Publications by authors named "Phanee Manganas"

Article Synopsis
  • * SCs respond to their mechanical environment, with factors like material properties, elasticity, and surface texture influencing their behavior during development and injury.
  • * Research on SCs' mechanobiological responses is crucial for improving scaffold designs in tissue engineering and regenerative medicine to better repair PNS injuries.
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Damage in the Peripheral Nervous System (PNS) is related to numerous neurodegenerative diseases and has consequently drawn the attention of Tissue Engineering (TE), which is considered a promising alternative to already established methods such as surgery and autografts. TE focuses on the design, optimization, and use of scaffolds in vitro and in vivo. In this work, the authors used a novel scaffold geometry fabricated via Multiphoton Lithography (MPL), a commonly used fabrication method, for the mono- and co-cultures of glial Schwann (SW10) and neuronal Neuro-2a (N2a) cells.

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Article Synopsis
  • - The study investigates how varying femtosecond laser parameters, like fluence, energy dose, and interpulse delay, affect the surface patterns created on stainless steel using double pulses.
  • - Short interpulse delays (5 ps) favor the formation of low spatial frequency structures, while longer delays (20 ps) promote high spatial frequency patterns, impacting the topography of the material.
  • - The research shows a link between surface roughness and wetting properties, as well as cell adhesion responses, highlighting the potential for creating custom surfaces for functional implants.
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Mitochondria are organelles that play a central role in cellular metabolism, as they are responsible for processes such as iron/sulfur cluster biogenesis, respiration and apoptosis. Here, we describe briefly the various protein import pathways for sorting of mitochondrial proteins into the different subcompartments, with an emphasis on the targeting to the intermembrane space. The discovery of a dedicated redox-controlled pathway in the intermembrane space that links protein import to oxidative protein folding raises important questions on the redox regulation of this process.

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The mitochondrial intermembrane space (IMS) is involved in protein transport, lipid homeostasis and metal ion exchange, while further acting in signalling pathways such as apoptosis. Regulation of these processes involves protein modifications, as well as stress-induced import or release of proteins and other signalling molecules. Even though the IMS is the smallest sub-compartment of mitochondria, its redox state seems to be tightly regulated.

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Mitochondria are fundamental organelles with a complex internal architecture that fulfill important diverse functions including iron-sulfur cluster assembly and cell respiration. Intense work for more than 30 years has identified the key protein import components and the pathways involved in protein targeting and assembly. More recently, oxidative folding has been discovered as one important mechanism for mitochondrial proteostasis whilst several human disorders have been linked to this pathway.

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