Network


Latest external collaboration on country level. Dive into details by clicking on the dots.

Hotspot


Dive into the research topics where Deborah L. Grady is active.

Publication


Featured researches published by Deborah L. Grady.


Genomics | 1992

The human THE-LTR(O) and MstII interspersed repeats are subfamilies of a single widely distributed highly variable repeat family.

C.A. Fields; Deborah L. Grady; Robert K. Moyzis

Fifteen examples of the transposon-like human element (THE) LTR and thirteen examples of the MstII interspersed repeat are aligned to generate new consensus sequences for these human repetitive elements. The consensus sequences of these elements are very similar, indicating that they compose subfamilies of a single human interspersed repetitive sequence family. Members of this highly polymorphic repeat family have been mapped to at least 11 chromosomes. Seven examples of the THE internal sequence are also aligned to generate a new consensus sequence for this element. Estimates of the abundance of this repetitive sequence family, derived from both hybridization analysis and frequency of occurrence in GenBank, indicate that THE-LTR/MstII sequences are present every 100-3000 kb in human DNA. The widespread occurrence of members of this family makes them useful landmarks, like Alu, L1, and (GT)n repeats, for physical and genetic mapping of human DNA.


Cytogenetic and Genome Research | 1997

Development of diagnostic tools for the analysis of 5p deletions using interphase FISH

Meryl Gersh; Deborah L. Grady; Katherine Rojas; Michael Lovett; Robert K. Moyzis; Joan Overhauser

Cri-du-chat syndrome is associated with a deletion of the short arm of chromosome 5. Through the phenotypic and molecular analyses of individuals with a subset of the features associated with the syndrome, the genes involved in the syndrome have been mapped to two distinct critical regions. Deletion of a critical region in 5p15.2 results in the distinct facial features associated with the syndrome as well as the severe mental and developmental delay, while a deletion of 5p15.3 is associated only with the characteristic cat-like cry, the key diagnostic feature of the syndrome. Therefore, subtle differences in the extent of the 5p deletion can have a profound affect on the prognosis of the patient. In order to more easily differentiate between deletions that lead to the cri-du-chat syndrome phenotype and deletions that lead only to the isolated cat-like cry, we have constructed YAC contigs that span both critical regions. The YAC clones have been used to isolate cosmids mapping to each critical region and cosmids that lie just within the two critical region boundaries have been identified. We report here on the use of these cosmids as probes for fluorescent in situ hybridization experiments on interphase nuclei as a means of more accurately differentiating between small 5p deletions that coincide with a complete cri-du-chat syndrome phenotype and the severe mental and developmental delay that is associated with it and deletions that only delete the distal critical region that coincide with the isolated cat-like cry and a much improved prognosis.


Human Genetics | 1996

Integration of four genes, a pseudogene, thirty-one STSs, and a highly polymorphic STRP into the 7–10 Mb YAC contig of 5q34–q35

Markus Kostrzewa; Deborah L. Grady; Robert K. Moyzis; Lars Floter; Ulrich Muller

Thirty-one sequence tagged sites and a highly polymorphic short tandem repeat polymorphism have been isolated from 5q34–q35 and integrated into the yeast artificial chromosome (YAC) contig of 5q34–q35. In addition, four genes (MSX2, CSX, DRDI, andCLI00) and a pseudogene (GLUT6) were localized on this map. The high density of new markers in the region allowed further refinement of the YAC contig of distal 5q. This is a prerequisite for the conversion of this YAC into a cosmid contig.


Proceedings of the National Academy of Sciences of the United States of America | 1992

Highly conserved repetitive DNA sequences are present at human centromeres

Deborah L. Grady; Robert L. Ratliff; Donna L. Robinson; Erin C. Mccanlies; Julianne Meyne; Robert K. Moyzis


Genomics | 1998

Construction of human chromosome 16- and 5-specific circular YAC/BAC libraries by in vivo recombination in yeast (TAR cloning).

Natalya Kouprina; Mary L. Campbell; Joan P. Graves; Evelyn W. Campbell; Linda Meincke; Judith G. Tesmer; Deborah L. Grady; Norman A. Doggett; Robert K. Moyzis; Larry L. Deaven; Vladimir Larionov


Genome Research | 1997

A Radiation Hybrid Map of Human Chromosome 5 with Integration of Cytogenetic, Genetic, and Transcript Maps

John D. McPherson; Barbara L. Apostol; Caryn Wagner-McPherson; Simin Hakim; Richard G. Del Mastro; Naeema Aziz; Elizabeth Baer; Genalyn Gonzales; Mary Carol Krane; Rachelle Markovich; Peter S. Masny; Miguel Ortega; John Vu; Marco Vujicic; Deanna M. Church; Allan Segal; Deborah L. Grady; Robert K. Moyzis; M. Anne Spence; Michael Lovett; John J. Wasmuth


Genomics | 1999

Physical map and characterization of transcripts in the candidate interval for familial chondrocalcinosis at chromosome 5p15.1.

Katherine Rojas; L. Serrano de la Peña; Teresa D. Gallardo; A. Simmons; K. Nyce; Rodney McGrath; Eileen L. Considine; A.J. Vasko; E. Peterson; Deborah L. Grady; Roger D. Cox; L.J. Andrew; Michael Lovett; Joan Overhauser; Charlene J. Williams


Genomics | 1996

The Generation and Regional Localization of 303 New Chromosome 5 Sequence-Tagged Sites

Deborah L. Grady; Donna L. Robinson; Meryl Gersh; Elizabeth Nickerson; John D. McPherson; John J. Wasmuth; Joan Overhauser; Larry L. Deaven; Robert K. Moyzis


Genomics | 1995

Regional assignment of the human DNA repair gene (XRCC4L) to the 5q13-q14 boundary by in situ hybridization.

Murray Stackhouse; Babetta L. Marrone; Deborah L. Grady; David J. Chen


Automated DNA Sequencing and Analysis | 1994

CHAPTER FOURTEEN – Generation and Mapping of Chromosome Specific Sequence-tagged Sites

Norman A. Doggett; Deborah L. Grady; Jonathan L. Longmire; Larry L. Deaven

Collaboration


Dive into the Deborah L. Grady's collaboration.

Top Co-Authors

Avatar

Robert K. Moyzis

Los Alamos National Laboratory

View shared research outputs
Top Co-Authors

Avatar

Joan Overhauser

Thomas Jefferson University

View shared research outputs
Top Co-Authors

Avatar

Larry L. Deaven

Los Alamos National Laboratory

View shared research outputs
Top Co-Authors

Avatar

Michael Lovett

University of Texas Southwestern Medical Center

View shared research outputs
Top Co-Authors

Avatar

Donna L. Robinson

Los Alamos National Laboratory

View shared research outputs
Top Co-Authors

Avatar
Top Co-Authors

Avatar
Top Co-Authors

Avatar

Katherine Rojas

Thomas Jefferson University

View shared research outputs
Top Co-Authors

Avatar

Meryl Gersh

Thomas Jefferson University

View shared research outputs
Top Co-Authors

Avatar

Norman A. Doggett

Los Alamos National Laboratory

View shared research outputs
Researchain Logo
Decentralizing Knowledge