Engineering the Substrate Specificity of Porcine Kidney d-Amino Acid Oxidase by Mutagenesis of the “Active-Site Lid”

Comparison of the primary structures of pig kidney d-amino acid oxidase (DAO) and human brain d-aspartate oxidase (DDO) revealed a notable difference at I215–N225 of DAO and the corresponding region, R216–G220, of DDO. A DAO mutant, in which I215–N225 is substituted by R216–G220 of DDO, showed d-asp...

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Veröffentlicht in:Journal of biochemistry (Tokyo) 2006-05, Vol.139 (5), p.873-879
Hauptverfasser: Setoyama, Chiaki, Nishina, Yasuzo, Mizutani, Hisashi, Miyahara, Ikuko, Hirotsu, Ken, Kamiya, Nobuo, Shiga, Kiyoshi, Miura, Retsu
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container_issue 5
container_start_page 873
container_title Journal of biochemistry (Tokyo)
container_volume 139
creator Setoyama, Chiaki
Nishina, Yasuzo
Mizutani, Hisashi
Miyahara, Ikuko
Hirotsu, Ken
Kamiya, Nobuo
Shiga, Kiyoshi
Miura, Retsu
description Comparison of the primary structures of pig kidney d-amino acid oxidase (DAO) and human brain d-aspartate oxidase (DDO) revealed a notable difference at I215–N225 of DAO and the corresponding region, R216–G220, of DDO. A DAO mutant, in which I215–N225 is substituted by R216–G220 of DDO, showed d-aspartate–oxidizing activity that wild-type DAO does not exhibit, together with a considerable decrease in activity toward d-alanine. These findings indicate that I215–N225 of DAO contributes profoundly to its substrate specificity. Based on these results and the crystal structure of DAO, we systematically mutated the E220–Y224 region within the short stretch in question and obtained five mutants (220D224G, 221D224G, 222D224G, 223D224G, and 224D), in each of which an aspartate residue is mutated to E220–Y224. All of the mutants exhibited decreased apparent Km values toward d-arginine, i.e., to one-seventh to one-half that of wild type DAO. The specificity constant, kcat app/Km app, for d-arginine increased by one order of magnitude for the 221D224G or 222D224G mutant, whereas that for d-alanine or d-serine decreased to marginal or nil.
doi_str_mv 10.1093/jb/mvj094
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A DAO mutant, in which I215–N225 is substituted by R216–G220 of DDO, showed d-aspartate–oxidizing activity that wild-type DAO does not exhibit, together with a considerable decrease in activity toward d-alanine. These findings indicate that I215–N225 of DAO contributes profoundly to its substrate specificity. Based on these results and the crystal structure of DAO, we systematically mutated the E220–Y224 region within the short stretch in question and obtained five mutants (220D224G, 221D224G, 222D224G, 223D224G, and 224D), in each of which an aspartate residue is mutated to E220–Y224. All of the mutants exhibited decreased apparent Km values toward d-arginine, i.e., to one-seventh to one-half that of wild type DAO. 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A DAO mutant, in which I215–N225 is substituted by R216–G220 of DDO, showed d-aspartate–oxidizing activity that wild-type DAO does not exhibit, together with a considerable decrease in activity toward d-alanine. These findings indicate that I215–N225 of DAO contributes profoundly to its substrate specificity. Based on these results and the crystal structure of DAO, we systematically mutated the E220–Y224 region within the short stretch in question and obtained five mutants (220D224G, 221D224G, 222D224G, 223D224G, and 224D), in each of which an aspartate residue is mutated to E220–Y224. All of the mutants exhibited decreased apparent Km values toward d-arginine, i.e., to one-seventh to one-half that of wild type DAO. 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source Oxford University Press Journals All Titles (1996-Current); MEDLINE
subjects Animals
Binding Sites - genetics
Brain - metabolism
Cloning, Molecular
d-amino acid oxidase
D-Amino-Acid Oxidase - genetics
D-Amino-Acid Oxidase - isolation & purification
D-Amino-Acid Oxidase - metabolism
d-aspartate oxidase
D-Aspartate Oxidase - genetics
D-Aspartate Oxidase - isolation & purification
D-Aspartate Oxidase - metabolism
DAO
DAO mutant with activity toward d-arginine
DAO-based DAO-DDO hybrid
DDO
directed evolution
DRO
DXO
Humans
Kidney - metabolism
Kinetics
Molecular Sequence Data
mutagenesis
Mutagenesis, Site-Directed
Protein Engineering
Recombinant Proteins - biosynthesis
Recombinant Proteins - genetics
Recombinant Proteins - isolation & purification
Substrate Specificity
Swine
title Engineering the Substrate Specificity of Porcine Kidney d-Amino Acid Oxidase by Mutagenesis of the “Active-Site Lid”
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