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Volume 271, Number 16, Issue of April 19, 1996 pp. 9307-9312
©1996 by The American Society for Biochemistry and Molecular Biology, Inc.
Genomic Cloning and Characterization of the Human Thrombin Receptor Gene
STRUCTURAL SIMILARITY TO THE PROTEINASE ACTIVATED RECEPTOR-2 GENE

(Received for publication, October 10, 1995; and in revised form, December 18, 1995)

Valentina A. Schmidt Emilia Vitale Wadie F. Bahou

The seven-transmembrane segment thrombin receptor (TR) represents the prototype of a putative family of proteolytically cleaved receptors that may include the proteinase activated receptor-2. A panel of somatic cell hybrids retaining distinct portions of human chromosome 5 were used to establish that the human TR gene is present as a single-copy locus within the region 5q11.2 q13.3, confirming our previous localization using fluorescent in situ hybridization analysis. To further characterize the TR gene, overlapping clones from a human genomic library were isolated. Genomic analysis confirmed that the TR gene is of limited complexity, spanning 27 kilobases and containing two exons separated by a large 22-kilobase intron. The larger second exon contains the majority of the coding sequence and the thrombin cleavage site, remarkably similar to the organization of the proteinase activated receptor-2 gene in which the putative cleavage site is also contained within the large second exon. Primer extension analysis using two 30-mer oligonucleotide primers known to be contained within the first exon identified the predominant transcription initiation site 351 base pairs upstream from the initiator methionine in both human umbilical vein endothelial and human erythroleukemia cells. Sequence analysis of the 5`-flanking region revealed the TR promoter to be TATA-less, although nucleic acid motifs potentially involved in transcriptional gene regulation were evident and include a GATA motif, octamer enhancer sequences, AP-2-like sites, and Sp1 sites. These data provide evidence for remarkable similarity at the gene level between both proteolytically cleaved receptors described to date.




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