Mapa mental
Genetic Engineering
Contenido del mapa
Genetic Engineering
Genome Modification
- CRISPR
- CAS9 cuts dsDNA
- Uses guide RNA
- Least specific/ Easiest to program
- TALEN
- 34 AAs, 12&13 recognize Nucleotides
- Recruits FOK1 to cut dsDNA
- Zinc-finger
- Most Specific / Hardest to Program
- Each Module Recognizes 3 bp
- Recruits FOK1 (Cuts dsDNA)
- NHEJ/HEJ - Lambda Red Phage
- FLP Recombinase Recognizes FRT
- Flank Insert Gene With FRT Sites
- FLP Expression Plasmid Eliminates Antibiotic Resistance Gene
- Exo, Gamma, Beta
- MAGE
- Alters Many Loci at the Same Time
- Add Pool of Short Oligos that Create Mismatch/Insertion/Deletion
- Various Mutants Created
- CAGE
- CRISPR
Prokaryotic Gene Regulation
- RNA Polymerase
- Holoenzyme = Core + Sigma
- Core - Transcribes
- Sigma - Initiates
- 1st Level of Transcriptional Regulation
- Regulate Large Numbers of Genes
- Holoenzyme = Core + Sigma
- Transcription Factors
- 2nd Level of Transcriptional Regulation
- Regulates a Few Genes
- Lac Operon
- Lactose Metabolism
- Lactose - Disaccharide Sugar
- Lactose Permease
- Membrane Protein
- Transport Lactose Into Cell
- β-Galactosidase
- Cleaves Lactose
- Diauxic Shift
- Small Plateau After Glucose Consumed to Switch to Lactose Usage
- Carbon Catabolite Repression
- Presence of Preferred Carbon Source Prevents Use of Secondary Carbon Source
- CCR in E.coli
- CAP Protein
- Lactose Activates Transcription of β-Galactosidase
- LacZ
- β-Galactosidase Mutation
- LacY
- Permease Mutation
- LacA
- Transacetylase Mutation
- LacI
- Upstream Mutation
- Creates a Repressor
- Lactose Metabolism
- RNA Polymerase
Eukaryotic Gene Regulation
- Six Types of Regulation
- Transcriptional Control
- Chromatin Mediated
- Mediators
- Epigenetic Control
- Transcriptional Control
- Six Types of Regulation
Math
- Gibbs Free Energy
- When a Reaction will Occur
- Laws of Thermodynamics
- 1st Law
- 2nd Law
- Boltzmann Distribution
- Gibbs Free Energy
Molecular Cloning
- Traditional Method
- Digest, Ligate, Transform
- Uses Restriction Enzymes
- Gibson Method
- T5 Exonuclease Chews Back Homologous 5' Ends
- DNA Fragments Anneal to Each Other
- Phusion Polymerase Extends 3' Ends
- Taq Ligase Seals Nicks
- Doesn't Have to Be Palindromic (Avoids Poisoning)
- Phage λ Recombination
- Gateway System
- In-Fusion Method
- Golden Gate One Pot Digestion Ligation
- Modular Cloning
- Traditional Method
Sequencing
- Sanger
- Next Generation
Nucleic Acids
- DNA
- Bases
- C-G (3 H-bonds)
- A-T (2 H-bonds)
- in RNA, T is replaced with U
- Pyrimidines
- C, U, T (smaller)
- Only Anti
- Purines
- A & G (bigger)
- Anti or Syn
- Replication
- Semi-Conservative
- Enzymes
- RNA Primase
- DNA Polymerase
- DNA Helices
- DNA Ligase
- Topoisomerase
- Repair
- Recognize Errors
- Exonuclease
- MutS & MutL
- Single Strand Repair
- BER
- DNA Glycosylase
- Endonuclease
- Phosphodiesterase
- DNA Polymerase
- DNA Ligase
- NER
- Excision Nuclease
- DNA Helicase
- DNA Polymerase
- DNA Ligase
- BER
- Double Strand Repair
- NHEJ
- Section of DNA removed
- Causes Frame Shift
- HEJ
- Removes Damaged DNA
- Uses Sister Chromatid to Repair
- NHEJ
- Recognize Errors
- Types
- B-DNA
- B'-DNA
- A-DNA
- Z-DNA
- Bases
- RNA
- mRNA
- tRNA
- rRNA
- Glycosidic Bonds
- Phosphodiester Bonds
- Sugars
- C2'-Endo (S)
- C3'-Endo (N)
- DNA
Proteins
Información
- Descripción
- Basics of Genetic Engineering
- Creado por
- Usuario eliminado · sep 2018
- Actualizado
- 21 sep 2018
- Visitas
- 9
- Etiquetas
- Historial
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- Creado por Alex Schiffer7426 · 13 oct 2015
- Copiado por Sadia Niaz · 21 sep 2018
- Valoración