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PDBsum entry 1ffb
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Hydrolase (serine esterase)
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PDB id
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1ffb
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* Residue conservation analysis
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Enzyme class:
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E.C.3.1.1.74
- cutinase.
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Reaction:
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cutin + H2O = cutin monomers
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DOI no:
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Biochemistry
35:398-410
(1996)
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PubMed id:
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Contribution of cutinase serine 42 side chain to the stabilization of the oxyanion transition state.
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A.Nicolas,
M.Egmond,
C.T.Verrips,
J.de Vlieg,
S.Longhi,
C.Cambillau,
C.Martinez.
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ABSTRACT
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Cutinase from the fungus Fusarium solani pisi is a lipolytic enzyme able to
hydrolyze both aggregated and soluble substrates. It therefore provides a
powerful tool for probing the mechanisms underlying lipid hydrolysis. Lipolytic
enzymes have a catalytic machinery similar to those present in serine
proteinases. It is characterized by the triad Ser, His, and Asp (Glu) residues,
by an oxyanion binding site that stabilizes the transition state via hydrogen
bonds with two main chain amide groups, and possibly by other determinants. It
has been suggested on the basis of a covalently bond inhibitor that the cutinase
oxyanion hole may consist not only of two main chain amide groups but also of
the Ser42 O gamma side chain. Among the esterases and the serine and the
cysteine proteases, only Streptomyces scabies esterase, subtilisin, and papain,
respectively, have a side chain residue which is involved in the oxyanion hole
formation. The position of the cutinase Ser42 side chain is structurally
conserved in Rhizomucor miehei lipase with Ser82 O gamma, in Rhizopus delemar
lipase with Thr83 O gamma 1, and in Candida antartica B lipase with Thr40 O
gamma 1. To evaluate the increase in the tetrahedral intermediate stability
provided by Ser42 O gamma, we mutated Ser42 into Ala. Furthermore, since the
proper orientation of Ser42 O gamma is directed by Asn84, we mutated Asn84 into
Ala, Leu, Asp, and Trp, respectively, to investigate the contribution of this
indirect interaction to the stabilization of the oxyanion hole. The S42A
mutation resulted in a drastic decrease in the activity (450-fold) without
significantly perturbing the three-dimensional structure. The N84A and N84L
mutations had milder kinetic effects and did not disrupt the structure of the
active site, whereas the N84W and N84D mutations abolished the enzymatic
activity due to drastic steric and electrostatic effects, respectively.
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Literature references that cite this PDB file's key reference
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PubMed id
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Reference
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L.Mandrich,
V.Menchise,
V.Alterio,
G.De Simone,
C.Pedone,
M.Rossi,
and
G.Manco
(2008).
Functional and structural features of the oxyanion hole in a thermophilic esterase from Alicyclobacillus acidocaldarius.
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Proteins,
71,
1721-1731.
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PDB code:
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M.P.Nyon,
D.W.Rice,
J.M.Berrisford,
H.Huang,
A.J.Moir,
C.J.Craven,
S.Nathan,
N.M.Mahadi,
and
F.D.Abu Bakar
(2008).
Crystallization and preliminary X-ray analysis of recombinant Glomerella cingulata cutinase.
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Acta Crystallogr Sect F Struct Biol Cryst Commun,
64,
504-508.
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Y.S.Yun,
W.Lee,
S.Shin,
B.H.Oh,
and
K.Y.Choi
(2006).
Arg-158 is critical in both binding the substrate and stabilizing the transition-state oxyanion for the enzymatic reaction of malonamidase E2.
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J Biol Chem,
281,
40057-40064.
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R.R.Ramsay,
and
J.H.Naismith
(2003).
A snapshot of carnitine acetyltransferase.
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Trends Biochem Sci,
28,
343-346.
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M.Paetzel,
R.E.Dalbey,
and
N.C.Strynadka
(2002).
Crystal structure of a bacterial signal peptidase apoenzyme: implications for signal peptide binding and the Ser-Lys dyad mechanism.
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J Biol Chem,
277,
9512-9519.
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PDB code:
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D.F.Kim,
K.Semrad,
and
R.Green
(2001).
Analysis of the active site of the ribosome by site-directed mutagenesis.
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Cold Spring Harb Symp Quant Biol,
66,
119-126.
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J.Thompson,
D.F.Kim,
M.O'Connor,
K.R.Lieberman,
M.A.Bayfield,
S.T.Gregory,
R.Green,
H.F.Noller,
and
A.E.Dahlberg
(2001).
Analysis of mutations at residues A2451 and G2447 of 23S rRNA in the peptidyltransferase active site of the 50S ribosomal subunit.
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Proc Natl Acad Sci U S A,
98,
9002-9007.
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A.Svendsen
(2000).
Lipase protein engineering.
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Biochim Biophys Acta,
1543,
223-238.
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J.L.Carlos,
P.A.Klenotic,
M.Paetzel,
N.C.Strynadka,
and
R.E.Dalbey
(2000).
Mutational evidence of transition state stabilization by serine 88 in Escherichia coli type I signal peptidase.
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Biochemistry,
39,
7276-7283.
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K.Berggren,
M.R.Egmond,
and
F.Tjerneld
(2000).
Substitutions of surface amino acid residues of cutinase probed by aqueous two-phase partitioning.
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Biochim Biophys Acta,
1481,
317-327.
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M.R.Egmond,
and
J.de Vlieg
(2000).
Fusarium solani pisi cutinase.
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Biochimie,
82,
1015-1021.
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R.L.Kingma,
M.Fragiathaki,
H.J.Snijder,
B.W.Dijkstra,
H.M.Verheij,
N.Dekker,
and
M.R.Egmond
(2000).
Unusual catalytic triad of Escherichia coli outer membrane phospholipase A.
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Biochemistry,
39,
10017-10022.
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A.Roussel,
S.Canaan,
M.P.Egloff,
M.Rivière,
L.Dupuis,
R.Verger,
and
C.Cambillau
(1999).
Crystal structure of human gastric lipase and model of lysosomal acid lipase, two lipolytic enzymes of medical interest.
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J Biol Chem,
274,
16995-17002.
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PDB code:
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C.M.Carvalho,
M.R.Aires-Barros,
and
J.M.Cabral
(1999).
Cutinase: from molecular level to bioprocess development.
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Biotechnol Bioeng,
66,
17-34.
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E.Y.Lau,
and
T.C.Bruice
(1999).
Consequences of breaking the Asp-His hydrogen bond of the catalytic triad: effects on the structure and dynamics of the serine esterase cutinase.
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Biophys J,
77,
85-98.
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J.J.Prompers,
B.van Noorloos,
M.L.Mannesse,
A.Groenewegen,
M.R.Egmond,
H.M.Verheij,
C.W.Hilbers,
and
H.A.Pepermans
(1999).
NMR studies of Fusarium solani pisi cutinase in complex with phosphonate inhibitors.
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Biochemistry,
38,
5982-5994.
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S.Longhi,
and
C.Cambillau
(1999).
Structure-activity of cutinase, a small lipolytic enzyme.
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Biochim Biophys Acta,
1441,
185-196.
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F.Haeffner,
T.Norin,
and
K.Hult
(1998).
Molecular modeling of the enantioselectivity in lipase-catalyzed transesterification reactions.
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Biophys J,
74,
1251-1262.
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S.Longhi,
M.Mannesse,
H.M.Verheij,
G.H.De Haas,
M.Egmond,
E.Knoops-Mouthuy,
and
C.Cambillau
(1997).
Crystal structure of cutinase covalently inhibited by a triglyceride analogue.
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Protein Sci,
6,
275-286.
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PDB code:
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R.G.Brok,
I.U.Belandia,
N.Dekker,
J.Tommassen,
and
H.M.Verheij
(1996).
Escherichia coli outer membrane phospholipase A: role of two serines in enzymatic activity.
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Biochemistry,
35,
7787-7793.
|
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|
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The most recent references are shown first.
Citation data come partly from CiteXplore and partly
from an automated harvesting procedure. Note that this is likely to be
only a partial list as not all journals are covered by
either method. However, we are continually building up the citation data
so more and more references will be included with time.
Where a reference describes a PDB structure, the PDB
code is
shown on the right.
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}
}
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