Carlo Barbante

Prof. Carlo Barbante

orcid

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 January 2014 in Metallomics
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Journal Article
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MRMarco Roman
Marco Roman
PJPetru Jitaru
Petru Jitaru
CBCarlo Barbante
Carlo Barbante
Despite its very low level in humans, selenium plays an important and unique role among the (semi)metal trace essential elements because it is the onl

23 September 2016 in Atmospheric Chemistry and Physics
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Journal Article
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FSFrancesca Sprovieri
Francesca Sprovieri
NPNicola Pirrone
Nicola Pirrone
MBMariantonia Bencardino
Mariantonia Bencardino
Francesco D'AmoreFrancesco D'Amore
Francesco D'Amore
FCFrancesco Carbone
Francesco Carbone
CNClaus Norstrom
Claus Norstrom
Long-term monitoring of data of ambient mercury (Hg) on a global scale to assess its emission, transport, atmospheric chemistry, and deposition processes is vital to understanding the impact of Hg pollution on the environment. The Global Mercury Observation System (GMOS) project was funded by the European Commission (http://www.gmos.eu) and started in November 2010 with the overall goal to develop a coordinated global observing system to monitor Hg on a global scale, including a large network of ground-based monitoring stations, ad hoc periodic oceanographic cruises and measurement flights in the lower and upper troposphere as well as in the lower stratosphere. To date, more than 40 ground-based monitoring sites constitute the global network covering many regions where little to no observational data were available before GMOS. This work presents atmospheric Hg concentrations recorded worldwide in the framework of the GMOS project (2010–2015), analyzing Hg measurement results in terms of temporal trends, seasonality and comparability within the network. Major findings highlighted in this paper include a clear gradient of Hg concentrations between the Northern and Southern hemispheres, confirming that the gradient observed is mostly driven by local and regional sources, which can be anthropogenic, natural or a combination of both.

Verified
Journal Article
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CRChiara Rigo
Chiara Rigo
LFLetizia Ferroni
Letizia Ferroni
ITIlaria Tocco Tussardi
Ilaria Tocco Tussardi
MRMarco Roman
Marco Roman
IMIvan Munivrana
Ivan Munivrana
Barbara ZavanBarbara Zavan
Barbara Zavan
In this preliminary study, the silver nanoparticle (Ag NP)-based dressing, Acticoat™ Flex 3, has been applied to a 3D fibroblast cell culture in vitro and to a real partial thickness burn patient. The in vitro results show that Ag NPs greatly reduce mitochondrial activity, while cellular staining techniques show that nuclear integrity is maintained, with no signs of cell death. For the first time, transmission electron microscopy (TEM) and inductively coupled plasma mass spectrometry (ICP-MS) analyses were carried out on skin biopsies taken from a single patient during treatment. The results show that Ag NPs are released as aggregates and are localized in the cytoplasm of fibroblasts. No signs of cell death were observed, and the nanoparticles had different distributions within the cells of the upper and lower dermis. Depth profiles of the Ag concentrations were determined along the skin biopsies. In the healed sample, most of the silver remained in the surface layers, whereas in the unhealed sample, the silver penetrated more deeply. The Ag concentrations in the cell cultures were also determined. Clinical observations and experimental data collected here are consistent with previously published articles and support the safety of Ag NP-based dressing in wound treatment.

1 January 2020 in Chemosphere
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Journal Article
Closed access
Fabiana CoramiFabiana Corami
Fabiana Corami
BRBeatrice Rosso
Beatrice Rosso
BBBarbara Bravo
Barbara Bravo
AGAndrea Gambaro
Andrea Gambaro
CBCarlo Barbante
Carlo Barbante

2 July 2004 in Environmental Science & Technology
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Journal Article
Closed access
CBCarlo Barbante
Carlo Barbante
MSMargit Schwikowski
Margit Schwikowski
TDThomas Döring
Thomas Döring
HGHeinz W. Gäggeler
Heinz W. Gäggeler
USUlrich Schotterer
Ulrich Schotterer
CBClaude Boutron
Claude Boutron

29 October 2014 in Climate of the Past
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Journal Article
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PZP. Zennaro
P. Zennaro
Natalie KehrwaldNatalie Kehrwald
Natalie Kehrwald
JMJ. R. McConnell
J. R. McConnell
SSS. Schüpbach
S. Schüpbach
OMO. J. Maselli
O. J. Maselli
CBCarlo Barbante
Carlo Barbante
Biomass burning is a major source of greenhouse gases and influences regional to global climate. Pre-industrial fire-history records from black carbon, charcoal and other proxies provide baseline estimates of biomass burning at local to global scales spanning millennia, and are thus useful to examine the role of fire in the carbon cycle and climate system. Here we use the specific biomarker levoglucosan together with black carbon and ammonium concentrations from the North Greenland Eemian (NEEM) ice cores (77.49° N, 51.2° W; 2480 m a.s.l) over the past 2000 years to infer changes in boreal fire activity. Increases in boreal fire activity over the periods 1000–1300 CE and decreases during 700–900 CE coincide with high-latitude NH temperature changes. Levoglucosan concentrations in the NEEM ice cores peak between 1500 and 1700 CE, and most levoglucosan spikes coincide with the most extensive central and northern Asian droughts of the past millennium. Many of these multi-annual droughts are caused by Asian monsoon failures, thus suggesting a connection between low- and high-latitude climate processes. North America is a primary source of biomass burning aerosols due to its relative proximity to the Greenland Ice Cap. During major fire events, however, isotopic analyses of dust, back trajectories and links with levoglucosan peaks and regional drought reconstructions suggest that Siberia is also an important source of pyrogenic aerosols to Greenland.