Marco Ottaviano

Prof. Marco Ottaviano

Dip. Biosciences and Territory, University of Molise. C.da Fonte Lappone sn, 86090 Pesche (IS), Italy
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Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

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

Representative Publications

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18 February 2016 in Journal of Maps
Verified
Journal Article
Open access
Luca CongedoLuca Congedo
Luca Congedo
Lorenzo SallustioLorenzo Sallustio
Lorenzo Sallustio
MMMichele Munafò
Michele Munafò
Marco OttavianoMarco Ottaviano
Marco Ottaviano
DTDaniela Tonti
Daniela Tonti
MMMarco Marchetti
Marco Marchetti
The high-resolution layers (HRLs) are land cover maps produced for the entire Italian territory (approximately 30 million hectares) in 2012 by the European Environment Agency, aimed at monitoring soil imperviousness and natural cover, such as forest, grassland, wetland, and water surface, with a high spatial resolution of 20 m. This study presents the methodologies developed for the production, verification, and enhancement of the HRLs in Italy. The innovative approach is mainly based on (a) the use of available reference data for the enhancement process, (b) the reduction of the manual work of operators by using a semi-automatic approach, and (c) the overall increase in the cost-efficiency in relation to the production and updating of land cover maps. The results show the reliability of these methodologies in assessing and enhancing the quality of the HRLs. Finally, an integration of the individual layers, represented by the HRLs, was performed in order to produce a National High-Resolution Land Cover map.

12 October 2012 in Plant Biosystems
Verified
Journal Article
Closed access
MMMarco Marchetti
Marco Marchetti
Lorenzo SallustioLorenzo Sallustio
Lorenzo Sallustio
Marco OttavianoMarco Ottaviano
Marco Ottaviano
ABAnna Barbati
Anna Barbati
PCPiermaria Corona
Piermaria Corona
Giulia CapotortiGiulia Capotorti
Giulia Capotorti
Recent attempts to mitigate global change have brought forestry-based carbon (C) sequestration into sharp focus due to its potential to absorb CO2 from the atmosphere. However, the consequences of actual forest management practices on C storage capacity are still controversial to a certain extent. Under such a perspective, a distinctive relevant issue concerns the management of forest ecosystems within areas specifically designated for nature conservation. From the analysis of biomass data from forests in the National Parks of Italy, we found that the average forest C stock and sink per unit area is relatively higher within National Parks (81.21 and 2.18 tons ha−1, respectively) than on the overall national territory (76.11 and 1.12 tons ha−1 year−1, respectively). The analysis confirms the influence of ecological conditions and management approach on C sequestration capacity. Although the results of the proposed assessment approach have to be considered as rough estimates, the trial proves interesting, given the relative lack of specific information, at least on a large scale, about C stocks and sinks within forest areas designated for nature conservation, and the direct comparison with those forest areas not designated to such an end. The C storage capacity can be enhanced by increasing the productivity of forests, minimizing the disturbance to stand structure and composition. Extending conservation strategies adopted in National Parks to other forest areas of the national territory would allow the restoration of C sequestration potential, where unsustainable management practices have degraded relatively large stocks of biomass.

10 June 2009 in iForest - Biogeosciences and Forestry
Verified
Journal Article
Open access
PDF file
MAM.V.G. Alves
M.V.G. Alves
ABA.C. Batista
A.C. Batista
RSR.V. Soares
R.V. Soares
Marco OttavianoMarco Ottaviano
Marco Ottaviano
MMMarco Marchetti
Marco Marchetti
Fuel moisture content is essential to estimate several fire behavior variables. The objective of the present study was to estimate fuel moisture through meteorological variables. The field materials used for this purpose were the accumulated needles found on the ground of a Pinus elliottii Engelm. plantation of the Federal University of Paraná Experimental Station, located in Rio Negro county, Paraná State, southern Brazil (26º04’S lat., 49º45’W long.). To determine fuel moisture content, two sampling methods were tested: the first method consisted in collecting samples of fuel in plastic baskets and subsequently weighing them approximately every two hours, while the second method consisted in collecting, approximately every two hours, a series of different samples directly from the forest floor, and weighing them. All the samples collected on site were then oven dried for moisture determination. Comparing both methods, it was found that the best results were obtained using the samples collected directly from the forest floor and that the best fitting equation included air temperature and wind speed.

29 January 2025 in Plants
Verified
Journal Article
Open access
PDF file
RRRaffaello Resemini
Raffaello Resemini
CGChiara Geroldi
Chiara Geroldi
Giulia CapotortiGiulia Capotorti
Giulia Capotorti
ATAndrea De Toni
Andrea De Toni
Francesco ParisiFrancesco Parisi
Francesco Parisi
Rodolfo GentiliRodolfo Gentili
Rodolfo Gentili
Urban afforestation is increasingly regarded as a key strategy for fostering biodiversity to restore and enhance the ecosystem services needed to counteract the effects of climate change in built-up areas. In Italy, several experimental afforestation projects have been launched as part of the National Recovery and Resilience Plan (NRRP), focusing on cities or metropolitan areas such as Milan, Rome, Pistoia and Campobasso. These projects follow a multidisciplinary approach, integrating botanists, foresters, urban planners, landscape architects and remote sensing specialists. The goal is to address the challenging complexity of urban forest restoration through reforestation and afforestation actions. Key innovations include the integration of transdisciplinary methodologies (landscape analysis, landscape design, forest and plant ecology) with the application of advanced remote sensing technologies and participatory community engagement frameworks to address ecological and social challenges. Experimental plots have been set up across various urban areas, testing a range of planting schemes to maximise climate change resilience and ensure long-term ecological sustainability. Emphasis has been placed on selecting drought-tolerant and thermophilic species that are better adapted to widespread warming and local urban heat islands. ‘Biodiversity strips’ with perennial flowers for insects, shrubs with berries for birds and nests for wild bees and vertebrates have been set up to enhance biodiversity in new afforestation areas. Advanced monitoring tools, such as Light Detection and Ranging (LiDAR) and multi-sensor drones, have been employed alongside field observations to assess forest growth, species survival, structural complexity and biodiversity enhancement over time. Historical analyses of landscape patterns and ecological connectivity over the past 200 years, along with evaluations of afforestation projects from the last 70 years, have provided critical insights into the successes and challenges of previous interventions, serving as a guide for future efforts. By focusing on ecological connectivity, the integration of afforested areas into the urban matrix, and citizen engagement, the current project aims to align urban forestry efforts with sustainable development goals. This comprehensive project framework addresses environmental restoration and the social and aesthetic impacts on local communities, contributing to the overall resilience and well-being of urban and peri-urban ecosystems.

16 March 2018 in Annals of Forest Science
Verified
Journal Article
Closed access
PDF file
MMMarco Marchetti
Marco Marchetti
VGVittorio Garfì
Vittorio Garfì
CPCaterina Pisani
Caterina Pisani
SFSara Franceschi
Sara Franceschi
MMMarzia Marcheselli
Marzia Marcheselli
LFLorenzo Fattorini
Lorenzo Fattorini

23 March 2016 in Journal of Maps
Verified
Journal Article
Open access
UCUgo Chiavetta
Ugo Chiavetta
NCNicolò Camarretta
Nicolò Camarretta
VGVittorio Garfì
Vittorio Garfì
Marco OttavianoMarco Ottaviano
Marco Ottaviano
GCGherardo Chirici
Gherardo Chirici
MMMarco Marchetti
Marco Marchetti
To support sustainable forest management, planning policies and environmental actions, it is essential to have available common and standardized geospatial information on forest structure, composition and distribution. In this paper we present a harmonized forest categories (HFCs) map of four administrative Regions located in central Italy (i.e. Marche, Abruzzo, Lazio and Molise) at a scale of 1:400,000. The study area extends over 42,246 km2, 14,878 km2 of which are covered by forests. Four regional forest maps were harmonized in order to produce common standardized information on composition, structure and the distribution of forests in central Italy. A forest category is a forest vegetation unit defined by the main tree species composition. In this study we adopted a nomenclature scheme composed of 16 forest and shrubland categories. This work represents the first HFCs map in Italy over a large area. The legend is also harmonized with the European Environment Agency forest types nomenclature.