PMID-sentid Pub_year Sent_text comp_official_name comp_offsetprotein_name organism prot_offset 34873283-6 2021 Moreover, we define key biogenesis steps of phosphatidic acid-enriched MDVs starting with the MIRO1/2-dependent formation of thin membrane protrusions pulled along microtubule filaments, followed by MID49/MID51/MFF-dependent recruitment of the dynamin family GTPase DRP1 and finally DRP1-dependent scission. Phosphatidic Acids 44-61 dynamin 1 like Homo sapiens 266-270 34873283-6 2021 Moreover, we define key biogenesis steps of phosphatidic acid-enriched MDVs starting with the MIRO1/2-dependent formation of thin membrane protrusions pulled along microtubule filaments, followed by MID49/MID51/MFF-dependent recruitment of the dynamin family GTPase DRP1 and finally DRP1-dependent scission. Phosphatidic Acids 44-61 dynamin 1 like Homo sapiens 283-287 28644713-0 2018 An unstructured loop that is critical for interactions of the stalk domain of Drp1 with saturated phosphatidic acid. Phosphatidic Acids 98-115 dynamin 1 like Homo sapiens 78-82 28644713-3 2018 We previously showed that Drp1 interacts with phosphatidic acid (PA) and saturated phospholipids in the mitochondrial membrane, and this interaction restrains Drp1 in initiating the constriction of mitochondria. Phosphatidic Acids 46-63 dynamin 1 like Homo sapiens 26-30 28644713-3 2018 We previously showed that Drp1 interacts with phosphatidic acid (PA) and saturated phospholipids in the mitochondrial membrane, and this interaction restrains Drp1 in initiating the constriction of mitochondria. Phosphatidic Acids 46-63 dynamin 1 like Homo sapiens 159-163 28644713-3 2018 We previously showed that Drp1 interacts with phosphatidic acid (PA) and saturated phospholipids in the mitochondrial membrane, and this interaction restrains Drp1 in initiating the constriction of mitochondria. Phosphatidic Acids 65-67 dynamin 1 like Homo sapiens 26-30 28644713-3 2018 We previously showed that Drp1 interacts with phosphatidic acid (PA) and saturated phospholipids in the mitochondrial membrane, and this interaction restrains Drp1 in initiating the constriction of mitochondria. Phosphatidic Acids 65-67 dynamin 1 like Homo sapiens 159-163 28644713-5 2018 We further show that an unstructured loop in the stalk domain of Drp1 is critical for interaction with unsaturated PA. Phosphatidic Acids 115-117 dynamin 1 like Homo sapiens 65-69 28835909-4 2017 Mitochondrial membrane lipids such as phosphatidic acid and cardiolipin bind Drp1, and Drp1-phospholipid interactions provide key regulatory mechanisms for mitochondrial division (Montessuit et al., 2010; Bustillo-Zabalbeitia et al., 2014; Macdonald et al., 2014; Stepanyants et al., 2015; Adachi et al., 2016). Phosphatidic Acids 38-55 dynamin 1 like Homo sapiens 77-81 27635761-0 2016 Coincident Phosphatidic Acid Interaction Restrains Drp1 in Mitochondrial Division. Phosphatidic Acids 11-28 dynamin 1 like Homo sapiens 51-55 27635761-5 2016 Drp1 recognizes the head group of phosphatidic acid (PA) and two saturated acyl chains of another phospholipid by penetrating into the hydrophobic core of the membrane. Phosphatidic Acids 34-51 dynamin 1 like Homo sapiens 0-4 27635761-5 2016 Drp1 recognizes the head group of phosphatidic acid (PA) and two saturated acyl chains of another phospholipid by penetrating into the hydrophobic core of the membrane. Phosphatidic Acids 53-55 dynamin 1 like Homo sapiens 0-4 27635761-7 2016 Moreover, a PA-producing phospholipase, MitoPLD, binds Drp1, creating a PA-rich microenvironment in the vicinity of a division apparatus. Phosphatidic Acids 12-14 dynamin 1 like Homo sapiens 55-59 27635761-7 2016 Moreover, a PA-producing phospholipase, MitoPLD, binds Drp1, creating a PA-rich microenvironment in the vicinity of a division apparatus. Phosphatidic Acids 72-74 dynamin 1 like Homo sapiens 55-59 27635761-8 2016 Thus, PA controls the activation of Drp1 after the formation of the division apparatus. Phosphatidic Acids 6-8 dynamin 1 like Homo sapiens 36-40