0000000000458467

AUTHOR

Marc Martinell

showing 3 related works from this author

Ionic self-complementarity induces amyloid-like fibril formation in an isolated domain of a plant copper metallochaperone protein

2004

This article is available from: http://www.biomedcentral.com/1472-6807/4/7

BioquímicaSerum Amyloid A Proteinendocrine systemArabidopsis ProteinsProtein ConformationMolecular Sequence DataOsmolar ConcentrationArabidopsisBiological TransportProtein Structure Secondarylcsh:Biology (General)Amino Acid SequencePeptidesProteïneslcsh:QH301-705.5CopperMolecular ChaperonesResearch Article
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PPAR gamma agonist leriglitazone improves frataxin-loss impairments in cellular and animal models of Friedreich Ataxia

2020

Friedreich ataxia (FRDA), the most common autosomal recessive ataxia, is characterized by degeneration of the large sensory neurons and spinocerebellar tracts, cardiomyopathy, and increased incidence in diabetes. The underlying pathophysiological mechanism of FRDA, driven by a significantly decreased expression of frataxin (FXN), involves increased oxidative stress, reduced activity of enzymes containing iron‑sulfur clus-ters (ISC), defective energy production, calcium dyshomeostasis, and impaired mitochondrial biogenesis, leading to mitochondrial dysfunction. The peroxisome proliferator-activated receptor gamma (PPARγ) is a ligand-activated transcriptional factor playing a key role in mito…

0301 basic medicineAtaxiaCell SurvivalCaspase 3PPAR agonistlcsh:RC321-57103 medical and health sciencesMice0302 clinical medicineIron-Binding ProteinsmedicineNeuritesAnimalsHumansMyocytes CardiacNeurodegenerationDorsal root ganglia neuronslcsh:Neurosciences. Biological psychiatry. NeuropsychiatryMembrane Potential MitochondrialNeuronsCardiomyocytesbiologyChemistryFrataxinNeurodegenerationCalpainLipid DropletsPeroxisomemedicine.diseaseCell biologyMitochondriaRatsPPAR gamma030104 developmental biologyNeurologyMitochondrial biogenesisFriedreich AtaxiaFrataxinbiology.proteinThiazolidinedionesmedicine.symptomMitochondrial function030217 neurology & neurosurgery
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2004

Background Arabidopsis thaliana copper metallochaperone CCH is a functional homologue of yeast antioxidant ATX1, involved in cytosolic copper transport. In higher plants, CCH has to be transported to specialised cells through plasmodesmata, being the only metallochaperone reported to date that leaves the cell where it is synthesised. CCH has two different domains, the N-terminal domain conserved among other copper-metallochaperones and a C-terminal domain absent in all the identified non-plant metallochaperones. The aim of the present study was the biochemical and biophysical characterisation of the C-terminal domain of the copper metallochaperone CCH.

endocrine systembiologyfood and beverageschemistry.chemical_elementPlasmodesmabiology.organism_classificationCopperYeastMetallochaperonesCytosolProtein structurechemistryBiochemistryStructural BiologyArabidopsisBiophysicsPeptide sequenceBMC Structural Biology
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