The enzyme is found in eukaryotes and thermophilic bacteria, but appears to be absent from mesophilic bacteria. Also hydrolyses nucleoside diphosphates, thiamine diphosphate and FAD. The enzyme from the plant Pisum sativum (garden pea) is regulated by calmodulin .
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SYSTEMATIC NAME
IUBMB Comments
unspecific diphosphate phosphohydrolase
The enzyme is found in eukaryotes and thermophilic bacteria, but appears to be absent from mesophilic bacteria. Also hydrolyses nucleoside diphosphates, thiamine diphosphate and FAD. The enzyme from the plant Pisum sativum (garden pea) is regulated by calmodulin [5].
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
the enzymatic effect of NTPases is independent of the species or cell type background of the reporter assay, as reflected by very similar results in both murine RAW264.7 macrophages and human HeLa cells
knockouts of isozymes NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. The NTPase I knockout in the type I strain mirrors the less inhibitory phenotype of type II (ME49) and III (CTG) strains, which naturally lack NTPase I
knockouts of isozymes NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. In contrast to the NTPase I mutant, deletion of NTPase II causes only a mild change in inhibition of the FLUC activity in both HeLa cells and RAW-264.7 macrophages
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. Toxoplasma gondii strains null for both NTPase I and NTPase II can be used to avoid interference artifacts in ATP-dependent assays
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. Toxoplasma gondii strains null for both NTPase I and NTPase II can be used to avoid interference artifacts in ATP-dependent assays
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. Toxoplasma gondii strains null for both NTPase I and NTPase II can be used to avoid interference artifacts in ATP-dependent assays
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. ATP-dependent assays
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. ATP-dependent assays
generation of NTPase single- and double-disruptant mutants using CRISPR/Cas9 technology, the disruptant mutants lack either NTPase I (DELTAntpase I, RHDELTAhxgprt/ntpaseI::DHFR) or NTPase II (DELTAntpase II, RHDELTAhxgprt/ntpaseII::DHFR) or both. Knockouts of NTPase II and I are not essential for growth or virulence in CD1 mice and do not affect STAT1 transcription. ATP-dependent assays