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H. M.
Diese Lernkarten bieten einen umfassenden Überblick über die Genomik auf Universitätsniveau, mit Fokus auf menschliche Genomvariation, Krankheitsgenetik und moderne Technologien wie CRISPR-Cas. Sie decken Prinzipien der Genomsequenzierung, Genexpressionsanalyse, Linkage-Analysen und Proteomik ab. Die Karteikarten sind besonders nützlich für Medizinstudenten und Forscher, die ein tiefes Verständnis der genetischen Grundlagen von Krankheiten und der Anwendung biotechnologischer Methoden erlangen möchten.
Karten
90
Lernende
3
Sprache
Deutsch
Kategorie
Medizin
Stufe
Universität
Erstellt / Aktualisiert
17.03.2017 / 19.06.2022

Lernkarten

Technologie

Proteomics

Mass analyzers used for Proteomics
- Prinzip

893

Technologie

Proteomics

Mass analyzers used for Proteomics
- Prinzip

894

Technologie

Proteomics

Stable-isotope protein labeling
- Prinzip
- Zweck

895

Technologie

Proteomics

Spatial information through Mass Spectrometry
- Prinzip

896

Technologie

Proteomics

The yeast two –hybrid assay
- Prinzip

The yeast two hybrid assay uses the fact that many eukaryotic transcriptional regulators have two parts or domains that can act independently of one another. One of them is the so-called DNA binding domain (DBD), which is responsible for binding of the transcription factor to DNA near a gene whose expression it regulates. The second is the transcriptional activation domain (TAD), which is responsible for interacting with a protein complex (not shown in the slide) that includes RNA polymerase, and that is bound near the transcriptional start site of the regulated gene. This interaction triggers the initiation of transcription of the gene. The yeast two-hybrid assay asks whether two proteins of interest (A,B) can physically interact. It requires fusing one protein to the DBD of a transcriptional regulator, and the other to the TAD of this regulator. These two ‘hybrid’ proteins are also sometimes called ’bait’ and ‘prey’, respectively. If the two proteins A and B can interact, they can bring these two domains together, which can then activate a gene’s expression. The gene used in this assay is a so-called reporter gene whose expression can be easily detected. It is merely used to ‘report’ whether gene expression occurred, and whether the two proteins A and B interacted.

Technologie

Proteomics

Protein Chips
- Prinzip / Zweck

898

Technologie

Proteomics

Protein Chips
- Herstellung
- Major classes of protein Chips

899

Technologie

Proteomics

Microfluidics
- Prinzip

900

 

Technologie

structural Proteomics

Importance of protein structure
- Beispiel

901

Technologie

structural Proteomics

Determining protein structure
- Prinzip
  -> welche Ansätze gibt es
- Applications

902

Applications of structural information

  • Structure-based drug design
    • Designing drugs that target specific protein domains
  • Better understanding of human disease  
  • Improvements in the design of industrial enzymes

Technologie

Reverse Genetics

- Examples
- Prinzip / Ziel

Examples:

  • “High-throughput reverse genetics” using RNAi
  • CRISPR-Cas

903

Technologie

Reverse Genetics

Ways to modulate gene activity
- Beispiele
- Prizip

904

Technologie

Reverse Genetics

RNAi
- was ist das?
- wo wurde es entdeckt?

905

RNAi depends on a system that the organism uses to detect double-stranded RNA viruses as well as other abnormal gene expression. This mechanism was initially characterized in the fungus Neurospora, where the phenomenon is known as quelling, and in plants, where it is responsible for resistance to the spread of virus.

Technologie

Reverse Genetics

RNAi mehcanism
- Prinzip
- Beteiligte Enzyme
  -> was tun sie?

906

Technologie

Reverse Genetics

Systematic RNAi screens
- Prinzip
- in welchem Organismus besonders einfach?

907

Technologie

CRISPR-Cas
- Was ist das?
- Namensherkunft

931

Technologie

CRISPR-Cas; How it works in Nature
- 3 Komponenten
- Prinzip
  -> Betiligte Dinge

932

Technologie

CRISPR-Cas; How it works in Nature
- Two major steps of the CRISPR-Cas immune response
  -> Prinzip

933

Technologie

CRISPR-Cas; Using CRISPR-Cas for genome editing
- Prinzip
+ Vor/Nachteile

934

Technologie

CRISPR-Cas; Using CRISPR-Cas for genome editing
- Duchenne Muscular Dystrophy

935

Menschliche Genomvariation

Monogenetic vs complex Diseases

936

Menschliche Genomvariation

Mendelian diseases
- Huntignton
- ZF
- Hämophilie
=> VErerbung

- Huntignton -> Dominant
- ZF -> rezessiv
- Hämophilie -> X-Linked
 

Menschliche Genomvariation

Mendelian diseases; Epidemiology
- Häufigkeit
-> welches sind die 2 Häufigsten?

937

Menschliche Genomvariation

Mendelian diseases; Catalog
- wie viele sind idenifiziert?
--> Autosomal / X / Y ?

938

Menschliche Genomvariation

Complex diseases
- Examples of well known complex-diseases
- Factors complicating the analysis of complex-diseases

939

Menschliche Genomvariation

Complex diseases
- Environmental contribution to complex disease
--> Beispiel Diabetes Typ 2

940

Menschliche Genomvariation

Complex diseases; Identifying disease genes
- Prinzip

941

Menschliche Genomvariation

Complex diseases; SNPs
- Häufigkeit
- Nutzen

942

Menschliche Genomvariation

Complex diseases; SNPs
- SNP genotyping technology
--> Prinzip

943

Menschliche Genomvariation

Recombination (review)

998

Menschliche Genomvariation

Genetic and physical maps
- Definition
- Einheit

997

Menschliche Genomvariation

Linkage disequilibrium
- Prinzip

996

Menschliche Genomvariation

Linkage disequilibrium; Quanitifikation
- D
--> Prinzip, Berechnung

995

Menschliche Genomvariation

Linkage disequilibrium; Quanitifikation; D
- Nachteile von D
- -> Angabe von L ohne diese Nachtteile

994

Menschliche Genomvariation

Linkage disequilibrium
- was wird dadurch ermöglicht?

993

Menschliche Genomvariation

Haplotype blocks
- Definition

992

Menschliche Genomvariation

Triangle plot
- Zweck

991

Menschliche Genomvariation

Haplotype blocks
- dependence on population hisory

990

Menschliche Genomvariation

Linkage analysis
- Prinzip

989

Menschliche Genomvariation

Linkage analysis
- Einheit

988

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