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F. Morandini

Researcher at University of Brescia

Publications -  8
Citations -  227

F. Morandini is an academic researcher from University of Brescia. The author has contributed to research in topics: Glutathione & Cell growth. The author has an hindex of 6, co-authored 8 publications receiving 216 citations.

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Stress proteins and oxidative damage in a renal derived cell line exposed to inorganic mercury and lead.

TL;DR: In NRK-52E cell line the stress response is an early and metal-induced event that correlates well with the direct oxidative damage induced by mercury, and different chaperones are involved in the specific nephrotoxic mechanism of these environmental pollutants and work together for cell survival.
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Endogenous thiols and MRP transporters contribute to Hg2+ efflux in HgCl2-treated tubular MDCK cells.

TL;DR: The results demonstrate that, in MDCK cells, inorganic Hg(2+) promotes the activation of specific detoxifying pathways that may, at least partly, depend on the activity of MRP transporters.
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Antioxidant potential and gap junction-mediated intercellular communication as early biological markers of mercuric chloride toxicity in the MDCK cell line.

TL;DR: Results, proving that subcytotoxic HgCl(2) concentrations affect either the antioxidant defences of MDCK cells or their GJIC, indicate these critical functions as suitable biological targets of early mercury-induced tubular cell injury.
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Focal adhesion molecules as potential target of lead toxicity in NRK-52E cell line.

TL;DR: It is shown that, in proliferating NRK‐52E cell cultures, low concentrations of Pb(II) affect the cell adhesive ability and stimulate the disassembly of FAs, thus inhibiting the integrin‐activated signalling.
Journal Article

In vitro study of the nephrotoxic mechanism of mercuric chloride

TL;DR: In vitro investigation of the mechanism(s) of the early nephrotoxic potential of mercury chloride (HgCl2), one of the most diffused and biologically active mercury ( Hg2+) compounds, indicates that MDCK cells represent a suitable in vitro model for the study of Hg neph rotations.