Mascia Benedusi

Dr. Mascia Benedusi

Department of Physics and Earth Science, University of Ferrara, 9-44121 Ferrara, Italy

Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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12 November 2003 in Journal of Neuroscience
Verified
Journal Article
Open access
PDF file
OBOttorino Belluzzi
Ottorino Belluzzi
Mascia BenedusiMascia Benedusi
Mascia Benedusi
JAJames Ackman
James Ackman
JLJoseph J. LoTurco
Joseph J. LoTurco
The subventricular zone produces neuroblasts that migrate to the olfactory bulb (OB) and differentiate into interneurons throughout postnatal life (Altman and Das, 1966; Hinds, 1968; Altman, 1969; Kishi et al., 1990; Luskin, 1993; Lois and Alvarez-Buylla, 1994). Although such postnatally generated interneurons have been characterized morphologically, their physiological differentiation has not been thoroughly described. Combining retroviral-mediated labeling of newly generated neurons with patch-clamp electrophysiology, we demonstrated that soon after new cells enter the layers of the olfactory bulb, they display voltage-dependent currents typical of more mature neurons. We also show that these “newcomers” express functional GABA and glutamate receptor channels, respond synaptically to stimulation of the olfactory nerve, and may establish both axodendritic and dendrodendritic synaptic contacts within the olfactory bulb. These data provide a basic description of the physiology of newly generated cells in the OB and show that such new cells are functional neurons that synaptically integrate into olfactory bulb circuitry soon after their arrival.

11 May 2022 in Pharmaceutics
Verified
Journal Article
Open access
PDF file
FFFrancesca Ferrara
Francesca Ferrara
Mascia BenedusiMascia Benedusi
Mascia Benedusi
Maddalena SguizzatoMaddalena Sguizzato
Maddalena Sguizzato
Rita CortesiRita Cortesi
Rita Cortesi
ABAnna Baldisserotto
Anna Baldisserotto
Elisabetta EspositoElisabetta Esposito
Elisabetta Esposito
The present study is aimed to design ethosomes and transethosomes for topical administration of quercetin. To overcome quercetin low bioavailability, scarce solubility and poor permeability that hamper its pharmaceutical use, the drug was loaded in ethosomes and transethosomes based on different concentrations of phosphatidylcholine. Vesicle morphology was studied by cryogenic transmission electron microscopy, while size distribution and quercetin entrapment capacity were evaluated up to 3 months, respectively, by photon correlation spectroscopy and high-performance liquid chromatography. The antioxidant property was studied by photochemiluminescence test. Quercetin release and permeation was investigated in vitro, using Franz cells associated to different membranes. In vitro assays were conducted on human keratinocytes and melanoma cells to study the behavior of quercetin-loaded nano-vesicular forms with respect to cell migration and proliferation. The results evidenced that both phosphatidylcholine concentration and quercetin affected the vesicle size. Quercetin entrapment capacity, antioxidant activity and size stability were controlled using transethosomes produced by the highest amount of phosphatidylcholine. In vitro permeation studies revealed an enhancement of quercetin permeation in the case of transethosomes with respect to ethosomes. Notably, scratch wound and migration assays suggested the potential of quercetin loaded-transethosomes as adjuvant strategy for skin conditions.

11 April 2007 in Carcinogenesis
Verified
Journal Article
Open access
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VBValeria Bertagnolo
Valeria Bertagnolo
Mascia BenedusiMascia Benedusi
Mascia Benedusi
FBFederica Brugnoli
Federica Brugnoli
PLPaola Lanuti
Paola Lanuti
MMMarco Marchisio
Marco Marchisio
SCSilvano Capitani
Silvano Capitani
Like most human neoplasm, breast cancer has aberrations in signal transduction elements that can lead to increased proliferative potential, apoptosis inhibition, tissue invasion and metastasis. Due to the high heterogeneity of this tumor, currently, no markers are clearly associated with the insurgence of breast cancer, as well as with its progression from in situ lesion to invasive carcinoma. We have recently demonstrated an altered expression of the β2 isoform of the phosphoinositide-dependent phospholipase C (PLC) in invasive breast tumors with different histopathological features. In primary breast tumor cells, elevated amounts of this protein are closely correlated with a poor prognosis of patients with mammary carcinoma, suggesting that PLC-β2 may be involved in the development and worsening of the malignant phenotype. Here we demonstrate that PLC-β2 may improve some malignant characteristics of tumor cells, like motility and invasion capability, but it fails to induce tumorigenesis in non-transformed breast-derived cells. We also report that, compared with the G0/G1 phases of the cell cycle, the cells in S/G2/M phases show high PLC-β2 expressions that reach the greatest levels during the late mitotic stages. In addition, even if unable to modify the proliferation rate and the expression of cell cycle-related enzymes of malignant cells, PLC-β2 may promote the G2/M progression, a critical event in cancer evolution. Since phosphoinositides, substrates of PLC, are involved in regulating cytoskeleton architecture, PLC-β2 in breast tumor cells may mediate the modification of cell shape that characterizes cell division, motility and invasion. On the basis of these data, PLC-β2 may constitute a molecular marker of breast tumor cells able to monitor the progression to invasive cancers and a target for novel therapeutic breast cancer strategies.

1 January 2004 in Neuroscience
Verified
Journal Article
Closed access
OBO Belluzzi
O Belluzzi
MPM Puopolo
M Puopolo
Mascia BenedusiMascia Benedusi
Mascia Benedusi
IKI Kratskin
I Kratskin

1 June 2018 in Mechanisms of Ageing and Development
Verified
Journal Article
Closed access
ARArianna Romani
Arianna Romani
Carlo CervellatiCarlo Cervellati
Carlo Cervellati
XMXimena M Muresan
Ximena M Muresan
GBGiuseppe Belmonte
Giuseppe Belmonte
APAlessandra Pecorelli
Alessandra Pecorelli
Giuseppe ValacchiGiuseppe Valacchi
Giuseppe Valacchi

3 June 2020 in Antioxidants
Verified
Journal Article
Open access
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Maddalena SguizzatoMaddalena Sguizzato
Maddalena Sguizzato
Paolo MarianiPaolo Mariani
Paolo Mariani
FSFrancesco Spinozzi
Francesco Spinozzi
Mascia BenedusiMascia Benedusi
Mascia Benedusi
FCFranco Cervellati
Franco Cervellati
Elisabetta EspositoElisabetta Esposito
Elisabetta Esposito
Ethosome represents a smart transdermal vehicle suitable for solubilization and cutaneous application of drugs. Coenzyme Q10 is an endogenous antioxidant whose supplementation can counteract many cutaneous disorders and pathologies. In this respect, the present study describes the production, characterization, and cutaneous protection of phosphatidylcholine based ethosomes as percutaneous delivery systems for coenzyme Q10. CoQ10 entrapment capacity in ethosomes was almost 100%, vesicles showed the typical ‘fingerprint’ structure, while mean diameters were around 270 nm, undergoing an 8% increase after 3 months from production. An ex-vivo study, conducted by transmission electron microscopy, could detect the uptake of ethosomes in human skin fibroblasts and the passage of the vesicles through 3D reconstituted human epidermis. Immunofluorescence analyses were carried on both on fibroblasts and 3D reconstituted human epidermis treated with ethosomes in the presence of H2O2 as oxidative stress challenger, evaluating 4-hydroxynonenal protein adducts which is as a reliable biomarker for oxidative damage. Notably, the pretreatment with CoQ10 loaded in ethosomes exerted a consistent protective effect against oxidative stress, in both models, fibroblasts and in reconstituted human epidermis respectively.