Paolo Sansò

Dr. Paolo Sansò

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Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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25 June 2014 in Geoheritage
Verified
Journal Article
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SMS. Margiotta
S. Margiotta
PSPaolo Sansò
Paolo Sansò

10 December 2013 in Geoheritage
Verified
Journal Article
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PSPaolo Sansò
Paolo Sansò
SMStefano Margiotta
Stefano Margiotta
Giuseppe MastronuzziGiuseppe Mastronuzzi
Giuseppe Mastronuzzi
AVAndrea Vitale
Andrea Vitale

29 March 2020 in Rendiconti Lincei. Scienze Fisiche e Naturali
Verified
Journal Article
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Giovanni ScardinoGiovanni Scardino
Giovanni Scardino
APArcangelo Piscitelli
Arcangelo Piscitelli
MMMaurilio Milella
Maurilio Milella
PSPaolo Sansò
Paolo Sansò
Giuseppe MastronuzziGiuseppe Mastronuzzi
Giuseppe Mastronuzzi

GFGiovanni De Filippis
Giovanni De Filippis
PPPrisco Piscitelli
Prisco Piscitelli
ICidelberto francesco castorini
idelberto francesco castorini
ARAnna Maria Raho
Anna Maria Raho
AIAdele Idolo
Adele Idolo
OPOn behalf of Local Health Authority ASL Lecce and Regional Agency for Environmental Protection (ARPA Puglia)
On behalf of Local Health Authority ASL Lecce and Regional Agency for Environmental Protection (ARPA Puglia)
Background: At global level, the vulnerability of aquifers is deteriorating at an alarming rate due to environmental pollution and intensive human activities. In this context, Local Health Authority ASL Lecce has launched the M.I.N.O.Re. (Not Compulsory Water Monitoring Activities at Regional level) project, in order to assess the vulnerability of the aquifer in Salento area (Puglia Region) by performing several non-compulsory analyses on groundwater samples. This first paper describes the quali-quantitative approach adopted under the M.I.N.O.Re. project for the assessment of environmental pressures suffered by groundwater and determines the number of wells to be monitored in specific sampling areas on the basis of the local potential contamination and vulnerability of the aquifer. Methods: We created a map of the entire Lecce province, interpolating it with a grid that led to the subdivision of the study area in 32 quadrangular blocks measuring 10 km × 10 km. Based on current hydrogeological knowledge and institutional data, we used GIS techniques to represent on these 32 blocks the 12 different layers corresponding to the main anthropic or environmental type of pressures potentially impacting on the aquifer. To each kind of pressure, a score from 0 to 1 was attributed on the basis of the potential impact on groundwater. A total score was assigned to each of the 32 blocks. A higher number of wells was selected to be monitored in those blocks presenting higher risk scores for possible groundwater contamination due to anthropic/environmental pressures. Results: The range of total scores varied from 2.4 to 42.5. On the basis of total scores, the 10 km × 10 km blocks were divided into four classes of environmental pressure (1st class: from 0,1 to 10,00; 2nd class: from 10,01 to 20,00; 3rd class: from 20,1 to 30,00; 4th class: from 30,01 to 42,50). There were 11 areas in the 1st class, 9 areas in the 2nd class, 8 areas in the 3rd class and 4 areas in the 4th class. We assigned 1 monitoring well in 1st class areas, 2 monitoring wells in 2nd class areas, 3 monitoring wells in 3rd class areas and 4 monitoring wells in 4th class areas. Conclusion: The methodology developed under the M.I.N.O.Re. project could represent a useful model to be used in other areas to assess the environmental pressures suffered by aquifers and the quality of the groundwater.

27 May 2020 in Geosciences
Verified
Journal Article
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PSPaolo Sansò
Paolo Sansò
LCLucio Calcagnile
Lucio Calcagnile
PFPaola Fago
Paola Fago
SMSara Mazzotta
Sara Mazzotta
SNSergio Negri
Sergio Negri
Giuseppe MastronuzziGiuseppe Mastronuzzi
Giuseppe Mastronuzzi
Along the Ionian coast of Southern Apulia, a sand ridge has been detected at the inner border of a wide, low-elevated rocky platform. A multi-disciplinary analysis was carried out to define the main geomorphological and sedimentological features of this dune-like coastal deposit, to clarify its nature as well as to obtain chronological constraints for its development. The geomorphological survey reveals that the sand ridge is about 40–60 m wide, reaching a maximum elevation of 3.9 m above m.s.l., whereas its thickness can be estimated between 1.0 and 2.8 m. The sand ridge is in some places associated with large-size boulders. Grain size analysis shows that it is made up of poorly sorted coarse-medium sands with a gravelly fraction, without significant sedimentary structures, as confirmed by Ground Penetrating Radar survey. The micro and macro-faunal assemblage sampled in the sand ridge can be related to shallow-water environments with Posidonia oceanica meadows occurring offshore. The development of the studied sand ridge can be ascribed to a tsunami event able to mix up very coarse bioclastic sands placed at submerged platforms, storm beach deposits covering the low-elevated coastal platform in patches, and possibly older tsunami deposits. Accelerator Mass Spectometry radiocarbon age determinations on mollusc shells sampled from the sand ridge span from 929–1168 AD to 1707–1950 AD and cluster around the 18th–19th centuries, suggesting a possible association with a recent tsunami event. Data reported in the Euro-Mediterranean Tsunami Catalogue would indicate as the most likely event that one of the 25th April 1836, produced by a strong earthquake with its epicenter near Rossano village, on the Ionian coast of the Calabria region.

1 December 2016 in GeoResJ
Verified
Journal Article
Closed access
PSPaolo Sansò
Paolo Sansò
FGF. Gianfreda
F. Gianfreda
Giovanni LeucciGiovanni Leucci
Giovanni Leucci
GMG. Mastronuzzi
G. Mastronuzzi