Abstract
Proteinase inhibitors of the serpin family have a unique ability to regulate their activity by changing the conformation of their reactive-centre loop. Although this may explain their evolutionary success, the dependence of function on structural mobility makes the serpins vulnerable to the effects of mutations. Here, we describe how studies of dysfunctional variants, together with crystal structures of serpins in different forms, provide insights into the molecular functions and remarkable folding properties of this family. In particular, comparisons of variants affecting different serpins allow us to define the domains which control this folding and show how spontaneous but inappropriate changes in conformation cause diverse diseases.
This is a preview of subscription content, access via your institution
Access options
Subscribe to this journal
Receive 12 print issues and online access
$189.00 per year
only $15.75 per issue
Buy this article
- Purchase on Springer Link
- Instant access to full article PDF
Prices may be subject to local taxes which are calculated during checkout
References
Travis, J. & Salvesen G S. Human plasma proteinase inhibitors. A. Rev. Biochem. 52: 655–709.
Carrell, R.W. & Boswell, D.R. Serpins: the superfamily of plasma serine proteinase inhibitors. In Proteinase Inhibitors (Eds Barrett, A. & Salvesen, G.), 403–419, (Elsevier Biomedical Press, Amsterdam; (1986).
Huber, R. & Carrell, R.W. Implications of the three-dimensional structure of α1-antitrypsin for structure and function of serpins. Biochemistry 28 8951–8966.
Schulze, A.J., Huber, R., Bode, W. & Engh, R.A. Structural aspects of serpin inhibition. FEBS Letts. 344 117–124. (1994).
Potempa, J., Korzus, E. & Travis, J. The serpin family of proteinase inhibitors: structure function and regulation. J. biol. Chem. 269, 15957–15960.
Loebermann, H., Tokuoka, R., Deisenhofer, J. & Huber, R. Human α1-proteinase inhibitor: crystal structure analysis of two crystal modifications, molecular model, and preliminary analysis of the implications for function. J. molec. Biol. 177, 531–556 (1984).
Stein, P. & Chothia, C. Serpin tertiary structure transformation. J. molec. Biol. 221, 615–621 (1991).
Wright, H.T., Qian, H. X. & Huber, R. Crystal structure of plakalbumin, a proteolytically nicked form of ovalbumin. Its relationship to the structure of cleaved α1-proteinase inhibitor. J. molec. Biol. 213, 513–528 (1990).
Stein, P.E. et al. Crystal structure of ovalbumin as a model for the reactive centre of serpins. Nature 347, 99–102 (1990).
Wei, A., Rubin, H., Cooperman, B.S. & Christianson, D.W. Crystal structure of an uncleaved serpin reveals the conformation of an inhibitory reactive loop. Nature struct. Biol. 1, 251–258 (1994).
Perry, D.J. et al. Antithrombin Cambridge II, 384 Ala to Ser. Further evidence of the role of the reactive centre loop in the inhibitory function of the serpins. FEBS Letts. 285, 248–250 (1991).
Skriver, K. et al. Substrate properties of the C1 inhibitor Ma (alanine 434 → glutamic acid). J. biol. Chem. 266, 9216–9221 (1991).
Mast, A.E., Enghild, J.J., Pizzo, S.V. & Salvesen, G. Analysis of the plasma elimination kinetics and conformational stabilities of native, proteinase-complexed, and reactive site cleaved serpins: comparison of α1-proteinase inhibitor, α1-antichymotrypsin, antithrombin III, α2-antiplasmin, angiotensinogen and ovalbumin. Biochemistry 30, 1723–1730 (1991).
Schulze, A.J. et al. Structural transition of α1-antitrypsin by a peptide sequentially similar to β-strand s4A. E. J. Biochem. 194, 51–56 (1990).
Carrell, R.W., Evans, D.L. & Stein, P.E. Mobile reactive centre of serpins and the control of thrombosis. Nature 353, 576–578 (1991).
Schreuder, H.A. et al. The intact and cleaved human antithrombin III complex as a model for serpin-proteinase interactions. Nature struct. Biol. 1, 48–54 (1994).
Carrell, R.W., Stein, P.E., Fermi, G. & Wardell, M.R. Biological implications of a 3 Å structure of dimeric antithrombin. Structure 2, 257–270 (1994).
Björk, I, Nordling, K & Olson, S.T. Immunological evidence for insertion of the reactive-bond loop of antithrombin into the A beta-sheet of the inhibitor during trapping of target proteinases. Biochemistry 32, 6501–6505 (1993).
Eldering, E., Verpy, E., Roem, D., Meo, T. and Tosi, M. C-terminal substitutions in the serpin C1-inhibitor that cause loop overinsertion and subsequent multimerization. J biol Chem. In the press. (1995).
Chang, W.-S.W., Whisstock, J., Carrell, R.W. & Wardell, M.R. The mechanism of antithrombin polyerization; a pathological process. Blood 84 (Suppl. 1) 391a (1994).
Mast, A.E., Enghild, J.J. & Sawesen, G. Conformation of the reactive site loop at α1-proteinase inhibitor probed by limited proteolysis. Biochemistry 31 2720–2728 (1992).
Mottonen, J. et al. Structural basis for latency in plasminogen activator inhibitor-1. Nature 355, 270–273 (1992).
Lomas, D.A., Evans, D.Ll., Finch, J.T. & Carrell, R.W. The mechanism of Z α1-antitrypsin accumulation in the liver. Nature 357, 605–607 (1992).
Devraj-Kizuk, R. et al. Antithrombin Ill-Hamilton: a gene with a point mutation (guanine to adenine) in codon 382 causing impaired serine protease activity. Blood 72, 1518–1523 (1988).
Perry, D.J., Harper, P.L., Fairham, S., Daly, M. & Carrell, R.W., Antithrombin Cambridge, 384 Ala to Pro: a new variant identified using the polymerase chain reaction. FEBS Letts 254, 174–176 (1989).
Siddique, Z.M., McPhaden, A.R. & Whaley, K. Identification of type II hereditary angio-oedema (HAE) mutations. Clin. exp. Immunol. 86, 11 (1991).
Levy, N.L., Ramesh, N., Cicardi, M., Harrison, R.A. & Davis, A.E. Type II hereditary angioneurotic edema that may result from a single nucleotide change in the codon for alanine-436 in the C1 inhibitor gene. Proc. natn. Acad. Sci. U.S.A. 87, 265–268 (1990).
Aulak, K.S. et al. A hinge region mutation in C1-inhibitor (Ala436 → Thr) results in non-substrate-like behaviour and in polymerisation of the molecule. J. biol. Chem. 268, 18088–18094 (1993).
Davis, A.E. et al. C1 inhibitor hinge region mutations produce dysfunction by different mechanisms. Nature genet. 1, 354–358 (1992).
Hopkins, P.C.R., Carrell, R.W. & Stone, S.R. Effects of mutations in the hinge region of serpins. Biochemistry 32, 7650–7657.
Hood, D.B., Huntington, J.A. & Gettins, P.G.W. Alpha(1) proteinase inhibitor variant T345R influence of P14 residue on substrate and inhibitory pathways. Biochemistry 33, 8538–8547 (1994).
Lawrence, D.A., Olson, S.T., Palaniappan, S. & Ginsburg, D. Serpin reactive-centre loop mobility is required for inhibitor function but not for enzyme recognition. J.biol.Chem. In the press.
Verpy, E. et al. Crucial residues in the carboxy-terminal end of C1-inhibitor revealed by pathogenic mutants impaired in secretion or function. J.clin.Invest. In the press.
Dawes, J., James, K. & Lane, D.A. Conformational change in antithrombin induced by heparin, probed with a monoclonal antibody against the 1C/4B region. Biochemistry 33, 4375–4383 (1994).
Tucker, H.M., Mottonen, J., Goldsmith, E.J. & Gerard, R.D. The structural basis of latency in PAI-1. Fibrinolysis 8, 17, Abs. 47 (1994).
Lane, D.A. et al. Pleiotropic effects of antithrombin strand s1C substitution mutations. J clin. Invest. 90, 2422–2433 (1992).
Laurell, C.-B. & Eriksson, S. The electrophoretic α1-globulin pattern of serum in α1-antitrypsin deficiency Scand. J. clin. lab. Invest. 15, 132–140 (1963).
Jeppsson, J.-O. Amino-acid substitution Glu → Lys in a1-antitrypsin Piz. FEBS Letts 65, 195–197 (1976).
Bruce, D., Perry, D.J., Borg, J.-Y., Carrell, R.W. & Wardell, M.R. A thermolabile antithrombin variant associated with thromboembolic disease: Rouen-VI (187Asn->Asp). J. clin. Invest. 94, 2265–2274 (1994).
Madison, E.L. Studies of serpins unfold at a feverish pace. J. clin. Invest. 94, 2174–2175. (1994).
Lomas, D.A., Finch, J.T., Seyama, K., Nukiwa, T. & Carrell, R.W. a1-antitrypsin Siiyama (Ser53 → Phe). Further evidence for intracellular loop-sheet polymerisation. J. biol. Chem. 268, 15333–15335 (1993).
Graham, A. et al. Molecular characterisation of three alpha-1-antitrypsin deficiency variants: proteinase inhibitor (Pi) nullcardiff (Asp256 → Val); Pi Mmmalton (Phe51 → deletion) and Pi I (Arg39 → Cys). Hum. Genet. 84, 55–58 (1989).
Frazier, G.C., Harrold, T.R., Hofker, M.H. & Cox, D.W. In-frame single codon deletion in the Mmalton deficiency allele of α1-antitrypsin. Am. J. hum. Genet. 44, 894–902 (1989).
Seyama, K. et al. Siiyama (Serine 53 (TCC) to phenylalanine 53 (TCC)). J. biol. Chem. 266, 12627–12632 (1991).
Kwon, K.S., Kim, J., Shin, H.S. & Yu, M.H. Single amino acid substitutions of α1-antitrypsin that confer enhancement in thermal stability. J. biol. Chem. 269 1–5.
Lomas, D.A. et al. Effect of the Z mutation on the physical and inhibitory properties of α1-antitrypsin. Biochemistry 32, 500–508 (1993).
Le, A., Graham, K.S. & Sifers, R.N. Intracellular degradation of the transport impaired human P1Z α1-antitrypsin variant. J.biol.Chem. 265 14001–14007 (1990).
Davis, A.E., Bissler, J.J. & Cicardi, M. Mutations in the C1 inhibitor gene that result in hereditary angioneurotic edema. Behring Inst. Mitt. 93, 313–320 (1993).
Erdjument, H., Lane, D.A., Panico, M., Di Marzo, V. & Morris, H.R. Single amino acid substitution in the reactive site of antithrombin leading to thrombosis. J. biol. Chem. 263, 5589–5593 (1988).
Lane, D.A. et al. A novel amino acid substitution in the reactive site of a congenital variant antithrombin. J. biol. Chem. 264, 10200–10204 (1989).
Owen, M.C., Brennan, S.O., Lewis, J.H. & Carrell, R.W. Mutation of antitrypsin to antithrombin. New Engl. J. Med. 309, 694–698 (1983).
Olson, S.T. & Björk, I. Regulation of thrombin by antithrombin and heparin cofactor II. In: Thrombin Structure and Function. ( L.J., Berliner, ed). 159–217 (Plenum Press, New York; (1992).
Björk, I., Ylinenjârvi, K., Olson, S.T. and Bock, P.E. Conversion of antithrombin from an inhibitor of thrombin to a substrate with reduced heparin affinity and enhanced conformational stability by binding of a tetradecapeptide corresponding to the P1 to P14 region of the putative reactive bond loop of the inhibitor. J. biol Chem. 267 1976–1982 (1992).
Borg, J.-Y. et al. Antithrombin Rouen-IV 24 Arg → Cys. The amino-terminal contribution to heparin binding. FEBS Letts 266, 163–166 (1990).
Koide, T., Odani, S., Takahashi, K., Ono, T. & Sakuragawa, N. Antithrombin III Toyama: replacement of arginine-47 by cysteine in hereditary abnormal antithrombin III that lacks heparin-binding ability. Proc. natn. Acad. Sci. U.S.A. 81, 289–293 (1984).
Owen, M.C. et al. Heparin binding defect in a new antithrombin III variant: Rouen, 47 Arg to His. Blood 69, 1275–1279 (1987).
Borg, J.-Y. et al. Arginine 47 is a prime heparin binding site in antithrombin. A new variant Rouen II, 47 Arg to Ser. J. clin. Invest. 81, 1292–1296 (1988).
Gandrille, S. et al. Important role of Arginine 129 in heparin-binding site of antithrombin III. J. biol. Chem. 265, 18997–19001 (1990).
Chang, J. & Tran, T. Antithrombin III Basel. Identification of a Pro-Leu substitution in a hereditary abnormal antithrombin with impaired heparin cofactor activity. J. biol. Chem. 261, 1174–1176 (1986).
Olds, R.J. et al. Antithrombin Budapest 3: an antithrombin variant with reduced heparin affinity resulting from the substitution L99F. FEBS Letts 300, 241–246 (1992).
Chowdhury, V. et al. Two novel antithrombin variants (L99V and Q118P) which alter the heparin binding domain. Nouvelle Revue Française d'Hématologie 36, 268 (1994).
Okajima, K. et al. Antithrombin III Nagasaki (Seri 16-Pro): a heterozygous variant with defective heparin binding associated with thrombosis. Blood 81, 1300–1305 (1993).
Brennan, S.O. et al. New carbohydrate site in mutant antithrombin (7lle-Asn) with decreased heparin affinity. FEBS Letts 237, 118–122 (1988).
Blinder, M.A., Andersson, T.R., Abildgaard, U. & Tollefsen, D.M. Heparin cofactor IIoslo: mutation of Arg 189 to His decreases the affinity for dermatan sulfate. J. biol. Chem. 264, 5128–5133 (1989).
Owen, M.C., Beresford, C.H. & Carrell, R.W., Antithrombuin Glasgow 393 Arg to His: a P1 reactive site variant with increased heparin affinity but no thrombin inhibitory activity. FEBS Lett. 231, 317–320 (1988).
Van Boeckel, C.A.A., Grootenhuis, P.D.J. & Visser, A. A mechanism for heparin-induced potentiation of antithrombin III. Nature struct. Biol. 1, 423–425 (1994).
Owen, M.C. & Carrell, R.W. Alpha-1-antitrypsin: molecular abnormality of S variant. Brit. med. J. 1, 130–131 (1976).
Takahashi, H. et al. Identification and molecular analysis of a new variant of α1-antitrypsin characterised by marked reduction of serum levels. Am. Rev. resp. Dis. 135, A292 (1987).
Takahashi, H. et al. Characterisation of the gene and protein of the α1-antitrypsin ‘deficiency’ allele Mprocida . J. biol. Chem. 263, 15528–25534 (1988).
Poller, W. et al. A leucine-to-proline substitution causes a defective α1 antichymotrypsin allele associated with familial obstructive lung disease. Genomics 17, 740–743 (1993).
Kramps, J.A., Brouwers, J.W., Maesen, F. & Dijkman, J.H. PiMheerlen, a PiM allele resulting in very low α1-antitrypsin serum levels. Hum. Genet. 59, 104–107 (1981).
Hofker, M.H. et al. A Pro → Leu substitution in codon 369 in the alpha-1-antitrypsin deficiency variant PIM-Heerlen. Am. J. hum. Genet. 41, A220 (1987).
Olds, R.J., Lane, D.A. & Caso, R. Antithrombin III Budapest: a single amino acid substitution (429 Pro to Leu) in a region highly conserved in the serpin family. Blood 79, 1206–1212 (1992).
Curiel, D.T., Vogelmeier, C., Hubbard, R.C., Stier, L.E. & Crystal, R.G. Molecular basis of α1-antitrypsin deficiency and emphysema associated with the α1-antitrypsin Mmineral springs allele. Molec. cell. Biol. 10, 47–56 (1990).
Frazier, G.C., Siewertsen, M.A., Hofker, M.H., Brubacher, M.G. & Cox, D.W. Identification of a new α1-antitrypsin null allele, PI*QOIudwigshafen. Am. J. hum. Genet. 45, Abstract 729 (1989).
Holmes, M.D., Brantly, M.L., Fells, G.A. & Crystal, R.G. α-1-Antitrypsin Wbethesda: molecular basis of an unusual α1-antitrypsin deficiency variant. Biochem. biophys. Res. Commun. 170, 1013–1020 (1990).
Parad, R.B., Kramer, J., Strunk, R.C., Rosen, F.S. & Davis, A.E. Dysfunctional C1 inhibitor Ta: deletion of Lys-251 results in aquisition of an N-glycosylation site. Proc. natn. Acad. Sci. U.S.A. 87, 6786–6790 (1990).
Curiel, D., Brantly, M., Curiel, E., Stier, L. & Crystal, R. α1-Antitrypsin deficiency caused by α1 -antitrypsin Null mattawa: an insertion mutation rendering the α1-antitrypsin gene incapable of producing a1 -antitrypsin. Am. Rev. resp. Dis. 137, 210 (1988).
Nukiwa, T., Takahashi, H., Brantly, M., Courtney, M. & Crystal, R.G. α1-Antitrypsin NullGranite Falls, a non-expressing α1-antitrypsin gene associated with a frameshift to stop mutation in a coding exon. J. biol. Chem. 262, 11999–12004 (1987).
Sifers, R.N., Brashears-Macatee, S., Kidd, V.J., Muensch, H. & Woo, S.L.C. A frameshift mutation results in a truncated α1-antitrypsin that is retained within the rough endoplasmic reticulum. J. biol. Chem. 263, 7330–7335 (1988).
Crystal, R.G. α1-Antitrypsin deficiency, emphysema, and liver disease. Genetic basis and strategies for therapy. J. clin. Invest. 85, 1343–1352 (1990).
Olds, R.J., Lane, D.A. & Ireland, H. Novel point mutations leading to type I antithrombin deficiency and thrombosis. Br. J. Haematol. 78, 408–413 (1991).
Satoh, K. et al. Emphysema associated with complete absence of α1-antitrypsin of a stop codon in an α1-antitrypsin-coding gene. Am. J. Hum. Genet. 42, 77–83 (1988).
Jeunemaitre, X. et al. Molecular basis of human hypertension: role of angiotensinogen. Cell 71, 169–180 (1992).
Ward, K. et al. A molecular variant of angiotensinogen associated with preeclampsia. Nature genet. 4, 59–61 (1993).
Jarvis, J.A., Munro, S.L.A. & Craik, D.J. The thyroid hormone binding site of thyroxine binding globulin. Prot. Engng. 5, 61–67 (1992).
Terry, C.J. & Blake, C.C.F. Comparison of the modelled thyroxine binding site in TBG with the experimentally determined site in transthyretin. Prot. Engng. 5, 505–510 (1992).
Takeda, K. et al. Sequence of the variant thyroxine-binding globulin of Australian aborigines. J. clin. Invest. 83, 1344–1348 (1989).
Murata, Y., Takamatsu, J. & Refetoff, S. Inherited abnormality of thyroxine binding globulin with no demonstrable thyroxine binding activity and high serum levels of denatured thyroxine binding globulin. New Engl. J. Med. 314, 694–699 (1986).
Van Baelen, H., Brepoels, R. & De Moor, P., Transcortin Leuven: a variant of human corticosteroid-binding-globulin with decreased cortisol-binding affinity. J. biol. Chem. 257, 3393–3400 (1982).
Smith, C.L., Power, S.G.A. & Hammond, G.L. A Leu → His substitution at residue 93 in human corticosteroid binding globulin results in reduced affinity for cortisol. J. steroid Biochem. 42, 671–676 (1993).
Van Baelen, H., Power, S.G.A. & Hammond, G.L. Decreased cortisol-binding affinity of transcortin Leuven is associated with an amino acid substitution at residue-93. Steroids 58, 275–277 (1993).
Daly, M. et al. Antithrombin Dublin (-3Val → Glu): an N-terminal variant which has an aberrant signal peptidase cleavage site. FEBS Letts 273, 87–90 (1990).
Graham, A., Kalsheker, N.A., Bamforth, F.J., Newton, C.R. & Markham, A.F. Molecular characterisation of two alpha-1 -antitrypsin deficiency variants: proteinase inhibitor (Pi) NullNewport (Gly115 → Ser) and (Pi) Z Wrexham (Ser−19 → Leu). Hum. Genet. 85, 537–540 (1990).
Chowdhury et al. Identification of nine novel mutations in type I antithrombin deficiency by heteroduplex screening. Brit. J. Haematol. 84, 656–661 (1993).
Lane, D.A. et al. Antithrombin III mutation database: first update. Thromb. Haemost. 70, 361–369 (1993).
Van Boven, H.H. et al. Molecular basis and mortality in Dutch type 1 antithrombin deficiency families. Nouvelle Revue Française d'Hématologie 36, 277–278 (1994).
Matsunaga, E. et al. Molecular analysis of the gene of the α1-antitrypsin deficiency variant, Mnichinan. Am. J. hum. Genet. 46, 602–612 (1990).
Millar, D.S. et al. Three novel missense mutations in the antithrombin III (AT3) gene causing recurrent venous thrombosis. Hum. Genet. 94, 509–512.
Faber, J.-P. et al. The molecularbasisof α1-antichymotrypsin deficiency in a heterozygote with liver and lung disease. J. Hepatology 18, 313–321 (1993).
Holmes, M.D., Brantly, M.L. & Crystal, R.G. Molecular analysis of the heterogeneity among the P-family of alpha-1 -antitrypsin alleles. Am. Rev. resp. Dis. 142, 1185–1192 (1990).
Grundy, C.B., Holding, S., Millar, D.S., Kakkar, V.V. & Cooper, D.N. A novel missense mutation in the antithrombin III gene (Ser 349 to Pro) causing recurrent venous thrombosis. Hum. Genet. 88, 707–708 (1992).
Holmes, W.E. et al. α2-Antiplasmin Enschede: alanine insertion and abolition of plasmin inhibitory activity. Science 238, 209–211 (1987).
White, D., Abraham, G., Carter, C., Kakkar, V.V. & Cooper, D.N. A novel missense mutation in the antithrombin III gene (Ala 387 to Val) causing recurrent venous thrombosis. Hum. Genet. 90, 472–473 (1992).
Blajchman, M.A., Austin, R.C., Fernandez, R.F. & Sheffield, W.P. Molecular basis of inherited human antithrombin deficiency. Blood 80, 2159–2171 (1992).
Aulak, K.S. et al. Dysfunctional C1-inhibitor (At), isolated from a type II hereditary-angio-oedema plasma, contains a P1 ‘reactive centre’ (Arg444 → His) mutation. Biochem. J. 253, 615–618 (1988).
Skriver, K., Radziejewska, E., Silberman, J.A., Donaldson, V.H. & Bock, S.C. Mutations in a CpG dinucleotide change reactive site arginine-444 to cysteine in dysfunctional C1 inhibitor Da and histidine in dysfunctional C1 inhibitor Ri. J biol. Chem. 264, 3066–3071 (1989).
Aulak, K.S., Cicardi, M. & Harrison, R.A. Identification of a new P1 residue mutation (Arg444 → Ser) in a dysfunctional C1 inhibitor contained in a type II hereditary angioedema plasma. FEBS Letts 226, 13–16 (1990).
Frangi, D., Aulak, K.S., Cicardi, M., Harrison, R.A. & Davis, A.E. III.A dysfunctional C1 inhibitor protein with a new reactive center mutation (Arg-444 → Leu). FEBS Letts 301, 34–36 (1992).
Stephens, A.W., Thalley, B.S. & Hirs, C.H.W., Antithrombin -III Denver, a reactive site variant. J. biol. Chem. 262, 1044–1048 (1987).
Bock, S.C., Silberman, J.A., Wikoff, W., Abildgaard, U. & Hultin, M.B. Identification of a threonine for alanine substitution at residue 404 of antithrombin III Oslo suggests integrity of the 404-407 region is important for maintaining normal inhibitor levels. Thromb. Haemost. 62, 494 (1989).
Nakagawa, M., Tanaka, S., Tsuji, H., Takada, O. & Ono, T. Congenital antithrombin deficiency (AT-111 Kyoto): identification of a point mutation altering arginine-406 to methionine behind the reactive site. Thromb. Res. 64, 101–108 (1991).
Bock, S.C., Marrinan, J.A. & Radziejewska, E. Antithrombin III Utah: proline 407 to leucine mutation in a highly conserved region near the inhibitor reactive site. Biochemistry 27, 6171–6178 (1988).
Jochmans, K. et al. Antithrombin-Gly 424 Arg: a novel point mutation responsible for type 1 antithrombin deficiency and neonatal thrombosis. Blood 83, 146–151 (1994).
Millar, D.S. et al. Screening for mutations in the antithrombin III gene causing recurrent venous thrombosis by single-strand conformation polymorphism analysis. Hum. Mutat. 2, 324–326 (1993).
Kraulis, P. MOLSCRIPT: a program to produce both detailed and schematic plots of poteins. J. appl. Crystallogr. 24, 946–950 (1991).
Nicholls, A. GRASP: Graphical Representation and Analysis of Surface Properties. Colombia University, New York (1992).
Tait, R.C. et al. Prevalence of antithrombin deficiency in the healthy population. Br. J. Haemal 87, 106–112 (1994)
Author information
Authors and Affiliations
Rights and permissions
About this article
Cite this article
Stein, P., Carrell, R. What do dysfunctional serpins tell us about molecular mobility and disease?. Nat Struct Mol Biol 2, 96–113 (1995). https://doi.org/10.1038/nsb0295-96
Received:
Accepted:
Issue Date:
DOI: https://doi.org/10.1038/nsb0295-96
This article is cited by
-
Recombinant antithrombin attenuates acute kidney injury associated with rhabdomyolysis: an in vivo animal study
Intensive Care Medicine Experimental (2024)
-
Neuroserpin, a crucial regulator for axogenesis, synaptic modelling and cell–cell interactions in the pathophysiology of neurological disease
Cellular and Molecular Life Sciences (2022)
-
Deep mutational scanning of the plasminogen activator inhibitor-1 functional landscape
Scientific Reports (2021)
-
High-resolution ex vivo NMR spectroscopy of human Z α1-antitrypsin
Nature Communications (2020)
-
Characterization and expression profiling of serine protease inhibitors in the diamondback moth, Plutella xylostella (Lepidoptera: Plutellidae)
BMC Genomics (2017)