Wayne W. Grody

Dr. Wayne W. Grody


Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 June 2013 in Genetics in Medicine
Verified
Journal Article
Closed access
WGWayne W. Grody
Wayne W. Grody
BTBarry H. Thompson
Barry H. Thompson
AGAnthony R. Gregg
Anthony R. Gregg
LBLora H. Bean
Lora H. Bean
KMKristin G. Monaghan
Kristin G. Monaghan
RLRoger V. Lebo
Roger V. Lebo

1 November 2008 in The Journal of Molecular Diagnostics
Verified
Journal Article
Closed access
JBJohn R. Ten Bosch
John R. Ten Bosch
WGWayne W. Grody
Wayne W. Grody

1 May 2014 in BMC Medical Genetics
Verified
Journal Article
Open access
PDF file
SSSamuel P Strom
Samuel P Strom
RLReymundo Lozano
Reymundo Lozano
HLHane Lee
Hane Lee
NDNaghmeh Dorrani
Naghmeh Dorrani
JMJohn Mann
John Mann
FQFabiola Quintero-Rivera
Fabiola Quintero-Rivera
Wiedemann-Steiner Syndrome (WSS) is characterized by short stature, a variety of dysmorphic facial and skeletal features, characteristic hypertrichosis cubiti (excessive hair on the elbows), mild-to-moderate developmental delay and intellectual disability. [MIM#: 605130]. Here we report two unrelated children for whom clinical exome sequencing of parent-proband trios was performed at UCLA, resulting in a molecular diagnosis of WSS and atypical clinical presentation.

1 January 2008 in Molecular Genetics and Metabolism
Verified
Journal Article
Closed access
JDJoshua L. Deignan
Joshua L. Deignan
SCStephen D. Cederbaum
Stephen D. Cederbaum
WGWayne W. Grody
Wayne W. Grody

1 November 2007 in Genetics in Medicine
Verified
Journal Article
Closed access
PDF file
WGWayne W. Grody
Wayne W. Grody
GCGarry R. Cutting
Garry R. Cutting
MWMichael S. Watson
Michael S. Watson

1 February 2003 in Annual Review of Medicine
Verified
Journal Article
Closed access
WGWayne W. Grody
Wayne W. Grody
Under the impetus of the Human Genome Project, new disease-associated genes are being discovered at a rapid pace. Mutations in many of these genes are present in a high enough proportion of the general population, or of particular ethnic groups, that global or targeted population screening can be contemplated. If performed early enough, identification of these mutations by molecular genetic testing can be used not merely to diagnose disease but to predict risk of future disease, either in the individual being tested or in his or her offspring. In some cases this knowledge can be the rationale for heightened surveillance and/or preventive or therapeutic interventions. Mass screening has already commenced for cystic fibrosis mutations and has been discussed for such diverse diseases as hereditary hemochromatosis, thrombophilias, familial cancer predispositions, and pharmacogenetic risk factors. However, implementation of such programs is often impeded by the complexity of the gene mutations, by incomplete penetrance, and by thorny ethical and social issues. This chapter reviews the basic criteria to be considered before embarking on population genetic risk screening, and examines multiple disease-screening examples representing a variety of modes of inheritance and technical challenges.