SANFILIPPO, ALESSIO
 Distribuzione geografica
Continente #
NA - Nord America 1.128
EU - Europa 801
AS - Asia 500
SA - Sud America 5
OC - Oceania 3
AF - Africa 1
Continente sconosciuto - Info sul continente non disponibili 1
Totale 2.439
Nazione #
US - Stati Uniti d'America 1.121
CN - Cina 493
IE - Irlanda 393
IT - Italia 143
FI - Finlandia 90
UA - Ucraina 69
DE - Germania 47
GB - Regno Unito 16
BE - Belgio 12
RO - Romania 10
CA - Canada 7
FR - Francia 5
RU - Federazione Russa 4
AU - Australia 3
BR - Brasile 3
IN - India 3
ES - Italia 2
PL - Polonia 2
SE - Svezia 2
SG - Singapore 2
BO - Bolivia 1
CL - Cile 1
EE - Estonia 1
EU - Europa 1
LK - Sri Lanka 1
LV - Lettonia 1
MD - Moldavia 1
NG - Nigeria 1
NL - Olanda 1
PT - Portogallo 1
RS - Serbia 1
TR - Turchia 1
Totale 2.439
Città #
Dublin 393
Chandler 259
Jacksonville 133
Nanjing 121
Ashburn 104
Beijing 81
Ann Arbor 59
Pavia 56
Lawrence 53
Medford 53
Princeton 53
Wilmington 52
Shanghai 50
Nanchang 46
Hebei 45
Genova 44
Changsha 35
Shenyang 35
Helsinki 34
Jiaxing 26
Hangzhou 18
Tianjin 16
Woodbridge 16
Brussels 12
Boardman 11
New York 10
Timisoara 10
Washington 10
San Francisco 9
Milan 8
Des Moines 7
Norwalk 7
Chengdu 5
Nave 5
Ronchis 5
Toronto 5
Vado Ligure 5
Dearborn 4
Seattle 4
Atlanta 3
Fairfield 3
Falls Church 3
Kunming 3
Los Angeles 3
Montichiari 3
Ningbo 3
Aubière 2
Melbourne 2
Orange 2
Santos 2
Serra 2
Taizhou 2
Warsaw 2
Yekaterinburg 2
Abuja 1
Bangalore 1
Belgrade 1
Bologna 1
Bonn 1
Borås 1
Brescia 1
Cambridge 1
Canberra 1
Charlottetown 1
Chicago 1
Chisinau 1
Colombo 1
Enschede 1
Frankfurt am Main 1
Genoa 1
Guangzhou 1
Lacey 1
London 1
Madrid 1
Markham 1
Oklahoma City 1
Perm 1
Redwood City 1
Riga 1
Singapore 1
Sucre 1
São Paulo 1
Tallinn 1
Tappahannock 1
Verona 1
Winder 1
Zhengzhou 1
Totale 1.969
Nome #
Mantle-crust interactions in the oceanic lithosphere: constraints from minor and trace elements in olivine 78
Building of the deepest gabbroic crust at a fossil slow spreading centre (Pineto gabbroic sequence, Alpine Jurassic ophiolites) 75
Building of the deepest gabbroic crust at a fossil slow spreading centre (Pineto gabbroic sequence, Alpine Jurassic ophiolites) 72
The Late Cretaceous continental succession of the Neuquén Basin (Argentina): facies-analysis, provenance patterns and detrital zircon geochronology in a back arc-foreland basin as a response to major geodynamic events. 70
Building of the deepest crust at a fossil slow-spreading centre (Pineto gabbroic sequence, Alpine Jurassic ophiolites) 70
A conceptual model for the formation of a km-scale gabbroic body in a fossil slow spreading center (Corsica ophiolites, France) 66
Cretaceous evolution of the Andean margin between 36°S and 40°S latitude through a multi-proxy provenance analysis of Neuquén Basin strata (Argentina) 65
Origin of gabbroic sequences from Alpine Jurassic ophiolites: implications for lower crust generation at slow spreading settings 62
Reactive flow as dominant evolution process in the lowermost oceanic crust: evidence from olivine of the Pineto ophiolite (Corsica) 62
Melt transport and deformation history in a “non-volcanic” ophiolitic section (Northern Apennine, Italy): implications for crustal accretion at slow spreading settings 61
Origin of olivine-rich troctolites from the oceanic lithosphere: a comparison between the Alpine Jurassic ophiolites and modern slow spreading ridges 57
Dynamic Accretion Beneath a Slow-Spreading Ridge Segment: IODP Hole 1473A and the Atlantis Bank Oceanic Core Complex 56
Lower crust generation in the Jurassic Ligurian-Piedmontese Basin (Pineto gabbroic complex, Corsica) 54
Detrital zircon provenance from the Neuquén Basin (South-central Andes): cretaceous geodynamic evolution and sedimentary response in a retroarc-foreland basin 52
Development and evolution of detachment faulting along 50 km of the Mid-Atlantic Ridge near 16.5N 51
Focused Melt Flow and Abyssal Magmatism at Lower Magma Supply Rates. 50
Origin of the gabbroic sequences from the Ligurian Jurassic ophiolites: implications for lower crust generation at slow spreading settings 49
Tectonic evolution of the Cretaceous back-arc to foreland Neuquén Basin (Argentina) through a detrital multi-proxy provenance study. 49
Ultra-depleted melt refertilization of mantle peridotites in a large intra-transform domain (Doldrums Fracture Zone; 7–8°N, Mid Atlantic Ridge) 49
Mantle-crust interactions in the oceanic lithosphere: constraints from minor and trace elements in olivine 47
International Ocean Discovery Program Expedition 360 Preliminary Report: Southwest Indian Ridge Lower Crust and Moho the nature of the lower crust and Moho at slower spreading ridges (SloMo Leg 1) 47
Emplacement and High-Temperature Evolution of Gabbros of the 16.5°N Oceanic Core Complexes (Mid-Atlantic Ridge): Insights Into the Compositional Variability of the Lower Oceanic Crust 46
About the origin of the olivine-rich troctolites from the ocean lithosphere: remnants of a reactive MOHO? 45
Zircon U–Pb geochronology of lower crust and quartzo-feldspathic clastic sediments from the Balagne ophiolite (Corsica) 45
New insights on the origin of troctolites from the breakaway area of the Godzilla Megamullion (Parece Vela back-arc basin): The role of melt-mantle interaction on the composition of the lower crust 45
Water, lithium and trace element compositions of olivine from Lanzo South replacive mantle dunites (Western Alps): New constraints into melt migration processes at cold thermal regimes 43
Compositional variations in spinel-hosted pargasite inclusions in the olivine-rich rock from the oceanic crust–mantle boundary zone 41
Crustal Accretion in a Slow Spreading Back‐Arc Basin: Insights From the Mado Megamullion Oceanic Core Complex in the Shikoku Basin 40
Occurrence of Felsic Rocks in Oceanic Gabbros from IODP Hole U1473A: Implications for Evolved Melt Migration in the Lower Oceanic Crust 40
Rhenium-osmium isotope fractionation at the oceanic crust-mantle boundary 39
A quantitative model to explain the bimodal distribution of gabbros from the 16.50ºN core complex: an attempt to explain the compositional heterogeneity of the lower oceanic crust. 38
Reactive overprint of the Central Indian Ridge mantle and formation of hybrid troctolites: reassessing the significance of bulk oceanic crust 37
Fractionation of highly siderophile and chalcogen elements in the lower oceanic crust: Insights from the troctolites of the Alpine-Apennine Jurassic ophiolites 37
Melt-rock reaction in the mantle: mantle troctolites from the Parece Vela ancient back-arc spreading center 36
Geochemistry of the lunayyir and khaybar volcanic fields (Saudi Arabia): Insights into the origin of cenozoic arabian volcanism 36
Melt transport and deformation history in a nonvolcanic ophiolitic section, northern Apennines, Italy: Implications for crustal accretion at slow spreading settings 35
Melt Rock Reaction in the Mantle and Accretion of the Lower Crust at Slow Spreading Ridges 35
Hybrid troctolites from mid-ocean ridges: inherited mantle in the lower crust 34
Role of ancient, ultra-depleted mantle in Mid-Ocean-Ridge magmatism 34
Reactive melt migration controls the trace element budget of the lower oceanic crust: Insights from the troctolite-olivine gabbro association of the pineto ophiolite (Corsica, France) 33
Early-Stage Melt-Rock Reaction in a Cooling Crystal Mush Beneath a Slow-Spreading Mid-Ocean Ridge (IODP Hole U1473A, Atlantis Bank, Southwest Indian Ridge) 33
A 400 Ma-long Nd-Hf isotopic evolution of melt-modified garnet-pyroxenites in an ancient subcontinental lithosphere (Lanzo North ophiolite, Western Alps) 33
IODP Expedition 360: First stage of drilling into Earth's Mantle 31
New Data on the Structure of the Megatransform System of the Doldrums (Central Atlantic) 30
The Ligurian Ophiolites: a journey through the building and evolution of slow spreading oceanic lithosphere 29
Multidisciplinary Investigation of the Transform Fault Zones Doldrums and Vema during Cruise 45 of the R/V “Akademik Nikolaj Strakhov” 29
Role of melting process and melt–rock reaction in the formation of Jurassic MORB-type basalts (Alpine ophiolites) 29
Ancient refractory asthenosphere revealed by mantle re-melting at the Arctic Mid Atlantic Ridge 28
Crustal Contamination and Hybridization of an Embryonic Oceanic Crust during the Red Sea Rifting (Tihama Asir Igneous Complex, Saudi Arabia) 27
Grain Size Variations Record Segregation of Residual Melts in Slow-Spreading Oceanic Crust (Atlantis Bank, 57°E Southwest Indian Ridge) 27
Geological and Geophysical Studies of the Double Transform Fault Charlie Gibbs (North Atlantic) during Cruise 50 of R/V Akademik Nikolaj Strakhov 23
Origin of oceanic ferrodiorites by injection of nelsonitic melts in gabbros at the Vema Lithospheric Section, Mid Atlantic Ridge 22
Geological and Geophysical Studies of the Charlie Gibbs Fracture Zone (North Atlantic) 20
Geological-Geophysical Investigations in the North Atlantic during Cruise 53 of the R/V Akademik Sergey Vavilov 20
Genesis of Oceanic Oxide Gabbros and Gabbronorites During Reactive Melt Migration at Transform Walls (Doldrums Megatransform System; 7–8◦N Mid-Atlantic Ridge) 19
Brown amphibole as tracer of tectono-magmatic evolution of the Atlantis Bank oceanic core complex (IODP Hole U1473A) 18
Peculiarities of the Tectonomagmatic Processes in the Interaction Area between the Icelandic Plume and the Bight Transform Fault (North Atlantic) 17
Large-scale structure of the doldrums multi-fault transform system (7-8ºn equatorial atlantic): Preliminary results from the 45th expedition of the R/V A.N. strakhov 17
Role of compaction in melt extraction and accumulation at a slow spreading center: Microstructures of olivine gabbros from the Atlantis Bank (IODP Hole U1473A, SWIR) 16
Hidden but Ubiquitous: The Pre-Rift Continental Mantle in the Red Sea Region 16
Magma‐Mush Interactions in the Lower Oceanic Crust: Insights From Atlantis Bank Layered Series (Southwest Indian Ridge) 13
High???Temperature Strain Localization and the Nucleation of Oceanic Core Complexes (16.5??N, Mid???Atlantic Ridge) 13
Geochemical evidence for local variability in redox and depositional conditions in a deep-water bonarelli equivalent section from Southern Tethys (Fontana Valloneto Section, Southern Italy) 12
Melting and Evolution of Amphibole‐Rich Back‐Arc Abyssal Peridotites at the Mado Megamullion, Shikoku Basin 12
The heterogeneous tethyan oceanic lithosphere of the alpine ophiolites 12
Geochemical characteristics of back-arc basin lower crust and upper mantle at final spreading stage of Shikoku Basin: an example of Mado Megamullion 10
Seafloor spreading and tectonics at the Charlie Gibbs transform system (52-53ºN, mid atlantic ridge): Preliminary results from R/V A. N. Strakhov expedition S50 9
Totale 2.546
Categoria #
all - tutte 9.872
article - articoli 0
book - libri 0
conference - conferenze 0
curatela - curatele 0
other - altro 0
patent - brevetti 0
selected - selezionate 0
volume - volumi 0
Totale 9.872


Totale Lug Ago Sett Ott Nov Dic Gen Feb Mar Apr Mag Giu
2018/20194 0 0 0 0 0 0 0 0 0 0 4 0
2019/2020505 134 220 0 12 6 19 0 20 1 55 36 2
2020/2021239 30 37 12 15 5 18 4 61 12 29 14 2
2021/2022357 3 1 4 1 3 3 9 15 54 4 48 212
2022/2023874 70 57 3 48 65 87 1 66 440 3 26 8
2023/2024355 54 51 20 25 41 87 43 23 7 4 0 0
Totale 2.546