Literature DB >> 11602603

Human tryptase epsilon (PRSS22), a new member of the chromosome 16p13.3 family of human serine proteases expressed in airway epithelial cells.

G W Wong1, S Yasuda, M S Madhusudhan, L Li, Y Yang, S A Krilis, A Sali, R L Stevens.   

Abstract

Probing of the GenBank expressed sequence tag (EST) data base with varied human tryptase cDNAs identified two truncated ESTs that subsequently were found to encode overlapping portions of a novel human serine protease (designated tryptase epsilon or protease, serine S1 family member 22 (PRSS22)). The tryptase epsilon gene resides on chromosome 16p13.3 within a 2.5-Mb complex of serine protease genes. Although at least 7 of the 14 genes in this complex encode enzymatically active proteases, only one tryptase epsilon-like gene was identified. The trachea and esophagus were found to contain the highest steady-state levels of the tryptase epsilon transcript in adult humans. Although the tryptase epsilon transcript was scarce in adult human lung, it was present in abundance in fetal lung. Thus, the tryptase epsilon gene is expressed in the airways in a developmentally regulated manner that is different from that of other human tryptase genes. At the cellular level, tryptase epsilon is a major product of normal pulmonary epithelial cells, as well as varied transformed epithelial cell lines. Enzymatically active tryptase epsilon is also constitutively secreted from these cells. The amino acid sequence of human tryptase epsilon is 38-44% identical to those of human tryptase alpha, tryptase beta I, tryptase beta II, tryptase beta III, transmembrane tryptase/tryptase gamma, marapsin, and Esp-1/testisin. Nevertheless, comparative protein structure modeling and functional studies using recombinant material revealed that tryptase epsilon has a substrate preference distinct from that of its other family members. These data indicate that the products of the chromosome 16p13.3 complex of tryptase genes evolved to carry out varied functions in humans.

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Year:  2001        PMID: 11602603     DOI: 10.1074/jbc.M108677200

Source DB:  PubMed          Journal:  J Biol Chem        ISSN: 0021-9258            Impact factor:   5.157


  20 in total

1.  Tryptase haplotype in mastocytosis: relationship to disease variant and diagnostic utility of total tryptase levels.

Authors:  Cem Akin; Darya Soto; Erica Brittain; Adhuna Chhabra; Lawrence B Schwartz; George H Caughey; Dean D Metcalfe
Journal:  Clin Immunol       Date:  2007-04-20       Impact factor: 3.969

2.  Alternate mRNA splicing in multiple human tryptase genes is predicted to regulate tetramer formation.

Authors:  Nicole E Jackson; Hong-Wei Wang; Katherine J Bryant; H Patrick McNeil; Ahsan Husain; Ke Liu; Nicodemus Tedla; Paul S Thomas; Garry C King; Anusha Hettiaratchi; Jennifer Cairns; John E Hunt
Journal:  J Biol Chem       Date:  2008-10-14       Impact factor: 5.157

Review 3.  Development of mast cells and importance of their tryptase and chymase serine proteases in inflammation and wound healing.

Authors:  Jeffrey Douaiher; Julien Succar; Luca Lancerotto; Michael F Gurish; Dennis P Orgill; Matthew J Hamilton; Steven A Krilis; Richard L Stevens
Journal:  Adv Immunol       Date:  2014       Impact factor: 3.543

4.  High degree of conservation of the multigene tryptase locus over the past 150-200 million years of mammalian evolution.

Authors:  Jenny M Reimer; Paul B Samollow; Lars Hellman
Journal:  Immunogenetics       Date:  2010-04-10       Impact factor: 2.846

5.  Prostasin regulates epithelial monolayer function: cell-specific Gpld1-mediated secretion and functional role for GPI anchor.

Authors:  George M Verghese; Michael F Gutknecht; George H Caughey
Journal:  Am J Physiol Cell Physiol       Date:  2006-07-05       Impact factor: 4.249

6.  Transcriptome profiling and protease inhibition experiments identify proteases that activate H3N2 influenza A and influenza B viruses in murine airways.

Authors:  Anne Harbig; Marco Mernberger; Linda Bittel; Stephan Pleschka; Klaus Schughart; Torsten Steinmetzer; Thorsten Stiewe; Andrea Nist; Eva Böttcher-Friebertshäuser
Journal:  J Biol Chem       Date:  2020-04-17       Impact factor: 5.157

7.  Mutational tail loss is an evolutionary mechanism for liberating marapsins and other type I serine proteases from transmembrane anchors.

Authors:  Kavita Raman; Neil N Trivedi; Wilfred W Raymond; Rajkumar Ganesan; Daniel Kirchhofer; George M Verghese; Charles S Craik; Eric L Schneider; Shilpa Nimishakavi; George H Caughey
Journal:  J Biol Chem       Date:  2013-02-27       Impact factor: 5.157

8.  The glycosylphosphatidylinositol-anchored serine protease PRSS21 (testisin) imparts murine epididymal sperm cell maturation and fertilizing ability.

Authors:  Sarah Netzel-Arnett; Thomas H Bugge; Rex A Hess; Kay Carnes; Brett W Stringer; Anthony L Scarman; John D Hooper; Ian D Tonks; Graham F Kay; Toni M Antalis
Journal:  Biol Reprod       Date:  2009-07-01       Impact factor: 4.285

Review 9.  Active monomers of human beta-tryptase have expanded substrate specificities.

Authors:  Yoshihiro Fukuoka; Lawrence B Schwartz
Journal:  Int Immunopharmacol       Date:  2007-07-27       Impact factor: 4.932

10.  A novel serine protease predominately expressed in macrophages.

Authors:  Cailin Chen; Andrew L Darrow; Jian-Shen Qi; Michael R D'Andrea; Patricia Andrade-Gordon
Journal:  Biochem J       Date:  2003-08-15       Impact factor: 3.857

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