Search results for "Dihydroxyacetone phosphate"

showing 3 items of 3 documents

Copurification of dihydroxyacetone-phosphate acyl-transferase and other peroxisomal proteins from liver of fenofibrate-treated rats.

1997

Dihydroxyacetone-phosphate acyl-transferase (DHAP-AT), a peroxisomal membrane-bound enzyme that catalyzes the first step of ether-glycerolipid synthesis, was purified from liver of rats treated with fenofibrate, a peroxisome proliferator. The protocol first included isolation of peroxisomes, their purification through a discontinuous gradient and solubilization of membranes in CHAPS. DHAP-AT was further purified by four chromatographic steps, namely low-pressure size-exclusion, cation-exchange, hydroxylapatite and chromatofocusing. The chromatofocusing step led to a 4000-fold increase in the specific activity of DHAP-AT with respect to the liver homogenate with a yield of about 0.2%. Trypsi…

MaleMolecular Sequence DataBiochemistryMicrobodiesCopurificationchemistry.chemical_compoundFenofibrateProtein purificationAnimalsAmino Acid SequenceRats WistarPeptide sequenceDihydroxyacetone phosphatechemistry.chemical_classificationOxidase testChromatofocusingMembrane ProteinsGeneral MedicinePeroxisomeMolecular biologyRatsEnzymechemistryBiochemistryLiverSolubilitySequence AnalysisAcyltransferasesBiochimie
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In situ hybridization of dihydroxyacetone phosphate acyltransferase, the regulating enzyme involved in plasmalogen biosynthesis

2005

International audience; In situ hybridization can be carried out using different methods. The experimenter has to choose various parameters: the type of tissue fixation, the time of incubation, and the duration of the exposure time. All these parameters are determinant for the sensitivity and the resolution of this technique. This publication of technical aspects described different experiments performed for in situ hybridization on liver tissue. We may conclude on the parameters to optimize each step of the hybridization procedure. Moreover, this technique could be transposed to the brain and applied to little structures with a light expression of DHAP-AT.

MaleTime FactorsTissue FixationLIVERPlasmalogenIn situ hybridizationIn Vitro TechniquesBiologySensitivity and Specificity03 medical and health sciencesCellular and Molecular Neurosciencechemistry.chemical_compound0302 clinical medicineBiosynthesisLiver tissueAnimals[SDV.BBM]Life Sciences [q-bio]/Biochemistry Molecular BiologyRNA MessengerRats WistarBRAINMolecular Biology030304 developmental biologyDihydroxyacetone phosphateIN SITU HYBRIDIZATIONchemistry.chemical_classification0303 health sciencesBase SequenceReverse Transcriptase Polymerase Chain ReactionRatsMolecular hybridizationEnzymechemistryBiochemistryDIHYDROXYACETONE PHOSPHATE ACYLTRANSFERASEAcyltransferaseAcyltransferases030217 neurology & neurosurgeryPLASMALOGENSubcellular Fractions
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Die α-Glycerophosphat-Oxydation des Heuschreckenbrustmuskels (Locusta migratoria)

1956

The conditions were studied for the glycerophosphate oxidation by homogenate from locust flight muscle, and the O2-consumption was measured. Maximal oxidation rates were found with 0.087m glycerophosphate, 8 × 10−6m cytochromec, 7 × 10−6m DPN and pH 7.5. The production of dihydroxyacetone phosphate is followed by further oxidation steps, as could be shown by estimation of the different fractions of acid-soluble phosphate. Comparative studies were made on different insects and vertebrates. The rate of succinate oxidation by insect muscle was found to be ten times higher than that of vertebrate muscle. The relation of glycerophosphate oxidation to succinate oxidation is quite different in ins…

PharmacologyMuscle metabolismAlpha-glycerophosphatebiologymedia_common.quotation_subjectPectoral muscleCell BiologyInsectCarbohydratebiology.organism_classificationPhosphateCellular and Molecular Neurosciencechemistry.chemical_compoundBiochemistrychemistryMolecular MedicineMolecular BiologyLocustDihydroxyacetone phosphatemedia_commonExperientia
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