Please use this identifier to cite or link to this item: https://hdl.handle.net/2440/7343
Citations
Scopus Web of Science® Altmetric
?
?
Full metadata record
DC FieldValueLanguage
dc.contributor.authorRaben, N.-
dc.contributor.authorLu, N.-
dc.contributor.authorNagaraju, K.-
dc.contributor.authorRivera, Y.-
dc.contributor.authorLee, A.-
dc.contributor.authorYan, B.-
dc.contributor.authorByrne, B.-
dc.contributor.authorMeikle, P.-
dc.contributor.authorUmapathysivam, K.-
dc.contributor.authorHopwood, J.-
dc.contributor.authorPlotz, P.-
dc.date.issued2001-
dc.identifier.citationHuman Molecular Genetics, 2001; 10(19):2039-2047-
dc.identifier.issn0964-6906-
dc.identifier.issn1460-2083-
dc.identifier.urihttp://hdl.handle.net/2440/7343-
dc.description.abstractBoth enzyme replacement and gene therapy of lysosomal storage disorders rely on the receptor-mediated uptake of lysosomal enzymes secreted by cells, and for each lysosomal disorder it is necessary to select the correct cell type for recombinant enzyme production or for targeting gene therapy. For example, for the therapy of Pompe disease, a severe metabolic myopathy and cardiomyopathy caused by deficiency of acid -glucosidase (GAA), skeletal muscle seems an obvious choice as a depot organ for local therapy and for the delivery of the recombinant enzyme into the systemic circulation. Using knockout mice with this disease and transgenes containing cDNA for the human enzyme under muscle or liver specific promoters controlled by tetracycline, we have demonstrated that the liver provided enzyme far more efficiently. The achievement of therapeutic levels with skeletal muscle transduction required the entire muscle mass to produce high levels of enzyme of which little found its way to the plasma, whereas liver, comprising <5% of body weight, secreted 100-fold more enzyme, all of which was in the active 110 kDa precursor form. Furthermore, using tetracycline regulation, we somatically induced human GAA in the knockout mice, and demonstrated that the skeletal and cardiac muscle pathology was completely reversible if the treatment was begun early.-
dc.description.statementofresponsibilityN. Raben, N. Lu, K. Nagaraju, Y. Rivera, A. Lee, B. Yan, B. Byrne, P.J. Meikle, K. Umapathysivam, J.J. Hopwood and P.H. Plotz-
dc.language.isoen-
dc.publisherOxford Univ Press-
dc.rights© 2001 Oxford University Press-
dc.source.urihttp://dx.doi.org/10.1093/hmg/10.19.2039-
dc.subjectMuscle, Skeletal-
dc.subjectLiver-
dc.subjectCells, Cultured-
dc.subjectAnimals-
dc.subjectMice, Transgenic-
dc.subjectMice, Knockout-
dc.subjectHumans-
dc.subjectMice-
dc.subjectGlycogen Storage Disease Type II-
dc.subjectGlycogen-
dc.subjectalpha-Glucosidases-
dc.subjectBlotting, Western-
dc.subjectTransfection-
dc.subjectReverse Transcriptase Polymerase Chain Reaction-
dc.subjectOrgan Specificity-
dc.subjectGene Expression-
dc.subjectGene Expression Regulation, Enzymologic-
dc.subjectGenetic Therapy-
dc.titleConditional tissue-specific expression of the acid α-glucosidase (GAA) gene in the GAA knockout mice: implications for therapy-
dc.title.alternativeConditional tissue-specific expression of the acid alpha-glucosidase (GAA) gene in the GAA knockout mice: implications for therapy-
dc.typeJournal article-
dc.identifier.doi10.1093/hmg/10.19.2039-
pubs.publication-statusPublished-
Appears in Collections:Aurora harvest
Paediatrics publications

Files in This Item:
There are no files associated with this item.


Items in DSpace are protected by copyright, with all rights reserved, unless otherwise indicated.