Literature DB >> 11567102

Origin of fibronectin type II (FN2) modules: structural analyses of distantly-related members of the kringle family idey the kringle domain of neurotrypsin as a potential link between FN2 domains and kringles.

O A Ozhogina1, M Trexler, L Bányai, M Llinás, L Patthy.   

Abstract

Analysis of complete genome sequences has made it clear that fibronectin type II (FN2) modules are present only in the vertebrate lineage, raising intriguing questions about the origin of this module type. Kringle domains display many similarities to FN2 domains; therefore it was suggested previously that they are highly divergent descendants of the same ancestral protein-fold. Since kringles are present in arthropodes, nematodes, and invertebrate chordates as well as in vertebrates, it is suggested that the FN2 domain arose in the vertebrate lineage through major structural modification of the more ancestral kringle fold. To explore this structural transition, in the present work we compare key structural features of two highly divergent kringle domains (the kringle of Caenorhabditis elegans Ror receptor tyrosine kinase and the kringle of rat neurotrypsin) with those of plasminogen kringles and FN2 domains. Our NMR conformation fingerprinting analysis indicates that characteristic (1)H-NMR markers of kringle or FN2 native folding, such as the dispersion of Trp aromatic connectivities and shifts of the Leu(46)/Thr(16) methyl signals, both decrease in the order kringles > neurotrypsin kringle > FN2 domains. These results suggest that the neurotrypsin kringle may represent an intermediate form between typical kringles and FN2 domains.

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Year:  2001        PMID: 11567102      PMCID: PMC2374232          DOI: 10.1110/ps.15801

Source DB:  PubMed          Journal:  Protein Sci        ISSN: 0961-8368            Impact factor:   6.725


  63 in total

1.  Cloning and expression of human tissue-type plasminogen activator cDNA in E. coli.

Authors:  D Pennica; W E Holmes; W J Kohr; R N Harkins; G A Vehar; C A Ward; W F Bennett; E Yelverton; P H Seeburg; H L Heyneker; D V Goeddel; D Collen
Journal:  Nature       Date:  1983-01-20       Impact factor: 49.962

2.  Kringles: modules specialized for protein binding. Homology of the gelatin-binding region of fibronectin with the kringle structures of proteases.

Authors:  L Patthy; M Trexler; Z Váli; L Bányai; A Váradi
Journal:  FEBS Lett       Date:  1984-06-04       Impact factor: 4.124

3.  Folding autonomy of the kringle 4 fragment of human plasminogen.

Authors:  M Trexler; L Patthy
Journal:  Proc Natl Acad Sci U S A       Date:  1983-05       Impact factor: 11.205

4.  The primary structure of high molecular mass urokinase from human urine. The complete amino acid sequence of the A chain.

Authors:  W A Günzler; G J Steffens; F Otting; S M Kim; E Frankus; L Flohé
Journal:  Hoppe Seylers Z Physiol Chem       Date:  1982-10

5.  Solution structure of the kringle domain from urokinase-type plasminogen activator.

Authors:  X Li; A M Bokman; M Llinás; R A Smith; C M Dobson
Journal:  J Mol Biol       Date:  1994-02-04       Impact factor: 5.469

6.  Primary structure of PDC-109, a major protein constituent of bovine seminal plasma.

Authors:  F S Esch; N C Ling; P Böhlen; S Y Ying; R Guillemin
Journal:  Biochem Biophys Res Commun       Date:  1983-06-29       Impact factor: 3.575

7.  The lysine binding sites of human plasminogen. Evidence for a critical tryptophan in the binding site of kringle 4.

Authors:  S M Hochschwender; R A Laursen
Journal:  J Biol Chem       Date:  1981-11-10       Impact factor: 5.157

8.  DNA sequencing with chain-terminating inhibitors.

Authors:  F Sanger; S Nicklen; A R Coulson
Journal:  Proc Natl Acad Sci U S A       Date:  1977-12       Impact factor: 11.205

9.  A 1H-NMR study of isolated domains from human plasminogen. Structural homology between kringles 1 and 4.

Authors:  M Llinas; A De Marco; S M Hochschwender; R A Laursen
Journal:  Eur J Biochem       Date:  1983-10-03

10.  SEL1L, the human homolog of C. elegans sel-1: refined physical mapping, gene structure and identification of polymorphic markers.

Authors:  I Biunno; L Bernard; P Dear; M Cattaneo; S Volorio; L Zannini; A Bankier; M Zollo
Journal:  Hum Genet       Date:  2000-02       Impact factor: 4.132

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  7 in total

1.  Differential mitogenic effects of single chain hepatocyte growth factor (HGF)/scatter factor and HGF/NK1 following cleavage by factor Xa.

Authors:  Peter Pediaditakis; Satdarshan P S Monga; Wendy M Mars; George K Michalopoulos
Journal:  J Biol Chem       Date:  2002-02-06       Impact factor: 5.157

2.  NMR solution structure of the neurotrypsin Kringle domain.

Authors:  Olga A Ozhogina; Alexander Grishaev; Emile L Bominaar; László Patthy; Maria Trexler; Miguel Llinás
Journal:  Biochemistry       Date:  2008-11-25       Impact factor: 3.162

3.  Characterization of the kringle fold and identification of a ubiquitous new class of disulfide rotamers.

Authors:  Olga A Ozhogina; Emile L Bominaar
Journal:  J Struct Biol       Date:  2009-06-12       Impact factor: 2.867

4.  The evolution of vertebrate blood coagulation as viewed from a comparison of puffer fish and sea squirt genomes.

Authors:  Yong Jiang; Russell F Doolittle
Journal:  Proc Natl Acad Sci U S A       Date:  2003-06-13       Impact factor: 11.205

Review 5.  Platyhelminth Venom Allergen-Like (VAL) proteins: revealing structural diversity, class-specific features and biological associations across the phylum.

Authors:  Iain W Chalmers; Karl F Hoffmann
Journal:  Parasitology       Date:  2012-05-02       Impact factor: 3.234

6.  A planarian nidovirus expands the limits of RNA genome size.

Authors:  Amir Saberi; Anastasia A Gulyaeva; John L Brubacher; Phillip A Newmark; Alexander E Gorbalenya
Journal:  PLoS Pathog       Date:  2018-11-01       Impact factor: 6.823

7.  Miguel Llinás and the Structure of the Kringle Fold.

Authors:  Laszlo Patthy
Journal:  Protein J       Date:  2021-03-31       Impact factor: 2.371

  7 in total

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