Hua-Qin Pan
University of Oklahoma
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Featured researches published by Hua-Qin Pan.
Human Genetics | 1998
Darek Kedra; Hua-Qin Pan; Eyal Seroussi; Ingegerd Fransson; Cécile Guilbaud; John E. Collins; Ian Dunham; Elisabeth Blennow; Bruce A. Roe; Fredrik Piehl; Jan P. Dumanski
Genomic sequencing was combined with searches of databases for identification of active genes on human chromosome 22. A cosmid from 22q13, located in the telomeric vicinity of the PDGFB (platelet-derived growth factor B-chain) gene, was fully sequenced. Using an expressed sequence tag-based approach we characterized human (SYNGR1) and mouse (Syngr1) orthologs of the previously cloned rat synaptogyrin gene (RATSYNGR1). The human SYNGR1 gene reveals three (SYNGR1a, SYNGR1b, SYNGR1c) alternative transcript forms of 4.5, 1.3 and 0.9 kb, respectively. The transcription of SYNGR1 starts from two different promoters, and leads to predicted proteins with different N- and C-terminal ends. The most abundant SYNGR1a transcript, the 4.5-kb form, which corresponds to RATSYNGR1, is highly expressed in neurons of the central nervous system and at much lower levels in other tissues, as determined by in situ hybridization histochemistry. The levels of SYNGR1b and SYNGR1c transcripts are low and limited to heart, skeletal muscle, ovary and fetal liver. We also characterized two additional members of this novel synaptogyrin gene family in human (SYNGR2 and SYNGR3), and one in mouse (Syngr2). The human SYNGR2 gene transcript of 1.6 kb is expressed at high levels in all tissues, except brain. The 2.2-kb SYNGR3 transcript was detected in brain and placenta only. The human SYNGR2 and SYNGR3 genes were mapped by fluorescence in situ hybridization to 17qtel and 16ptel, respectively. The human SYNGR2 gene has a processed pseudogene localized in 15q11. All predicted synaptogyrin proteins contain four strongly conserved transmembrane domains, which is consistent with the M-shaped topology. The C-terminal polypeptide ends are variable in length, display a low degree of sequence similarity between family members, and are therefore likely to convey the functional specificity of each protein.
Gene | 1998
Eyal Seroussi; Hua-Qin Pan; Darek Kedra; Bruce A. Roe; Jan P. Dumanski
Rapid progress in sequencing of human and other genomes allows high-resolution analysis of their gene content on the basis of comparison between species. We have used a combined computer and biochemical approach to characterize 135 kb of human genomic sequence from 22q12 and discovered a new 10 exon gene, termed NIPSNAP1, located between the neurofibromatosis type 2 and the pK1.3 genes. The NIPSNAP1 gene spans 26 kb of genomic sequence and shows to large introns in the 5-region. All exon-intron junctions contain the gt/ag consensus splice site. The putative promoter of the NIPSNAP1 gene is TATA-less and resides in a GC-rich island characteristic of housekeeping genes. The NIPSNAP1 mRNA is 2.1 kb, is expressed ubiquitously at variable levels, with the highest expression in liver, is terminated by an uncommon ATTAAA polyadenylation site, and is capable of encoding a 284-amino-acid protein. This NIPSNAP1 protein has a strong sequence similarity limited to the central portion of a hypothetical protein (acc. P34492) from chromosome III of C. elegans, in which the other portions resemble a 4-nitrophenylphosphatase domain and non-neuronal SNAP25-like protein. Thus, the NIPSNAP1 gene is a member of an evolutionarily well conserved, novel gene family with two members in human and mouse that have now been characterized, and one member in C. elegans. The second human gene, NIPSNAP2, is localized in the vicinity of marker D7S499 on chromosome 7. Although the function of the NIPSNAP protein family is unknown, clues about its role may reside in the co-expression of the C. elegans orthologue, within an operon encoding protein motifs known to be involved in vesicular transport.
Genetic Analysis: Biomolecular Engineering | 1994
Hua-Qin Pan; Yingping Wang; Stephanie L. Chissoe; Angelika Bodenteich; Zhili Wang; Kala Iyer; Sandra W. Clifton; Judy S. Crabtree; Bruce A. Roe
The complete nucleotide sequence of the 16,009-bp SacBII Kan domain of the P1 pAD10-SacBII cloning vector and the sequences of three cosmid cloning vectors, pTCF (7941 bp), svPHEP (9201 bp), and LAWRIST16 (5194 bp) have been determined. A modified diatomaceous earth (Prep-A-Gene)-based procedure, which rapidly yields highly supercoiled double-stranded DNA from recombinant P1 and cosmid clones suitable for generating shotgun libraries, also has been developed. The isolated recombinant DNAs were physically sheared to generate 1- to 2-kb fragments that then were blunt-ended and subcloned into double-stranded pUC-based sequencing vectors. The double-stranded sequencing templates were isolated by an alkaline lysis method and subjected to Taq polymerase catalyzed fluorescent end-labeled primer cycle sequencing. After shotgun sequence assembly, contig gaps were closed and ambiguities were resolved via Sequenase catalyzed fluorescent dye-terminator sequencing.
Genomics | 1995
Stephanie L. Chissoe; Angelika Bodenteich; Yun-Fang Wang; Ying-Ping Wang; Dennis Burian; Sandra W. Clifton; Judy S. Crabtree; Alexandra Freeman; Kala Iyer; Li Jian; Yichen Ma; Hei-Jen McLaury; Hua-Qin Pan; Omayma H. Sarhan; Steve Toth; Zhili Wang; Guozhong Zhang; Nora Heisterkamp; John Groffen; Bruce A. Roe
Journal of Biological Chemistry | 2005
Mariko Kudo; Ming Bao; Anil D'Souza; Fu Ying; Hua-Qin Pan; Bruce A. Roe; William M. Canfield
Genome Research | 2001
Tim Footz; Polly Brinkman-Mills; Graham S. Banting; Stephanie A. Maier; M.Ali Riazi; Lindsay Bridgland; Song Hu; Bruce Birren; Shinsei Minoshima; Nobuyoshi Shimizu; Hua-Qin Pan; Thuan Nguyen; Fang Fang; Ying Fu; Linda Ray; Hui Wu; Steve Shaull; Stacey Phan; Ziyun Yao; Feng Chen; Axin Huan; Ping Hu; Qiaoyan Wang; Phoebe Loh; Sulan Qi; Bruce A. Roe; Heather E. McDermid
Genomics | 2000
M.Ali Riazi; Polly Brinkman-Mills; Thuan Nguyen; Hua-Qin Pan; Stacey Phan; Fu Ying; Bruce A. Roe; Junko Tochigi; Yoshiko Shimizu; Shinsei Minoshima; Nobuyoshi Shimizu; Manuel Buchwald; Heather E. McDermid
Genomics | 1996
Myriam Peyrard; Hua-Qin Pan; Darek Kedra; Ingegerd Fransson; Sofie Swahn; Karen Hartman; Sandra W. Clifton; Bruce A. Roe; Jan P. Dumanski
Genomics | 1999
Eyal Seroussi; Darek Kedra; Maria Kost-Alimova; Ann-Christin Sandberg-Nordqvist; Ingegerd Fransson; Joannes F.M. Jacobs; Ying Fu; Hua-Qin Pan; Bruce A. Roe; Stephan Imreh; Jan P. Dumanski
Microbial Pathogenesis | 2001
Martin Levine; Ann Progulske-Fox; Nancy D. Denslow; William G. Farmerie; Douglas M. Smith; William T. Swearingen; Frederick C. Miller; Zemin Liang; Bruce A. Roe; Hua-Qin Pan