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Springer Nature2
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In vitro models1
Molecular Neurobiology1
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20261
20251
Livia Angeloni results 2 · Newest (Page 1/1, per page 25)
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Less Is More: A Physiological Dose of Vitamin B12 Enhances Neural Recovery Compared to a High Dose in an H₂O₂-Stressed SH-SY5Y Neural-Like Cell ModelNARA Subscribed
Molecular Neurobiology · 2026 · Vol. 63 · Issue 1 · Springer
Aimee Rachel Mathew; Luca Buccini; Anacleto Proietti; Giacomo Di Matteo; Erisa Selita; Ilaria Serangeli; Roberta Stefanelli; Elisa Gazzera; Francesco Mura; Luisa Mannina; Marco Rossi; Antonella De Jaco; Elena Miranda; Ada Maria Tata; Livia Angeloni; Piergiorgio La Rosa; Daniele Passeri; Virve Cavallucci; Marco Fidaleo
Vitamin B12 (VitB12) plays a crucial role in neural homeostasis, and a high dose is preferred as treatment to support recovery from neural impairments. However, a significant knowledge gap remains regarding its dose-dependent effects, particularly in its influence on cellular recovery following neural damage. To address this, we utilized retinoic acid-differentiated SH-SY5Y cells, as an in vitro neural model, where we induced...
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In vitro model assesses the susceptibility of polymeric scaffolds for material-driven heart valve regeneration to calcificationNARA Subscribed
In vitro models · 2025 · Vol. 4 · Issue 2 · Springer
Dewy C. van der Valk; Charlotte M. Hoes; Yunia M. H. Rasenberg; Paul A. A. Bartels; Livia Angeloni; Bente J. de Kort; Paul J. F. M. Janssen; Frank P. T. Baaijens; Anthal I. P. M. Smits; Carlijn V. C. Bouten
Purpose Material driven in situ heart valve tissue engineering (HVTE) prospects an alternative to non-living replacements. HVTE exploits bioresorbable (synthetic) scaffolds that guide neo-tissue formation. Proper scaffold design assesses and mitigates potential material-related risks, such as calcific nodule formation. Herein, we establish an in vitro model to investigate the calcification risk of materials for HVTE. Methods C...
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