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Printable Handouts
Navigable Slide Index
- Introduction
- Investigating genes and diseases
- "Simple" traits
- Complex traits
- The human genome
- Identify important genes and proteins
- Genotyping
- Classic family-linkage
- Affected sib pairs (linkage)
- Positional cloning
- Genetic influences in human epilepsy
- Rare Mendelian Inherited epilepsy subtypes
- Mice with spontaneous seizure phenotype
- Normal distribution of quantitative traits
- C57BL/6 (B6) and DBA/2 (D2) inbred strains
- Seizure sensitivity in D2 and B6 mice
- Experimental seizure paradigms
- Comparison of seizure susceptibility
- Maximal Electroshock Threshold (MEST)
- Breeding seizure sensitive and resistant mice
- Hypothetical QTL data
- Chr.1 genotypes and MEST
- Seizure-related QTLs in B6 and D2 mice
- Congenic animal production
- Congenic strain: B6.D2-Mtv7a/Ty
- B6.D2-Mtv7a/Ty strain: seizure sensitivity
- Primary suspect: Kcnj10
- Human KCNJ10 gene variations
- Inward rectifying K+ channels & K+ buffering
- The KCNJ10/Kcnj10 gene
- Transgenic & "knock-in" animals
- KCNJ10 and rare human epilepsy
- KCNJ10 and human epilepsy
- Genome wide association study (GWAS) (1)
- Genome wide association study (GWAS) (2)
- GWAS- methods
- GWAS results- Manhattan plot
- GWAS results
- CNV results
- Convergence of GWAS and CNV
- Next Generation Sequencing
- Whole Genome Sequencing
- Conclusions
- Acknowledgements
Topics Covered
- Genetic techniques used to identify epilepsy genes
- Seizures in mice
- Translating mice genes to human genes
- Identified epileptic genes
- Neural transmission genes
- Ion flux genes
- Neuro-development genes
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Talk Citation
Buono, R.J. (2021, May 30). Genetic influences on human epilepsy [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved November 21, 2024, from https://doi.org/10.69645/ZXJQ8156.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Russell J. Buono has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
Update Available
The speaker addresses developments since the publication of the original talk. We recommend listening to the associated update as well as the lecture.
- Full lecture Duration: 57:10 min
- Update interview Duration: 15:43 min
A selection of talks on Neurology
Transcript
Please wait while the transcript is being prepared...
0:00
Hi, my name is Dr. Russ Buono, and I'm here today to
talk with you about genetic influences on human epilepsy.
I'm a research associate professor of neurology at
Thomas Jefferson University Hospital in Philadelphia, Pennsylvania, in the USA.
I'm also a research affiliate scientist at the Children's Hospital of Philadelphia,
and the Associate Chief of Staff for Research at
the Veterans Affairs Medical Center in Coatesville, Pennsylvania.
Because of my affiliation with the US Government,
I need to tell you that my presentation does not
represent the official views of the United States Government.
Today what I'll do is give you a brief primer on
genetics, and then speak specifically about
my laboratory and my colleagues' attempts to identify genes related to human epilepsy.
0:50
Geneticists like to study families, twins,
and persons who've been adopted, to try to
provide evidence that genes play a role in disease.
We all know that physicians take
strong family histories when interviewing their patients, to try and
understand if their patients are at risk from
genetics that are being passed along in the generations.
We know that certain diseases run in
families, and that's evidence that there are genes involved.
We can compare the rates of disease between monozygotic versus dizygotic twins.
As you know, monozygotic twins share 100 percent of
their DNA with each other, since they came from the same fertilized egg,
whereas dizygotic twins only share about 50 percent of their DNA, just like any siblings.
To compare concordance rate of disease between monozygotes and
dizygotic twins can provide evidence that genes play a role in disease.
Further, children who are adopted away from their biological parents,
but still are at high risk for the diseases of those parents,
show that genetics is involved in disease.