ADRIANA GIANGRANDE

Prof. ADRIANA GIANGRANDE

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Research Focus & Metrics

Academic Career Length

46Years (1981-Present)

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

Representative Publications

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30 December 2012 in Mediterranean Marine Science
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ΑZΑ. Zenetos
Α. Zenetos
SGS. Gofas
S. Gofas
Carla MorriCarla Morri
Carla Morri
ARA. Rosso
A. Rosso
DVD. Violanti
D. Violanti
MVM. Verlaque
M. Verlaque
More than 60 marine non-indigenous species (NIS) have been removed from previous lists and 84 species have been added, bringing the total to 986 alien species in the Mediterranean [775 in the eastern Mediterranean (EMED), 249 in the central Mediterranean (CMED), 190 in the Adriatic Sea (ADRIA) and 308 in the western Mediterranean (WMED)]. There were 48 new entries since 2011 which can be interpreted as approximately one new entry every two weeks. The number of alien species continues to increase, by 2-3 species per year for macrophytes, molluscs and polychaetes, 3-4 species per year for crustaceans, and 6 species per year for fish. The dominant group among alien species is molluscs (with 215 species), followed by crustaceans (159) and polychaetes (132). Macrophytes are the leading group of NIS in the ADRIA and the WMED, reaching 26-30% of all aliens, whereas in the EMED they barely constitute 10% of the introductions. In the EMED, molluscs are the most species-rich group, followed by crustaceans, fish and polychaetes. More than half (54%) of the marine alien species in the Mediterranean were probably introduced by corridors (mainly Suez). Shipping is blamed directly for the introduction of only 12 species, whereas it is assumed to be the most likely pathway of introduction (via ballasts or fouling) of another 300 species. For approximately 100 species shipping is a probable pathway along with the Suez Canal and/or aquaculture. Approximately 20 species have been introduced with certainty via aquaculture, while >50 species (mostly macroalgae), occurring in the vicinity of oyster farms, are assumed to be introduced accidentally as contaminants of imported species. A total of 18 species are assumed to have been introduced by the aquarium trade. Lessepsian species decline westwards, while the reverse pattern is evident for ship-mediated species and for those introduced with aquaculture. There is an increasing trend in new introductions via the Suez Canal and via shipping.

5 November 2010 in Mediterranean Marine Science
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Journal Article
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AZA. Zenetos
A. Zenetos
SGS. Gofas
S. Gofas
MVM. Verlaque
M. Verlaque
Melih Ertan ÇınarMelih Ertan Çınar
Melih Ertan Çınar
GEGARCIA RASO JOSE ENRIQUE
GARCIA RASO JOSE ENRIQUE
NSN. Streftaris
N. Streftaris
The state-of-art on alien species in the Mediterranean Sea is presented, making distinctions among the four subregions defined in the EU Marine Strategy Framework Directive: (i) the Western Mediterranean Sea (WMED); (ii) the Central Mediterranean Sea (CMED); (iii) the Adriatic Sea (ADRIA); and (iv) the Eastern Mediterranean Sea (EMED). The updated checklist (December 2010) of marine alien species within each subregion, along with their acclimatization status and origin, is provided. A total of 955 alien species is known in the Mediterranean, the vast majority of them having being introduced in the EMED (718), less in the WMED (328) and CMED (267) and least in the Adriatic (171). Of these, 535 species (56%) are established in at least one area.Despite the collective effort of experts who attempted in this work, the number of introduced species remains probably underestimated. Excluding microalgae, for which knowledge is still insufficient, aliens have increased the total species richness of the Mediterranean Sea by 5.9%. This figure should not be directly read as an indication of higher biodiversity, as spreading of so many aliens within the basin is possibly causing biotic homogenization. Thermophilic species, i.e. Indo-Pacific, Indian Ocean, Red Sea, Tropical Atlantic, Tropical Pacific, and circum(sub)tropical, account for 88.4% of the introduced species in the EMED, 72.8% in the CMED, 59.3% in the WMED and 56.1% in the Adriatic. Cold water species, i.e. circumboreal, N Atlantic, and N Pacific, make up a small percentage of the introduced species, ranging between 4.2% and 21.6% and being more numerous in the Adriatic and less so in the EMED.Species that are classified as invasive or potentially invasive are 134 in the whole of the Mediterranean: 108 are present in the EMED, 76 in the CMED, 53 in the Adriatic and 64 in the WMED. The WMED hosts most invasive macrophytes, whereas the EMED has the lion’s share in polychaetes, crustaceans, molluscs and fish.

5 October 2013 in Philosophical Transactions of the Royal Society B: Biological Sciences
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PCPiero Calosi
Piero Calosi
SRSamuel P. S. Rastrick
Samuel P. S. Rastrick
CLChiara Lombardi
Chiara Lombardi
HGHeidi J. de Guzman
Heidi J. de Guzman
LDLaura Davidson
Laura Davidson
MGMaria Cristina Gambi
Maria Cristina Gambi
Metabolic rate determines the physiological and life-history performances of ectotherms. Thus, the extent to which such rates are sensitive and plastic to environmental perturbation is central to an organism's ability to function in a changing environment. Little is known of long-term metabolic plasticity and potential for metabolic adaptation in marine ectotherms exposed to elevated p CO 2 . Consequently, we carried out a series of in situ transplant experiments using a number of tolerant and sensitive polychaete species living around a natural CO 2 vent system. Here, we show that a marine metazoan (i.e. Platynereis dumerilii ) was able to adapt to chronic and elevated levels of p CO 2 . The vent population of P. dumerilii was physiologically and genetically different from nearby populations that experience low p CO 2 , as well as smaller in body size. By contrast, different populations of Amphiglena mediterranea showed marked physiological plasticity indicating that adaptation or acclimatization are both viable strategies for the successful colonization of elevated p CO 2 environments. In addition, sensitive species showed either a reduced or increased metabolism when exposed acutely to elevated p CO 2 . Our findings may help explain, from a metabolic perspective, the occurrence of past mass extinction, as well as shed light on alternative pathways of resilience in species facing ongoing ocean acidification.

1 November 2005 in Marine Pollution Bulletin
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AGADRIANA GIANGRANDE
ADRIANA GIANGRANDE
MLMargherita Licciano
Margherita Licciano
Luigi MuscoLuigi Musco
Luigi Musco

2 July 2010 in Biological Invasions
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Anna Occhipinti-AmbrogiAnna Occhipinti-Ambrogi
Anna Occhipinti-Ambrogi
Agnese MarchiniAgnese Marchini
Agnese Marchini
GCGrazia Cantone
Grazia Cantone
ACAlberto Castelli
Alberto Castelli
CCCarla Chimenz
Carla Chimenz
Stefano PirainoStefano Piraino
Stefano Piraino

26 August 2003 in Aquatic Conservation: Marine and Freshwater Ecosystems
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AGADRIANA GIANGRANDE
ADRIANA GIANGRANDE