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Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage

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Published in:Cell & Bioscience
Format: Online Article RSS Article
Published: 2026
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container_title Cell & Bioscience
description
discipline_display Bioengineering
discipline_facet Bioengineering
format Online Article
RSS Article
genre Journal Article
id rss_article:82695
institution FRELIP
journal_source_facet Cell & Bioscience
last_indexed 2026-06-20T21:40:52.349Z
publishDate 2026
publishDateSort 2026
record_format rss_article
spellingShingle Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
Bioengineering
General
Bioengineering
sub_discipline_display General
sub_discipline_facet General
subject_display Bioengineering
General
Bioengineering
subject_facet Bioengineering
General
Bioengineering
title Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_alt La inhibición de la translocación nuclear de PTEN por el péptido Tat-K13 atenúa la autofagia dependiente de p-JUN–SESN2–AMPK y mejora la recuperación neurológica después del daño cerebral hipóxico-isquémico neonatal
L'inhibition de la translocation nucléaire de PTEN par le peptide Tat-K13 atténue l'autophagie dépendante de p-JUN–SESN2–AMPK et améliore la récupération neurologique après lésion cérébrale hypoxique-ischémique néonatale
A inibição da translocação nuclear de PTEN pelo peptídeo Tat-K13 atenua a autofagia dependente de p-JUN–SESN2–AMPK e melhora a recuperação neurológica após dano cerebral hipóxico-isquêmico neonatal
title_auth Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_es_txt La inhibición de la translocación nuclear de PTEN por el péptido Tat-K13 atenúa la autofagia dependiente de p-JUN–SESN2–AMPK y mejora la recuperación neurológica después del daño cerebral hipóxico-isquémico neonatal
title_fr_txt L'inhibition de la translocation nucléaire de PTEN par le peptide Tat-K13 atténue l'autophagie dépendante de p-JUN–SESN2–AMPK et améliore la récupération neurologique après lésion cérébrale hypoxique-ischémique néonatale
title_full Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_fullStr Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_full_unstemmed Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_pt_txt A inibição da translocação nuclear de PTEN pelo peptídeo Tat-K13 atenua a autofagia dependente de p-JUN–SESN2–AMPK e melhora a recuperação neurológica após dano cerebral hipóxico-isquêmico neonatal
title_short Inhibition of PTEN nuclear translocation by peptide Tat-K13 attenuates p-JUN–SESN2–AMPK-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
title_sort inhibition of pten nuclear translocation by peptide tat-k13 attenuates p-jun–sesn2–ampk-dependent autophagy and enhances neurological recovery after neonatal hypoxic-ischemic brain damage
topic Bioengineering
General
Bioengineering
url https://link.springer.com/article/10.1186/s13578-026-01575-2