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Evolution in a family of chelatases facilitated by the introduction of active site asymmetry and protein oligomerization
by
Romão, Célia V
, Warren, Martin J
, Brindley, Amanda A
, Pickersgill, Richard W
, Carrondo, Maria A
, Lobo, Susana A.L
, Ladakis, Dimitrios
, Deery, Evelyne
, Saraiva, Lígia M
, Matias, Pedro M
in
Active sites
/ Amides
/ Archaeoglobus
/ Archaeoglobus fulgidus - enzymology
/ Bacteria
/ Binding sites
/ Biological Sciences
/ Biosynthesis
/ Catalytic Domain - genetics
/ Chelation
/ Cobalt
/ Cobalt - metabolism
/ crystal structure
/ Crystallization
/ Desulfovibrio vulgaris
/ Desulfovibrio vulgaris - enzymology
/ Enzyme kinetics
/ Enzymes
/ Evolution
/ Evolution, Molecular
/ Ferrochelatase - genetics
/ Ferrochelatase - metabolism
/ heme
/ iron
/ Metal ions
/ Microorganisms
/ Models, Molecular
/ Molecular structure
/ Multigene Family - genetics
/ oligomerization
/ Porphyrins - metabolism
/ Propionates
/ protein subunits
/ Proteins
/ protoporphyrin
/ Protoporphyrins
/ Salmonella enterica
/ Salmonella enterica - enzymology
/ Tetrapyrroles
/ Uroporphyrins - metabolism
/ Vitamin B 12 - biosynthesis
/ vitamin B12
2011
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Evolution in a family of chelatases facilitated by the introduction of active site asymmetry and protein oligomerization
by
Romão, Célia V
, Warren, Martin J
, Brindley, Amanda A
, Pickersgill, Richard W
, Carrondo, Maria A
, Lobo, Susana A.L
, Ladakis, Dimitrios
, Deery, Evelyne
, Saraiva, Lígia M
, Matias, Pedro M
in
Active sites
/ Amides
/ Archaeoglobus
/ Archaeoglobus fulgidus - enzymology
/ Bacteria
/ Binding sites
/ Biological Sciences
/ Biosynthesis
/ Catalytic Domain - genetics
/ Chelation
/ Cobalt
/ Cobalt - metabolism
/ crystal structure
/ Crystallization
/ Desulfovibrio vulgaris
/ Desulfovibrio vulgaris - enzymology
/ Enzyme kinetics
/ Enzymes
/ Evolution
/ Evolution, Molecular
/ Ferrochelatase - genetics
/ Ferrochelatase - metabolism
/ heme
/ iron
/ Metal ions
/ Microorganisms
/ Models, Molecular
/ Molecular structure
/ Multigene Family - genetics
/ oligomerization
/ Porphyrins - metabolism
/ Propionates
/ protein subunits
/ Proteins
/ protoporphyrin
/ Protoporphyrins
/ Salmonella enterica
/ Salmonella enterica - enzymology
/ Tetrapyrroles
/ Uroporphyrins - metabolism
/ Vitamin B 12 - biosynthesis
/ vitamin B12
2011
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Evolution in a family of chelatases facilitated by the introduction of active site asymmetry and protein oligomerization
by
Romão, Célia V
, Warren, Martin J
, Brindley, Amanda A
, Pickersgill, Richard W
, Carrondo, Maria A
, Lobo, Susana A.L
, Ladakis, Dimitrios
, Deery, Evelyne
, Saraiva, Lígia M
, Matias, Pedro M
in
Active sites
/ Amides
/ Archaeoglobus
/ Archaeoglobus fulgidus - enzymology
/ Bacteria
/ Binding sites
/ Biological Sciences
/ Biosynthesis
/ Catalytic Domain - genetics
/ Chelation
/ Cobalt
/ Cobalt - metabolism
/ crystal structure
/ Crystallization
/ Desulfovibrio vulgaris
/ Desulfovibrio vulgaris - enzymology
/ Enzyme kinetics
/ Enzymes
/ Evolution
/ Evolution, Molecular
/ Ferrochelatase - genetics
/ Ferrochelatase - metabolism
/ heme
/ iron
/ Metal ions
/ Microorganisms
/ Models, Molecular
/ Molecular structure
/ Multigene Family - genetics
/ oligomerization
/ Porphyrins - metabolism
/ Propionates
/ protein subunits
/ Proteins
/ protoporphyrin
/ Protoporphyrins
/ Salmonella enterica
/ Salmonella enterica - enzymology
/ Tetrapyrroles
/ Uroporphyrins - metabolism
/ Vitamin B 12 - biosynthesis
/ vitamin B12
2011
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Evolution in a family of chelatases facilitated by the introduction of active site asymmetry and protein oligomerization
Journal Article
Evolution in a family of chelatases facilitated by the introduction of active site asymmetry and protein oligomerization
2011
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Overview
The class II chelatases associated with heme, siroheme, and cobalamin biosynthesis are structurally related enzymes that insert a specific metal ion (Fe²⁺ or Co²⁺) into the center of a modified tetrapyrrole (protoporphyrin or sirohydrochlorin). The structures of two related class II enzymes, CbiXS from Archaeoglobus fulgidus and CbiK from Salmonella enterica, that are responsible for the insertion of cobalt along the cobalamin biosynthesis pathway are presented in complex with their metallated product. A further structure of a CbiK from Desulfovibrio vulgaris Hildenborough reveals how cobalt is bound at the active site. The crystal structures show that the binding of sirohydrochlorin is distinctly different to porphyrin binding in the protoporphyrin ferrochelatases and provide a molecular overview of the mechanism of chelation. The structures also give insights into the evolution of chelatase form and function. Finally, the structure of a periplasmic form of Desulfovibrio vulgaris Hildenborough CbiK reveals a novel tetrameric arrangement of its subunits that are stabilized by the presence of a heme b cofactor. Whereas retaining colbaltochelatase activity, this protein has acquired a central cavity with the potential to chaperone or transport metals across the periplasmic space, thereby evolving a new use for an ancient protein subunit.
Publisher
National Academy of Sciences,National Acad Sciences
Subject
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