PathWhiz

PathWhiz ID	Pathway	Meta Data
PW088409 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Drosophila melanogaster Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Ana Marcu Created On: August 10, 2018 at 15:51 Last Updated: August 10, 2018 at 15:51
PW064633 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Mus musculus Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Carin Li Created On: January 21, 2018 at 22:38 Last Updated: January 21, 2018 at 22:38
PW088331 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Rattus norvegicus Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Ana Marcu Created On: August 10, 2018 at 13:49 Last Updated: August 10, 2018 at 13:49
PW088464 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Caenorhabditis elegans Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Ana Marcu Created On: August 10, 2018 at 17:09 Last Updated: August 10, 2018 at 17:09
PW088236 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Bos taurus Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Ana Marcu Created On: August 10, 2018 at 11:32 Last Updated: August 10, 2018 at 11:32
PW000041 View Pathway	metabolic Phytanic Acid Peroxisomal Oxidation Homo sapiens Phytanic acid, a branched chain fatty acid, is an important component of fatty acid intake, occuring in meat, fish and dairy products. Due to its methylation, it cannot be a substrate for acyl-CoA dehydrogenase and cannot enter the mitochondrial beta oxidation pathway. Phytanic acid is instead activated to its CoA ester form by a CoA synthetase to phytanoyl-CoA, where it can begin the first cycle of alpha oxidation. Phytanoyl-CoA is a substrate for a specific alpha-hydroxylase (Phytanoyl-CoA hydroxylase), which adds a hydroxyl group to the α-carbon of phytanic acid, creating the 19-carbon homologue, pristanic acid. Pristanic acid then undergoes further metabolism through beta oxidation. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: WishartLab Created On: August 01, 2013 at 13:54 Last Updated: August 01, 2013 at 13:54
PW012889 View Pathway	metabolic Phytate Biosynthesis Arabidopsis thaliana Phytate biosynthesis is a pathway that occurs in the cytosol by which myo-inositol becomes D-myo-inositol (1,3,4)-trisphosphate becomes phytate, the principal storage form of phosphorus in many plant tissues . First, myo-inositol-1,3,4-trisphosphate 5/6-kinase uses ATP to catalyze the conversion of D-myo-inositol (1,3,4)-trisphosphate into either D-myo-inositol (1,3,4,6)-tetrakisphosphate or D-myo-inositol (1,3,4,5)-tetrakisphosphate. It requires magnesium ion as a cofactor. Second, inositol polyphosphate multiple-kinase uses ATP to catalyze the conversion of either D-myo-inositol (1,3,4,6)-tetrakisphosphate or D-myo-inositol (1,3,4,5)-tetrakisphosphate into D-myo-inositol 1,3,4,5,6-pentakisphosphate. Third, polyphosphate 2-kinase uses ATP to catalyze the conversion of D-myo-inositol 1,3,4,5,6-pentakisphosphate into phytate. It requires zinc ion as a cofactor. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Carin Li Created On: February 21, 2017 at 21:28 Last Updated: February 21, 2017 at 21:28
PW064767 View Pathway	signaling PI3K Homo sapiens Activation of different types of RTKs leads to the activation of PI3K. This causes the conversion of PIP2 to PIP3 at the plasma membrane. Inactive AKT translocate from the cytoplasm to the plasma membrane where PIP3 binds AKT, leading to activation of AKT by phosphorylation by PDK1 and mTOR. The arrows and the bars represent activation and inhibition of the following proteins, respectively. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Pascal Created On: June 18, 2018 at 05:25 Last Updated: June 18, 2018 at 05:25
PW177079 View Pathway	signaling PI3K io pathway homo saipens about pi3K also known as phosphotidylinositol 3 Kinase involved in AKT signalling and is the main activator of PIP2. BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Guest: Anonymous Created On: January 10, 2024 at 22:37 Last Updated: January 10, 2024 at 22:37
PW123850 View Pathway	signaling PI3K-Akt-mTOR信号通路 Bombyx mori BioPAX SVG SBGN SBML PWML All files (.zip)	Creator: Guest: Anonymous Created On: March 31, 2020 at 03:40 Last Updated: March 31, 2020 at 03:40