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PDBsum entry 1a4e
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Oxidoreductase
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PDB id
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1a4e
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* Residue conservation analysis
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Enzyme class:
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E.C.1.11.1.6
- catalase.
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Reaction:
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2 H2O2 = O2 + 2 H2O
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2
×
H2O2
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=
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O2
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+
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2
×
H2O
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Cofactor:
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Heme; Mn(2+)
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Heme
Bound ligand (Het Group name =
HEM)
matches with 95.45% similarity
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Mn(2+)
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Molecule diagrams generated from .mol files obtained from the
KEGG ftp site
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DOI no:
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J Mol Biol
286:135-149
(1999)
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PubMed id:
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Structure of catalase-A from Saccharomyces cerevisiae.
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M.J.Maté,
M.Zamocky,
L.M.Nykyri,
C.Herzog,
P.M.Alzari,
C.Betzel,
F.Koller,
I.Fita.
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ABSTRACT
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The structure of the peroxisomal catalase A from the budding yeast Saccharomyces
cerevisiae, with 515 residues per subunit, has been determined and refined to
2.4 A resolution. The crystallographic agreement factors R and Rfree are 15.4%
and 19.8%, respectively. A tetramer with accurate 222-molecular symmetry is
located in the asymmetric unit of the crystal. The conformation of the central
core of catalase A, about 300 residues, remains similar to the structure of
catalases from distantly related organisms. In contrast, catalase A lacks a
carboxy-terminal domain equivalent to that found in catalase from Penicillium
vitalae, the only other fungal catalase structure available. Structural
peculiarities related with the heme and NADP(H) binding pockets can be
correlated with biochemical characteristics of the catalase A enzyme. The
network of molecular cavities and channels, filled with solvent molecules,
supports the existence of one major substrate entry and at least two possible
alternative pathways to the heme active site. The structure of the variant
protein Val111Ala, also determined by X-ray crystallography at 2.8 A resolution,
shows a few, well-localized, differences with respect to the wild-type enzyme.
These differences, that include the widening of the entry channel in its
narrowest point, provide an explanation for both the increased peroxidatic
activity and the reduced catalatic activity of this mutant.
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Selected figure(s)
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Figure 5.
Figure 5. Stereo views of the heme group environment in
SCC-A. (a) side heme view and (b) view perpendicular to the heme
plane. Carbon, oxygen and nitrogen atoms are represented as
open, shaded and filled spheres, respectively. Hydrogen bonds
are indicated by broken lines. The heme group, the azide
molecule found in the distal side, the essential catalytic
residues (His70, Ser109, Asn143, Arg351 and Tyr355), and two
water molecules which are hydrogen-bonded to the propionic
groups are explicitly shown in (a). The deprotonated oxygen of
Tyr355, that makes two ionic hydrogen bonds with Arg351, acts as
the proximal ligand of the iron atom (coordination is also
indicated with a discontinuous bond). Residues that define the
heme distal pocket are explicitly shown in (b). Asn68 interacts
with Asp62 from the R related subunit (indicated by the symbol *
in the Figure) and with a solvent molecule which starts a chain
of water molecules that reach the central cavity of the catalase
molecules (see the text). Neither the main-chain oxygen atom of
cis-Pro69 nor the side-chain oxygen atom of Asn143 form standard
hydrogen bonds and might interact with the heme ring.
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Figure 7.
Figure 7. Stereo view of the final (2F[o] - F[c]) electron
density map showing the network of bonds that bridge the two
pairs of heme groups in an SCC-A molecule (see the text and
[Gouet et al 1995]). Heme groups and residues Asn60, Arg61,
Asp357, together with four water molecules and two sulphate ions
are also shown inside the density. The four subunits participate
in each one of these heme-heme connections. Density for the
azide molecules, situated in the heme distal pockets and
coordinated with the iron atoms, can also be seen in this
drawing. Sulfate ions are located on the molecular 2-fold axis
P. The quality of the electron density allows to define
unambiguously the hand of the heme group from the disposition of
methyl and vinyl groups. For clarity only density situated till
about 2.5 Å from the atoms represented is shown.
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The above figures are
reprinted
by permission from Elsevier:
J Mol Biol
(1999,
286,
135-149)
copyright 1999.
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Figures were
selected
by an automated process.
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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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M.I.González-Siso,
A.García-Leiro,
N.Tarrío,
and
M.E.Cerdán
(2009).
Sugar metabolism, redox balance and oxidative stress response in the respiratory yeast Kluyveromyces lactis.
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Microb Cell Fact,
8,
46.
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M.Zamocky,
P.G.Furtmüller,
and
C.Obinger
(2008).
Evolution of catalases from bacteria to humans.
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Antioxid Redox Signal,
10,
1527-1548.
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I.M.Moustafa,
S.Foster,
A.Y.Lyubimov,
and
A.Vrielink
(2006).
Crystal structure of LAAO from Calloselasma rhodostoma with an L-phenylalanine substrate: insights into structure and mechanism.
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J Mol Biol,
364,
991.
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PDB code:
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M.S.Lorentzen,
E.Moe,
H.M.Jouve,
and
N.P.Willassen
(2006).
Cold adapted features of Vibrio salmonicida catalase: characterisation and comparison to the mesophilic counterpart from Proteus mirabilis.
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Extremophiles,
10,
427-440.
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T.Tosha,
T.Uchida,
A.R.Brash,
and
T.Kitagawa
(2006).
On the relationship of coral allene oxide synthase to catalase. A single active site mutation that induces catalase activity in coral allene oxide synthase.
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J Biol Chem,
281,
12610-12617.
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C.Jakopitsch,
E.Droghetti,
F.Schmuckenschlager,
P.G.Furtmüller,
G.Smulevich,
and
C.Obinger
(2005).
Role of the main access channel of catalase-peroxidase in catalysis.
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J Biol Chem,
280,
42411-42422.
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C.Mandal,
R.D.Gudi,
and
G.K.Suraishkumar
(2005).
Multi-objective optimization in Aspergillus niger fermentation for selective product enhancement.
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Bioprocess Biosyst Eng,
28,
149-164.
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M.L.Oldham,
A.R.Brash,
and
M.E.Newcomer
(2005).
The structure of coral allene oxide synthase reveals a catalase adapted for metabolism of a fatty acid hydroperoxide.
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Proc Natl Acad Sci U S A,
102,
297-302.
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PDB code:
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K.O.Håkansson,
M.Brugna,
and
L.Tasse
(2004).
The three-dimensional structure of catalase from Enterococcus faecalis.
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Acta Crystallogr D Biol Crystallogr,
60,
1374-1380.
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PDB code:
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P.Andreoletti,
A.Pernoud,
G.Sainz,
P.Gouet,
and
H.M.Jouve
(2003).
Structural studies of Proteus mirabilis catalase in its ground state, oxidized state and in complex with formic acid.
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Acta Crystallogr D Biol Crystallogr,
59,
2163-2168.
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PDB codes:
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P.Andreoletti,
G.Sainz,
M.Jaquinod,
J.Gagnon,
and
H.M.Jouve
(2003).
High-resolution structure and biochemical properties of a recombinant Proteus mirabilis catalase depleted in iron.
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Proteins,
50,
261-271.
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PDB codes:
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P.Chelikani,
X.Carpena,
I.Fita,
and
P.C.Loewen
(2003).
An electrical potential in the access channel of catalases enhances catalysis.
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J Biol Chem,
278,
31290-31296.
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PDB codes:
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X.Carpena,
M.Soriano,
M.G.Klotz,
H.W.Duckworth,
L.J.Donald,
W.Melik-Adamyan,
I.Fita,
and
P.C.Loewen
(2003).
Structure of the Clade 1 catalase, CatF of Pseudomonas syringae, at 1.8 A resolution.
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Proteins,
50,
423-436.
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PDB code:
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G.N.Murshudov,
A.I.Grebenko,
J.A.Brannigan,
A.A.Antson,
V.V.Barynin,
G.G.Dodson,
Z.Dauter,
K.S.Wilson,
and
W.R.Melik-Adamyan
(2002).
The structures of Micrococcus lysodeikticus catalase, its ferryl intermediate (compound II) and NADPH complex.
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Acta Crystallogr D Biol Crystallogr,
58,
1972-1982.
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PDB codes:
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M.K.Safo,
F.N.Musayev,
S.H.Wu,
D.J.Abraham,
and
T.P.Ko
(2001).
Structure of tetragonal crystals of human erythrocyte catalase.
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Acta Crystallogr D Biol Crystallogr,
57,
1-7.
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PDB code:
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P.H.Goodwin,
J.Li,
and
S.Jin
(2001).
A catalase gene of Colletotrichum gloeosporioides f. sp. malvae is highly expressed during the necrotrophic phase of infection of round-leaved mallow, Malva pusilla.
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FEMS Microbiol Lett,
202,
103-107.
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W.Melik-Adamyan,
J.Bravo,
X.Carpena,
J.Switala,
M.J.Maté,
I.Fita,
and
P.C.Loewen
(2001).
Substrate flow in catalases deduced from the crystal structures of active site variants of HPII from Escherichia coli.
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Proteins,
44,
270-281.
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PDB codes:
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X.Carpena,
R.Perez,
W.F.Ochoa,
N.Verdaguer,
M.G.Klotz,
J.Switala,
W.Melik-Adamyan,
I.Fita,
and
P.C.Loewen
(2001).
Crystallization and preliminary X-ray analysis of clade I catalases from Pseudomonas syringae and Listeria seeligeri.
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Acta Crystallogr D Biol Crystallogr,
57,
1184-1186.
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T.P.Ko,
M.K.Safo,
F.N.Musayev,
M.L.Di Salvo,
C.Wang,
S.H.Wu,
and
D.J.Abraham
(2000).
Structure of human erythrocyte catalase.
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Acta Crystallogr D Biol Crystallogr,
56,
241-245.
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PDB code:
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M.J.Maté,
M.S.Sevinc,
B.Hu,
J.Bujons,
J.Bravo,
J.Switala,
W.Ens,
P.C.Loewen,
and
I.Fita
(1999).
Mutants that alter the covalent structure of catalase hydroperoxidase II from Escherichia coli.
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J Biol Chem,
274,
27717-27725.
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PDB codes:
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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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