dual role for IQGAP1 in regulating exocytosis
Polarized secretion is a tightly regulated event generated by conserved, asymmetrically localized multiprotein complexes, and the mechanism(s) underlying its temporal and spatial regulation are only beginning to emerge. Although yeast Iqg1p has been identified as a positional marker linking polarity...
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Published in | Journal of cell science Vol. 121; no. 3; pp. 391 - 403 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
England
The Company of Biologists Limited
01.02.2008
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Abstract | Polarized secretion is a tightly regulated event generated by conserved, asymmetrically localized multiprotein complexes, and the mechanism(s) underlying its temporal and spatial regulation are only beginning to emerge. Although yeast Iqg1p has been identified as a positional marker linking polarity and exocytosis cues, studies on its mammalian counterpart, IQGAP1, have focused on its role in organizing cytoskeletal architecture, for which the underlying mechanism is unclear. Here, we report that IQGAP1 associates and co-localizes with the exocyst-septin complex, and influences the localization of the exocyst and the organization of septin. We further show that activation of CDC42 GTPase abolishes this association and inhibits secretion in pancreatic β-cells. Whereas the N-terminus of IQGAP1 binds the exocyst-septin complex, enhances secretion and abrogates the inhibition caused by CDC42 or the depletion of IQGAP1, the C-terminus, which binds CDC42, inhibits secretion. Pulse-chase experiments indicate that IQGAP1 influences protein-synthesis rates, thus regulating exocytosis. We propose and discuss a model in which IQGAP1 serves as a conformational switch to regulate exocytosis. |
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AbstractList | Polarized secretion is a tightly regulated event generated by conserved, asymmetrically localized multiprotein complexes, and the mechanism(s) underlying its temporal and spatial regulation are only beginning to emerge. Although yeast Iqg1p has been identified as a positional marker linking polarity and exocytosis cues, studies on its mammalian counterpart, IQGAP1, have focused on its role in organizing cytoskeletal architecture, for which the underlying mechanism is unclear. Here, we report that IQGAP1 associates and co-localizes with the exocyst-septin complex, and influences the localization of the exocyst and the organization of septin. We further show that activation of CDC42 GTPase abolishes this association and inhibits secretion in pancreatic β-cells. Whereas the N-terminus of IQGAP1 binds the exocyst-septin complex, enhances secretion and abrogates the inhibition caused by CDC42 or the depletion of IQGAP1, the C-terminus, which binds CDC42, inhibits secretion. Pulse-chase experiments indicate that IQGAP1 influences protein-synthesis rates, thus regulating exocytosis. We propose and discuss a model in which IQGAP1 serves as a conformational switch to regulate exocytosis. Polarized secretion is a tightly regulated event generated by conserved, asymmetrically localized multiprotein complexes, and the mechanism(s) underlying its temporal and spatial regulation are only beginning to emerge. Although yeast Iqg1p has been identified as a positional marker linking polarity and exocytosis cues, studies on its mammalian counterpart, IQGAP1, have focused on its role in organizing cytoskeletal architecture, for which the underlying mechanism is unclear. Here, we report that IQGAP1 associates and co-localizes with the exocyst-septin complex, and influences the localization of the exocyst and the organization of septin. We further show that activation of CDC42 GTPase abolishes this association and inhibits secretion in pancreatic beta -cells. Whereas the N-terminus of IQGAP1 binds the exocyst-septin complex, enhances secretion and abrogates the inhibition caused by CDC42 or the depletion of IQGAP1, the C-terminus, which binds CDC42, inhibits secretion. Pulse-chase experiments indicate that IQGAP1 influences protein-synthesis rates, thus regulating exocytosis. We propose and discuss a model in which IQGAP1 serves as a conformational switch to regulate exocytosis. |
Author | Hsu, Shu-Chan Rittmeyer, Eric N Daniel, Samira Osman, Mahasin A |
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SubjectTerms | Animals Base Sequence cdc42 GTP-Binding Protein - metabolism Cell Line Cell Polarity Cytoskeletal Proteins - genetics Cytoskeletal Proteins - metabolism Exocytosis - physiology GTP Phosphohydrolases - genetics GTP Phosphohydrolases - metabolism HeLa Cells Humans Insulin-Secreting Cells - cytology Insulin-Secreting Cells - physiology Insulin-Secreting Cells - secretion Mice Models, Biological Multiprotein Complexes Phosphoric Monoester Hydrolases - genetics Phosphoric Monoester Hydrolases - metabolism Protein Structure, Tertiary ras GTPase-Activating Proteins - antagonists & inhibitors ras GTPase-Activating Proteins - chemistry ras GTPase-Activating Proteins - genetics ras GTPase-Activating Proteins - physiology Recombinant Proteins - chemistry Recombinant Proteins - genetics Recombinant Proteins - metabolism RNA Interference RNA, Small Interfering - genetics Septins Vesicular Transport Proteins - genetics Vesicular Transport Proteins - metabolism |
Title | dual role for IQGAP1 in regulating exocytosis |
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