PubMed چکیده/رکورد

Autolysosomal enhancer GHF201 attenuates pathophysiology in a mucopolysaccharidosis type I mouse model.

استودیوی صوتی مقاله

پخش حرفه‌ای فارسی و انگلیسی

در حال بررسی نسخه‌های صوتی ذخیره‌شده…

صوت تولیدشده با هوش مصنوعی است. برای کاربرد علمی یا درمانی، متن و منبع اصلی را بررسی کنید.
خواندن هوشمند فارسی و انگلیسی در حال آماده‌سازی صداهای مرورگر…
تنظیم صدای طبیعی و سرعت

صداهایی که در نامشان «Natural»، «Neural» یا «Online» دیده می‌شود معمولاً طبیعی‌ترند. انتخاب صدا به صداهای نصب‌شده در ویندوز و مرورگر شما بستگی دارد.

چکیده اصلی

Mucopolysaccharidosis type I (MPS-I) is a hereditary lysosomal storage disorder caused by deficiency in the lysosomal enzyme α-L-iduronidase (IDUA) leading to pathogenic over-accumulation of glycosaminoglycans (GAGs), major constituent of connective tissue and mediators of cell signaling. We tested the therapeutic efficacy of the autolysosomal activator GHF201 in the Idua -/- mouse model of MPS-I. We show that GHF201 reduced GAGs and increased cathepsin activity in Idua -/- mouse embryonic fibroblasts (MEFs) and brain cells. In vivo GHF201 improved aberrant locomotion and behavior, reduced interstitial cathepsins in joints and liver, increased systemic catabolism, corrected bone dysplasia, increased autophagic flux, and ameliorated CNS neurodegeneration and neuroinflammation. GHF201 also reduced brain N-glycans, which are degraded in lysosomes. In conclusion, the lysosomal and autophagic activator GHF201 was demonstrated to improve various pathophysiological parameters in MPS-I-modeling Idua -/- female mice. Our results suggest that GHF201 can complement the inadequate Aldurazyme enzyme replacement therapy as an add-on therapy.

متن کامل اصلی

متن در JumpToDate ذخیره نشده است.

برای بررسی دسترسی کتابخانه‌ای یا خرید، رکورد اصلی را باز کنید.

رفتن به منبع اصلی
در همین زیرشاخه

مقاله‌های مرتبط

PubMed2027

A Modelling Approach to Resolve Gene Temporal Dynamics in Intestinal Inflammation.

The intestinal epithelium is maintained by stem cells at the crypt base, however, acute or chronic inflammation can severely disrupt stem cell function and tissue homeostasis. To characterize mucosal inflammation and tissue damage, we evaluated time-course gene expression changes using a dextran sulfate sodium (DSS)-induced mouse model of colitis. By applying normalization, Z-score transformation, and spline curve modeling, we trace th…

PubMed2027

A Straightforward and Reliable Mouse Model of Colorectal Cancer by Orthotopic Transplantation.

Colorectal cancer (CRC) is a major malignancy with significant global implications for human health. The development of a reliable and pathologically relevant orthotopic CRC model is essential for advancing our understanding of its molecular mechanisms and for developing more effective therapeutic interventions. However, the construction of such models is fraught with challenges primarily because of the technical complexities involved …

PubMed2027

Immunophenotyping Studies in Nonhuman Primate Models.

Nonhuman primate (NHP) models are important in biomedical research due to their close evolutionary relationship with humans, which provides a high degree of anatomical, genetic, and physiological similarity. This close resemblance is particularly valuable for studying complex biological processes and diseases that are difficult to model in other animals. NHPs have hematopoietic and immune systems that closely mirror those of humans, ma…

PubMed2027

Quantifying Chlamydia in the Mouse Gastrointestinal Tract.

Chlamydia trachomatis (CT) causes genital tract infection in humans, but the clinical significance of C. trachomatis detection in the gastrointestinal (GI) tract is an area of active research. Chlamydia muridarum (CM) is a mouse-adapted species used to investigate chlamydial biology and pathogenicity in both the genital and gastrointestinal tracts. Since chlamydial colonization of different segments of the GI tract may lead to distinct…