2004
DOI: 10.1074/jbc.m402331200
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AP-3-dependent Mechanisms Control the Targeting of a Chloride Channel (ClC-3) in Neuronal and Non-neuronal Cells

Abstract: Adaptor protein (AP)-2 and AP-3-dependent mechanisms control the sorting of membrane proteins into synaptic vesicles. Mouse models deficient in AP-3, mocha, develop a neurological phenotype of which the central feature is an alteration of the luminal synaptic vesicle composition. This is caused by a severe reduction of vesicular levels of the zinc transporter 3 (ZnT3). It is presently unknown whether this mocha defect is restricted to ZnT3 or encompasses other synaptic vesicle proteins capable of modifying syn… Show more

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Cited by 108 publications
(146 citation statements)
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“…This decrease was due to a redistribution of the kinase rather than global changes in brain kinase expression, because kinase content was not detectably modified in P1-P2 brain fractions ( Figure 6D). The effects of the mocha mutation on the subcellular distribution of PI4KII␣ are similar to those reported for ZnT3 and for another synaptic vesicle protein whose traffic is regulated by AP-3: chloride channel 3 (ClC3) (Salazar et al, 2004a). ZnT3 and ClC3 targeting defects also are manifested as a decreased content of these proteins in a subset of nerve terminals in situ (Salazar et al, 2004a), such as in nerve terminals of the hippocampus (Salazar et al, 2004a;Seong et al, 2005).…”
supporting
confidence: 60%
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“…This decrease was due to a redistribution of the kinase rather than global changes in brain kinase expression, because kinase content was not detectably modified in P1-P2 brain fractions ( Figure 6D). The effects of the mocha mutation on the subcellular distribution of PI4KII␣ are similar to those reported for ZnT3 and for another synaptic vesicle protein whose traffic is regulated by AP-3: chloride channel 3 (ClC3) (Salazar et al, 2004a). ZnT3 and ClC3 targeting defects also are manifested as a decreased content of these proteins in a subset of nerve terminals in situ (Salazar et al, 2004a), such as in nerve terminals of the hippocampus (Salazar et al, 2004a;Seong et al, 2005).…”
supporting
confidence: 60%
“…Immunostaining of wild-type and mocha brain hippocampal sections revealed a reduction in PI4KII␣ immunoreactivity in the mossy fiber nerve terminals of the hilus (Figure 7, A-D) and CA3 region (Figure 7, E-H). These nerve terminals were previously shown to be enriched in ZnT3 (Palmiter et al, 1996) and ClC-3 (Stobrawa et al, 2001) in wild-type, but not in mocha mice (Salazar et al, 2004a). The decreased kinase immunostaining in mossy nerve terminals was not due to a "global" change in nerve terminal number or structure because VAMPII distribution and abundance were not affected by the mocha mutation (Figure 7, I and J).…”
Section: Ap-3-dependent Targeting Of Pi4kiiamentioning
confidence: 67%
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