Catherine B. Talmadge
University of Nebraska Medical Center
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Featured researches published by Catherine B. Talmadge.
Gene | 2003
Soraya Beiraghi; Ming Zhou; Catherine B. Talmadge; Nils Went-Sumegi; Jack R. Davis; Dali Huang; Howard M. Saal; Thomas A. Seemayer; Janos Sumegi
Cleft lip with or without cleft palate is a common birth defect affecting 1 in every 700 live births. Several genetic loci are believed to be involved in the pathogenesis of syndromic and non-syndromic clefting. We identified a pericentric inversion of chromosome 4, inv(4)(p13q21) that segregates with cleft lip in a two-generation family. By using a combination of fluorescence in situ hybridization, yeast artificial chromosome, bacterial artificial chromosome contig mapping, and database searching we mapped and sequenced the inversion breakpoint region. The pericentric inversion disrupts a gene (ACOD4) on chromosome 4q21 that codes for a novel acyl-CoA desaturase enzyme. The 3.0 kb human ACOD4 cDNA spans approximately 170 kb and is composed of five exons of ACOD4. The inversion breakpoint is located in the second exon. The 3.0 kb mRNA is expressed at high level in fetal brain; a lower expression level was found in fetal kidney. No expression of ACOD4 was detected in fetal lung or liver or in adult tissues. The five exons code for a protein of 330 amino acids, with a predicted molecular weight of 37.5 kDa. The protein is highly similar to acyl-CoA desaturases from Drosophila melanogaster to Homo sapiens. The catalytically essential histidine clusters and the potential transmembrane domains are well conserved.
Cancer Gene Therapy | 2001
Manabu Hirai; Drake LaFace; Simon Robinson; Linda Kelsey; Robert C. Johnson; Shu Fen Wen; Phyllis I. Warkentin; Kevin Mills; Mei Vaillancourt; Jennifer Chavez; Cheryl Leutzinger; Janos Sumegi; Sarah Neugebauer; Janae Lehman; Catherine B. Talmadge; Dan Maneval; James E. Talmadge
Co-incubation of a replication-deficient, recombinant adenovirus carrying the wild-type p53 gene (rAd-p53) and hematopoietic stem cell (HSC) products from patients with breast cancer can significantly reduce tumor cell contamination. Whereas this approach provides a powerful tumor cell purging strategy, potential detrimental effects on the HSC population have not been investigated. The ability of human HSC to reconstitute hematopoiesis in severe combined immunodeficient (SCID) mice and to undergo secondary transplantation provides the only nonclinical measure of self-renewing, stem cell function. The objective of this study was to investigate whether co-incubation with rAd-p53 compromised the SCID repopulating activity (SRA) of HSC. Granulocyte colony-stimulating factor–mobilized human CD34+ cells were co-cultured with rAd-p53 at our targeted clinical dose, and the ability of these cells to establish multilineage hematopoiesis in sublethally irradiated, nonobese diabetic (NOD)-SCID mice was investigated. The persistence of human cells in the mice was investigated by flow cytometry, granulocyte–macrophage colony-forming unit assay, and polymerase chain reaction of human Alu sequences. Further, limiting dilution analysis provided a quantitative comparison between the SRA of CD34+ cells co-incubated with rAd-p53 and control CD34+ cells (no rAd-p53 co-incubation). We conclude that co-incubation with rAd-p53 has little effect on the SRA of HSC. Cancer Gene Therapy (2001) 8, 936–947
Human Genetics | 1998
Catherine B. Talmadge; Scott Finkernagel; Janos Sumegi; Leonard J. Sciorra; Leonard Rabinow
The eukaryotic LAMMER protein kinase family is encoded by at least three loci in the human genome, designated CLK1, 2, and 3. We have mapped these loci to 2q33, 1q21, and 15q24, respectively, by fluorescent in situ hybridization. Additionally, a CLK2 pseudo-gene has been located to 7p15–21.
Science | 1998
James D. Eudy; Michael D. Weston; Sufang Yao; Denise M. Hoover; Heidi L. Rehm; Manling Ma-Edmonds; Denise Yan; Iqbal Ahmad; Jason J. Cheng; Carmen Ayuso; Cor W. R. J. Cremers; S. Davenport; Claes Möller; Catherine B. Talmadge; Kirk W. Beisel; Marta L Tamayo; Cynthia C. Morton; Anand Swaroop; William J. Kimberling; Janos Sumegi
Genomics | 1998
James D. Eudy; Sufang Yao; Michael D. Weston; Manling Ma-Edmonds; Catherine B. Talmadge; Jason J. Cheng; William J. Kimberling; Janos Sumegi
Genomics | 1997
James D. Eudy; Manling Ma-Edmonds; SuFang F. Yao; Catherine B. Talmadge; Philip M. Kelley; Michael D. Weston; William J. Kimberling; Janos Sumegi
Genomics | 1997
Philip M. Kelley; Michael D. Weston; Zheng-Yi Chen; Dana J. Orten; Tama Hasson; Larry D. Overbeck; Jeff Pinnt; Catherine B. Talmadge; Paul S. Ing; Mark S. Mooseker; David P. Corey; Janos Sumegi; William J. Kimberling
Genomics | 1996
Janos Sumegi; Ji Yi Wang; Dong Kai Zhen; James D. Eudy; Catherine B. Talmadge; Bi Fang Li; Peter Berglund; Michael D. Weston; Su Fang Yao; Manling Ma-Edmonds; Larry D. Overbeck; Philip M. Kelley; Eugene R. Zabarovsky; Eva Uzvolgyi; Eric J. Stanbridge; George Klein; William J. Kimberling
Genomics | 1997
Arpad Lanyi; Bi Fang Li; Shao Bing Li; Catherine B. Talmadge; Beda Brichacek; Jack R. Davis; Beth A. Kozel; Barbara J. Trask; Ger van den Engh; Eva Uzvolgyi; Eric J. Stanbridge; David L. Nelson; Craig Chinault; Helen E. Heslop; Thomas G. Gross; Thomas A. Seemayer; George Klein; David T. Purtilo; Janos Sumegi
Genomics | 2002
Dali Huang; James D. Eudy; Eva Uzvolgyi; Jack R. Davis; Catherine B. Talmadge; Dalyir Pretto; Michael D. Weston; Janae Lehman; Ming Zhou; Thomas A. Seemayer; Iqbal Ahmad; William J. Kimberling; Janos Sumegi