5min: 10 sec :30 sec: 5 min: cycles -Prepare mastermix w/o Ex tag - add template -Put in thermocycler 98 °C 5 min - add Ex-tag Product length: 662 bp

cDNA SRSF2 Amplify 662 bp by Ex tag Takara (hot-start method) Ladder K562 Hela IM9 4/5 [template+ primer] fraction Buffer Ex tag 4 dNTP4 cDNA (250 ng/µl)2 Primer F (20pmol/ul)1 R(pmol/ul)1 D.W28 Total 40µl 1/5 LA tag fraction Ex tag 0.3 Buffer Ex tag 1 D.W8.7 Total 10µl  Put [template + primer] fraction in the tube  Heat to 94°C 3’  Add LA tag fraction during first annealing/extension step. 94 °C : 94 °C : 59 °C : 68 °C : 72 °C :20 °C 3’: 30” :30”: 1’: 5’: cycles

cDNA SRSF2 Amplify 662 bp by Ex tag Takara PCR reation Buffer Ex tag 5 dNTP4 cDNA (250 ng/µl)2 Primer F (20pmol/ul)1 R(pmol/ul)1 Ex-tag0,3 D.W36,7 Total 50µl 94 °C : 94 °C : 60 °C : 68 °C : 72 °C :20 °C 3’: 30” :30”: 1’: 5’: cycles K562 Hela IM9 Ladder  No target product was observed  Do gradient annealing temp to find optimal degree for annealing temp 1500bp 1000bp 500bp

cDNA SRSF2 Amplify 662 bp by Ex tag Takara (Gradient, using 5XCES) PCR reation Buffer Ex tag 5 dNTP4 cDNA (250 ng/µl)2 Primer F (20pmol/ul)1 R(pmol/ul)1 Ex-tag0,3 5XCES5 D.W31.7 Total 50µl 94 °C : 94 °C : gradient °C : 68 °C : 72 °C :20 °C 3’: 30” :30”: 1’: 5’: cycles 5XCES = [2.7M betaine, 6.7 mM DTT+ 6,7% DMSO + 55µg/mL BSA]  use for amplify products which have high GC content and reducing secondary structure 54 °C 56 °C 58 °C 60 °C 62 °C Ladder Grad K bp 500bp  Result at 60 °C in this case is d/f with one in previous slide at 60 °C  5XCES maybe use from now on to prevent unspecific bands  Little small band of target product was observed  Many unspecific band was removed at 62 °C  Try again at 62 °C and 64 °C