Antonio Tagarelli

Prof. Antonio Tagarelli

Department of Chemistry and Chemical Technologies, University of Calabria, Italy
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Research Focus & Metrics

Academic Career Length

31Years (1996-Present)

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

Representative Publications

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1 March 2007 in Analytica Chimica Acta
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Journal Article
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CBCinzia Benincasa
Cinzia Benincasa
JLJohn Lewis
John Lewis
EPEnzo Perri
Enzo Perri
GSGiovanni Sindona
Giovanni Sindona
Antonio TagarelliAntonio Tagarelli
Antonio Tagarelli


1 April 2010 in Applied Catalysis A: General
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Journal Article
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Anastasia MacarioAnastasia Macario
Anastasia Macario
GGGirolamo Giordano
Girolamo Giordano
BOBarbara Onida
Barbara Onida
DCDonato Cocina
Donato Cocina
Antonio TagarelliAntonio Tagarelli
Antonio Tagarelli
Angelo Maria GiuffrèAngelo Maria Giuffrè
Angelo Maria Giuffrè

1 December 2020 in Science of The Total Environment
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Journal Article
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Attilio NaccaratoAttilio Naccarato
Attilio Naccarato
ATAntonella Tassone
Antonella Tassone
FCFrancesco Cavaliere
Francesco Cavaliere
RERosangela Elliani
Rosangela Elliani
NPNicola Pirrone
Nicola Pirrone
AGAnita Giglio
Anita Giglio

1 March 2006 in Desalination
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Journal Article
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ACA. Cassano
A. Cassano
Alberto FIGOLIAlberto FIGOLI
Alberto FIGOLI
Antonio TagarelliAntonio Tagarelli
Antonio Tagarelli
GSGiovanni Sindona
Giovanni Sindona
Enrico DrioliEnrico Drioli
Enrico Drioli

4 July 2011 in Nanoscale
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Journal Article
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Catia MORELLICatia MORELLI
Catia MORELLI
PMPamela Maris
Pamela Maris
DSDiego Sisci
Diego Sisci
EPEnrico Perrotta
Enrico Perrotta
Elvira BrunelliElvira Brunelli
Elvira Brunelli
Luigi PasquaLuigi Pasqua
Luigi Pasqua
Mesoporous silica nanoparticles (MSNs) have been proposed as DNA and drug delivery carriers, as well as efficient tools for fluorescent cell tracking. The major limitation is that MSNs enter cells regardless of a target-specific functionalization. Here we show that non functionalized MSNs, synthesized using a PEG surfactant-based interfacial synthesis procedure, do not enter cells, while a highly specific, receptor mediated, cellular internalization of folic acid (FOL) grafted MSNs (MSN-FOL), occurs exclusively in folate receptor (FR) expressing cells. Neither the classical clathrin pathway nor macropinocytosis is involved in the MSN endocytic process, while fluorescent MSNs (MSN-FITC) enter cells through aspecific, caveolae-mediated, endocytosis. Moreover, internalized particles seem to be mostly exocytosed from cells within 96 h. Finally, cisplatin (Cp) loaded MSN-FOL were tested on cancerous FR-positive (HeLa) or normal FR-negative (HEK293) cells. A strong growth arrest was observed only in HeLa cells treated with MSN-FOL-Cp. The results presented here show that our mesoporous nanoparticles do not enter cells unless opportunely functionalized, suggesting that they could represent a promising vehicle for drug targeting applications.