Dissecting the genetic architecture of coronary artery disease by genome engineering

One of the greatest challenges facing biomedical research since the sequencing of the human genome has been to understand the role of genetic variation in human disease. Many genetic variants have been associated with common diseases. However, determining the functional consequences of these variant...

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Main Authors: Segal, David J, Bhakta, Mital S, Das, Kumitaa Theva, Sun, Chongxiu
Format: Conference or Workshop Item
Language:English
Published: 2012
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Online Access:http://eprints.usm.my/37309/1/1753-6561-6-S6-P34.pdf
http://eprints.usm.my/37309/
https://bmcproc.biomedcentral.com/articles/10.1186/1753-6561-6-S6-P34
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Institution: Universiti Sains Malaysia
Language: English
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spelling my.usm.eprints.37309 http://eprints.usm.my/37309/ Dissecting the genetic architecture of coronary artery disease by genome engineering Segal, David J Bhakta, Mital S Das, Kumitaa Theva Sun, Chongxiu QH426-470 Genetics One of the greatest challenges facing biomedical research since the sequencing of the human genome has been to understand the role of genetic variation in human disease. Many genetic variants have been associated with common diseases. However, determining the functional consequences of these variants has been hard. Several variants are often inherited together in tightly linked blocks, making it difficult to determine the causative variant. People have millions of other genetic differences, making it difficult to correlate cellular phenotypes with a particular variant. Different gene sets are expressed in different cells, but it is difficult to extract disease-relevant cells from large numbers of patients. We describe a method with the potential to revolutionize the functional analysis of genetic variation, using custom nucleases to genetically modify individual variants in induced pluripotent stem cells. This process would provide unprecedented analytical power, present the first general method to determine if a variant is causative, and analyze function disease-relevant cell types. We will focus on variants at the 9p21 region of the genome that have been associated with coronary artery disease (CAD). The methods should provide a new way to unlock the wealth of data from genome-wide association studies, and to probe the genetic architecture of common diseases. We will describe our improved methods for inexpensive and rapid construction of highly active zinc finger and TALE nucleases to examine the functional role of polymorphisms at the 9p21 CAD risk locus. 2012 Conference or Workshop Item PeerReviewed application/pdf en cc_by http://eprints.usm.my/37309/1/1753-6561-6-S6-P34.pdf Segal, David J and Bhakta, Mital S and Das, Kumitaa Theva and Sun, Chongxiu (2012) Dissecting the genetic architecture of coronary artery disease by genome engineering. In: BMC Proceedings: Beyond the Genome, September 27-29, 2012, Boston, MA, USA. https://bmcproc.biomedcentral.com/articles/10.1186/1753-6561-6-S6-P34
institution Universiti Sains Malaysia
building Hamzah Sendut Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Sains Malaysia
content_source USM Institutional Repository
url_provider http://eprints.usm.my/
language English
topic QH426-470 Genetics
spellingShingle QH426-470 Genetics
Segal, David J
Bhakta, Mital S
Das, Kumitaa Theva
Sun, Chongxiu
Dissecting the genetic architecture of coronary artery disease by genome engineering
description One of the greatest challenges facing biomedical research since the sequencing of the human genome has been to understand the role of genetic variation in human disease. Many genetic variants have been associated with common diseases. However, determining the functional consequences of these variants has been hard. Several variants are often inherited together in tightly linked blocks, making it difficult to determine the causative variant. People have millions of other genetic differences, making it difficult to correlate cellular phenotypes with a particular variant. Different gene sets are expressed in different cells, but it is difficult to extract disease-relevant cells from large numbers of patients. We describe a method with the potential to revolutionize the functional analysis of genetic variation, using custom nucleases to genetically modify individual variants in induced pluripotent stem cells. This process would provide unprecedented analytical power, present the first general method to determine if a variant is causative, and analyze function disease-relevant cell types. We will focus on variants at the 9p21 region of the genome that have been associated with coronary artery disease (CAD). The methods should provide a new way to unlock the wealth of data from genome-wide association studies, and to probe the genetic architecture of common diseases. We will describe our improved methods for inexpensive and rapid construction of highly active zinc finger and TALE nucleases to examine the functional role of polymorphisms at the 9p21 CAD risk locus.
format Conference or Workshop Item
author Segal, David J
Bhakta, Mital S
Das, Kumitaa Theva
Sun, Chongxiu
author_facet Segal, David J
Bhakta, Mital S
Das, Kumitaa Theva
Sun, Chongxiu
author_sort Segal, David J
title Dissecting the genetic architecture of coronary artery disease by genome engineering
title_short Dissecting the genetic architecture of coronary artery disease by genome engineering
title_full Dissecting the genetic architecture of coronary artery disease by genome engineering
title_fullStr Dissecting the genetic architecture of coronary artery disease by genome engineering
title_full_unstemmed Dissecting the genetic architecture of coronary artery disease by genome engineering
title_sort dissecting the genetic architecture of coronary artery disease by genome engineering
publishDate 2012
url http://eprints.usm.my/37309/1/1753-6561-6-S6-P34.pdf
http://eprints.usm.my/37309/
https://bmcproc.biomedcentral.com/articles/10.1186/1753-6561-6-S6-P34
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