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TeMA
Special Issue
Covid -19 vs City -
20
scenarios, insights, reasoning and research
This Special Issue of TeMA - Journal of Land Use, Mobility and
Environment, collects twenty-seven contributes of international
researchers and technicians in form of scenarios, insights,
reasoning and research on the relations between the City and the
impacts of Covid-19 pandemic, questioning about the development
of a new vision and a general rethinking of the structure and urban
organization.
TeMA Journal offers papers with a unified approach to planning,
mobility and environmental sustainability. With ANVUR resolution
of April 2020, TeMA journal and the articles published from 2016 are
included in the A category of scientific journals. From 2015, the arti-
cles published on TeMA are included in the Core Collection of Web
of Science. It is included in Sparc Europe Seal of Open Access
Journals, and the Directory of Open Access Journals.
Journal of
Land Use, Mobility and Environmen
t
ISSN 1970-9889
University of Naples Federico II
TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
Special Issue
COVID-19 vs CITY-20
SCENARIOS, INSIGHTS, REASONING AND RESEARCH
Published by
Laboratory of Land Use Mobility and Environment
DICEA - Department of Civil, Architectural and Environmental Engineering
University of Naples "Federico II"
TeMA is realized by CAB - Center for Libraries at “Federico II” University of Naples using Open Journal System
Editor-in-chief: Rocco Papa
print ISSN 1970-9889 | on line ISSN 1970-9870
Licence: Cancelleria del Tribunale di Napoli, n° 6 of 29/01/2008
Editorial correspondence
Laboratory of Land Use Mobility and Environment
DICEA - Department of Civil, Architectural and Environmental Engineering
University of Naples "Federico II"
Piazzale Tecchio, 80
80125 Naples
web: www.tema.unina.it
e-mail: redazione.tema@unina.it
Given the short time to produce the volume, the Editorial Board of TeMA Journal carried out the scientific quality audit of the contributions
published in this Special Issue.
The cover image is a photo collage of some cities during the Covid-19 pandemic quarantine (March 2020)
TeMA
Journal of
Land Use, Mobility and Environment
TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
TeMA Journal of Land Use, Mobility and Environment offers researches, applications and contributions with a unified approach to planning and
mobility and publishes original inter-disciplinary papers on the interaction of land use, mobility and environment. Domains include: engineering,
planning, modeling, behavior, economics, geography, regional science, sociology, architecture and design, network science and complex
systems.
With ANVUR resolution of April 2020, TeMA Journal and the articles published from 2016 are included in A category of scientific journals. From
2015, the articles published on TeMA are included in the Core Collection of Web of Science. TeMA Journal has also received the Sparc Europe
Seal for Open Access Journals released by Scholarly Publishing and Academic Resources Coalition (SPARC Europe) and the Directory of Open
Access Journals (DOAJ). TeMA is published under a Creative Commons Attribution 3.0 License and is blind peer reviewed at least by two
referees selected among high-profile scientists. TeMA has been published since 2007 and is indexed in the main bibliographical databases and
it is present in the catalogues of hundreds of academic and research libraries worldwide.
EDITOR IN-CHIEF
Rocco Papa, University of Naples Federico II, Italy
EDITORIAL ADVISORY BOARD
Mir Ali, University of Illinois, USA
Luca Bertolini, University of Amsterdam, Netherlands
Luuk Boelens, Ghent University, Belgium
Dino Borri, Polytechnic University of Bari, Italy
Enrique Calderon, Polytechnic University of Madrid, Spain
Roberto Camagni, Polytechnic University of Milan, Italy
Derrick De Kerckhove, University of Toronto, Canada
Mark Deakin, Edinburgh Napier University, Scotland
Aharon Kellerman, University of Haifa, Israel
Nicos Komninos, Aristotle University of Thessaloniki, Greece
David Matthew Levinson, University of Minnesota, USA
Paolo Malanima, Magna Græcia University of Catanzaro, Italy
Agostino Nuzzolo, Tor Vergata University of Rome, Italy
Rocco Papa, University of Naples Federico II, Italy
Serge Salat, Urban Morphology and Complex Systems Institute, France
Mattheos Santamouris, National Kapodistrian University of Athens, Greece
Ali Soltani, Shiraz University, Iran
ASSOCIATE EDITORS
Rosaria Battarra, National Research Council, Institute of Mediterranean studies, Italy
Gerardo Carpentieri, University of Naples Federico II, Italy
Pierluigi Coppola, Politecnico di Milano, Italy
Luigi dell'Olio, University of Cantabria, Spain
Isidoro Fasolino, University of Salerno,Italy
Romano Fistola, University of Sannio, Italy
Carmela Gargiulo, University of Naples Federico II, Italy
Thomas Hartmann, Utrecht University, Netherlands
Markus Hesse, University of Luxemburg, Luxemburg
Seda Kundak, Technical University of Istanbul, Turkey
Rosa Anna La Rocca, University of Naples Federico II, Italy
Houshmand Ebrahimpour Masoumi, Technical University of Berlin, Germany
Giuseppe Mazzeo, National Research Council, Institute of Mediterranean studies, Italy
Nicola Morelli, Aalborg University, Denmark
Enrica Papa, University of Westminster, United Kingdom
Dorina Pojani, University of Queensland, Australia
Floriana Zucaro, University of Naples Federico II, Italy
EDITORIAL STAFF
Gennaro Angiello, Ph.D. at University of Naples Federico II, Italy
Stefano Franco, Ph.D. student at Luiss University Rome, Italy
Federica Gaglione, Ph.D. student at University of Naples Federico II, Italy
Carmen Guida, Ph.D. student at University of Naples Federico II, Italy
Andrea Tulisi, Ph.D. at Second University of Naples, Italy
1 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
Special Issue
COVID-19 vs CITY-20
SCENARIOS, INSIGHTS, REASONING AND RESEARCH
Contenets
TeMA
Journal of
Land Use, Mobility and Environment
5
EDITORIAL PREFACE
Carmela Gargiulo
9
Covid-19 and simplification of urban planning tools. The residual plan
Pasqualino Boschetto
17
Covid-19. Some moments of the 21st century, with a look at Milan
Roberto Busi
31
Geographic Information and Covid-19 outbreak. Does the spatial dimension matter?
Michele Campagna
45
Health emergency and economic and territorial implications. First considerations
Salvatore Capasso, Giuseppe Mazzeo
59
About the effects of Covid-19 on solid waste management
Alessandra Cesaro, Francesco Pirozzi
67
The city and natural resources.
Pandemic disaster can be a driving force for new perspective
Donatella Cialdea
2 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
81
Evolution of mobility sector during and beyond Covid-19. Viewpoint of
industries, consultancies and public transport companies
Pierluigi Coppola, Francesco De Fabiis
91
Tourism on demand. A new form of urban and social demand of use after the
pandemic event
Fabio Corbisiero, Rosa Anna La Rocca
105
Questioning urbanisation models in the face of Covid-19.
The crisis as a window of opportunity for inner areas
Giancarlo Cotella, Elisabetta Vitale Brovarone
119
The Covid-19 pandemic effects in rural areas.
Turning challenges into opportunities for rural regeneration
Claudia De Luca, Simona Tondelli, Hanna Elisabeth Åberg
133
Shaping space for ever-changing mobility. Covid-19 lesson learned from Milan
and its region
Diego Deponte, Giovanna Fossa, Andrea Gorrini
151
From social distancing to virtual connections
How the surge of remote working could remold shared spaces
Luisa Errichiello, Daniele Demarco
165
The paradigms of urban planning to emergency-proof.
Rethinking the organisation of settlements at the time of a pandemic
Isidoro Fasolino, Michele Grimaldi, Francesca Coppola
179
Virucity. Rethinking the urban system
Romano Fistola, Dino Borri
189
The role of the urban settlement system in the spread of Covid-19 pandemic.
The Italian case
Carmela Gargiulo, Federica Gaglione, Carmen Guida, Rocco Papa, Floriana Zucaro, Gerardo
Carpentieri
213
“Passata è la tempesta …”. A land use planning vision for the Italian
Mezzogiorno in the post pandemic
Paolo La Greca, Francesco Martinico, Fausto Carmelo Nigrelli
3 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
231
Covid-19 and spatial planning
A few issues concerning public policy
Sabrina Lai, Federica Leone, Corrado Zoppi
247
Take advantage of the black swan to improve the urban environment
Antonio Leone, Pasquale Balena, Raffaele Pelorosso
261
Imagining living spaces in extreme conditions: suggestions from a case study
in Bari
Giulia Mastrodonato, Domenico Camarda
269
Risk, health system and urban project
Gerardo Matteraglia
283
Geographical analyses of Covid-19's spreading contagion in the challenge
of global health risks
The role of urban and regional planning for risk containment
Beniamino Murgante, Ginevra Balletto, Giuseppe Borruso, Giuseppe Las Casas, Paolo Castiglia
305
The resilient city and adapting to the health emergency.
Towards sustainable university mobility
Francesca Pirlone, Ilenia Spadaro
315
Physical spacing and spatial planning.
New territorial geographies and renewed urban regeneration policies
Piergiuseppe Pontrandolfi
327
Mega cities facing Covid-19 pandemic.
How to use urban spaces in Tehran after the new pandemic
Elmira Shirgir
333
Rethinking rules and social practices. The design of urban spaces
in the post-Covid-19 lockdown
Maria Rosaria Stufano Melone, Stefano Borgo
343
Data analysis and mapping for monitoring health risk. What has the spread of
the Covid-19 pandemic in northern Italy taught us?
Michela Tiboni, Michéle Pezzagno, David Vetturi, Craig Alexander, Francesco Botticini
363
About the Sustainability of Urban Settlements.
A first reflection on the correlation between the spread of Covid-19 and the regional
average population density in Italy
Maurizio Tira
TeMA
A
Journal of
Land Use, Mobility and Environment
TeMA Special Issue Covid – 19 vs City – 20, 283-304
print ISSN 1970-9889, e-ISSN 1970-9870
DOI: 10.6092/1970-9870/6849
Received 12th May 2020, Available online 19th June 2020
Licensed under the Creative Commons Attribution – Non Commercial License 3.0
www.tema.unina.it
Geographical analyses of Covid-19's spreading
contagion in the challenge of global health risks
The role of urban and regional planning for risk containment
B. Murgante a*, G. Balletto b, G. Borruso c, G. Las Casas a P. Castiglia d, M. Dettori d
a School of Engineering
University of Basilicata, Potenza, Italy
e-mail: beniamino.murgante@unibas.it,
giuseppe.lascasas@unibas.it
* ORCID: https://orcid.org/0000-0003-2409-5959
* Corresponding author
b Department of Civil and Environmental Engineering and
Architecture, University of Cagliari, Italy
e-mail: balletto@unica.it,
c Department of Economics, Business, Mathematics and
Statistics “Bruno de Finetti”, University of Trieste, Italy
e-mail: giuseppe.borruso@deams.units.it
d Department of Medical, Surgical and Experimental
Sciences, University of Sassari, Sassari, Italy
e-mail: paolo.castiglia@uniss.it, madettori@uniss.it
Abstract
This research develops from a set of basic geographical questions about the outbreak of Covid-19 out of
China in Europe. The questions dealt with why and why with such strength Italy has been seriously hit, one
of the most important cases in terms of death toll out of Hubei Province and mainland China, in the world,
making the country a worldwide study case for epidemic concentration and diffusion. Questions were also
related to geographical similarities among the areas hit, and particularly the Po Valley region and Wuhan
metropolitan region in Hubei province, and also related to why such a divide of the virus spreading was
identified in Italy between Northern and Central and Southern regions and provinces. In order to try to give
an answer these questions, authors realized a vast and articulated database of indicators at provincial level
in Italy, performing several geographical analyses - ecological approach - based on Spatial autocorrelation
and Geographical Weighted Regression, coming to the conclusion that aspects such as land take, pollution
can seriously influence the phenomenon and justify a pattern as that observable in Italy. The analyses and
observation of the phenomenon also suggests that policies based on urban regeneration, sustainable
mobility, green infrastructures, ecosystem services can create a more sustainable scenario able to support
the quality of public health.
Keywords
Covid-19; Italy; Po-valley; Air quality, Climate changes; Land take; Spatial diffusion processes
How to cite item in APA format
Murgante, B., Borruso G., Las Casas G., Balletto, G., Castiglia, P., & Dettori, M. (2020). Geographical
analyses of Covid-19's spreading contagion in the challenge of global health risks.
Tema. Journal of Land
Use, Mobility and Environment
,
Special Issue Covid–19 vs City–20
. 283-304.
http://dx.doi.org/10.6092/1970-9870/6849
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
284 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
1. Introduction
With this research, we tried to find some answers to the questions raised by the Covid-19 outbreak in Italy,
first among European countries, after Southeastern Asia. In particular, an attempt was made to highlight some
elements connected to the causes of the diffusion of the virus in Northern Italy, in the Po Valley megalopolis,
which also includes the metropolitan city of Milan.
In this sense, we analyzed the data relating to Covid-19 - infected and deaths at the provincial level - as of 31
March 2020 and 30 April 2020, useful dates for observing the phenomenon after the country's lock down of
10 March, which placed severe restrictions on mobility and industrial production and services, in order to slow
down the spread of the epidemic, and the disease’s spatial behavior after such policies.
Furthermore, as a starting point it was possible to observe similarities between the Wuhan area in the province
of Hubei with those of the metropolis in the Po Valley, referring in particular to the geographical and climatic
conditions - presence of rivers and water bodies, flat land, limited atmospheric circulation and scarcity of wind
– socio-economic conditions - industrial production, transport and mobility infrastructures, population
distribution and density, population aging and life expectancy -, as well as similarities relating to concentrations
of pollutants in the atmosphere and soil consumption. We hypothesized the existence of a relationship between
pollutants and the spread of the virus in the outbreak of the epidemic and its lethality.
In particular, we took into consideration soil consumption and air pollution, referred to particulates - PM2.5 and
PM10 - and those deriving from human activities, as industry, traffic, domestic heating, agro-industry and
intensive farming, as CO2 and nitrogen-based components, such as NOx and NH3. - The basic idea is that the
presence of atmospheric pollutants can generate health pressures on the population and determine the pre-
conditions for the development of both stress on the diseases related to the respiratory system and of
complications related to them, including those that are health-threatening, which may explain the excess
lethality that occurred in the area under consideration.
Fig.1. Synthetic comparison - Wuhan urban agglomeration and Great Milan metropolis. Authors’ elaboration
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
285 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
In particular, relations between high concentration of atmospheric pollutants and the diffusion of pathogenic
microorganisms has already been demonstrated (Peng et al., 2020). Moreover, being exposed to higher
concentration of atmospheric pollutants can also explain the basa inflammation condition that can afflict the
population altering the physiological conditions and leading to a greater predisposition to infection and
symptomatic development of the disease (Chen & Schwartz, 2008; Conticini et al., 2020).
Furthermore, the particular weather conditions, including thermal inversion, typical of the winter period, may
have worsened the environmental situation in the areas - of Wuhan and the Po Valley - such as low rainfall
and a milder winter than the previous ones.
The two areas, in fact, have the same Köppen climatic classification Cfa subclass ‘humid subtropical’, typical
of temperate continental areas (
Global climate change, 2020
, 2020; Skarbit et al., 2018) and profound
analogies typical of the fluvial plain contexts, characterized by a fairly isotropic space. Both are located in an
alluvial plain, Wuhan urban agglomeration - Yangtze river and Great Milan metropolis - Po river (Fig.1).
Both mega urbanizations have industrial and post-industrial functions, with a heavy presence of manufacturing
companies, in machinery, automotive and ICT, as well as advanced and cultural services, particularly in the
major center. Both the areas share a strong promiscuity with agricultural activities and a wide progression of
the sprawl (Lu et al., 2020; Pezzagno et al., 2020; Romano et al., 2017; Senes et al., 2020).
Fig.2 The climatic classification of Köppen. Authors’ elaboration
In this complex international framework, we developed the present research, which does not pretend to be
exhaustive, but to show the first results of an interdisciplinary ecological approach. In this regard, the basic
conditions refer - for both cases examined as Wuhan agglomeration and Greater Milan metropolis - to an
intense and prolonged exposure to air pollution, as peaks of concentration of fine dust and other pollutants,
constitute a pejorative factor in cases of epidemics Covid-19 (Setti et al., 2020). We also paid particular
attention to the relationship between climate and air quality (Du et al., 2019). Climate changes on the one
hand affect the atmospheric processes and on the other cause changes in the functioning of terrestrial and
marine ecosystems which can, in turn, affect the atmospheric processes (Jacob & Winner, 2009). However,
these two environmental emergencies are still considered separately both at the level of the scientific
community and those responsible for environmental policies, as in the case of the Covid-19 emergency (Setti
et al., 2020).
According to the EEA - European Environmental Agency - although air pollution (European Environment
Agency, 2018) affects the whole population, as collective health costs, only a part is more exposed (European
Environment Agency, 2020) to individual risks (Chalvatzaki et al., 2019; Mitsakou et al., 2019; Reames &
Bravo, 2019). In particular, Greater Milan metropolis and most of the Po Valley represent the outcome of
industrial, agricultural and intensive farming globalization in Italy, which presenting an increasingly critical
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
286 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
quality of air (Pezzagno et al., 2020). Although in the last decade in Italy there have introduced important
taxation and incentive measures for the purchase or improvement of the ecological performance of home
heating (Magnani et al., 2020) ) and public and private road vehicles however, the levels of air pollution for
150 days (2018) have exceeded EU regulatory limits - much lower than WHO ones. Furthermore, this situation
is prolonged in time as high level of air pollution and concentration of pollutants in the air have been constantly
reported in the previous years (Legambiente, 2020). In addition, the climatic and geographical ‘handicap effect’
of Greater Milan metropolis, is not secondary in the air quality (Zullo et al., 2019). This geographical framework
- mainly isotropic - is also characterized by a community with a high life expectancy and a strong national
hospital migration that can put health services under stress (Volpato et al., 2020).
The rest of the paper is organized as follows. Paragraph 2 is dedicated to Materials and Methods. In paragraph
2.1 we present the study area, Italy with its intermediate administrative units; paragraph 2.2 presents the
data used for the analysis. In paragraph 2.3 the methodology adopted is presented, consisting in the ecological
approach and a set of fitted for purposes spatial analyses, including the SMR (Standardized Mortality Ratio)
and areal analysis for autocorrelation and estimates, as the GWR (Geographical Weighted Regression) and
LISA (Local Indicator for Spatial Autocorrelation).
Paragraph 3 hosts the results, with paragraph 3.1 dedicated to the results obtained from GWR, while paragraph
3.2 dedicated to the results obtained from LISA; paragraph 4 Discussion and 5 Conclusions the paper and
propose further developments.
2. Materials and methods
2.1 The study area (Italy)
The analysis regards Italy as the area where the outbreak of Covid-19 is analyzed. Italy spans over a surface
of 302,072.84 sq km, with a population of 60,359,546 inhabitants (ISTAT, 2019) for an average population
density of 200 inhabitants per square kilometer. Italy is organized in 20 Regions - one of them,Trentino Alto
Adige, organized in 2 Autonomous Provinces with regional competences. In the analysis, we considered the
intermediate administrative subdivision in Provinces, Metropolitan Cities (Ref. L. No. 56 of April 7, 2014) and
a set of former provinces now used only for statistical purposes.
We considered the overall country for the analysis, although our initial attention was concentrated on the Po
Valley geographical region. Such an area covers approximately 55,000 km2, with nearly 22 million inhabitants,
with a population density of 400 inhabitants per km2 - double than that of the rest of the peninsula, reaching
different peaks in the main urban areas of the Greater Milan metropolis - the neighboring Milan and Monza
Provinces exceed 2000 inhabitants per square kilometer. It is the economic engine of the country, and is also
the mostly affected area by Covid-19 outbreak.
2.2 Data
The research has been performed using different datasets mainly referred to Italy and related to the Covid-
19 outbreak, as well as socio-economic and environmental data, considered useful for examining the territorial
aspects of the virus outbreak in Italy. Covid-19 data considered the number of total infected people at 31
March and 30 April 2019 at province level, as reported by Italian Ministry of Health, as collected by the Civil
Protection. An important novel dataset, originally built from scratch by the research group, is the number of
deaths at province level. In many cases data were provided by regional administration, while in other cases
the research required counting and referring data to provinces from the local health agencies and other official
sources (Istituto nazionale di statistica (ISTAT), 2020; Istituto superiore di sanità (ISS), 2020).
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
287 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
Among the others, the major difficulties were found in locating at province level data for important regions in
terms of the Covid-19 outbreak as Lombardy and Piedmont; also, big regions as Liguria, Lazio, Campania and
Sicily required an extra-effort for locating deaths at provincial level.
Date
Provincial level
deaths
Regional level deaths
Provincial level
infected
Regional level infected
31 March 2020
12,105
12,428
102,440
105,792
30 April 2020
27,249
27,967
215,084
205,463
Source
authors
data - set
Italian civil
protection
authors
data-set
Italian civil
protection
Tab.1 Covid-19 deaths and infected localized at Provincial and Regional level
The complete study data set consists of over 100 indicators/indices. However, to simplify the discussion, we
indicate only the specific ones mentioned in the paper, divided into four categories representative of the
ecological approach taken. (Tab.1).
Fig. 3 Data set - Ecological approach
In particular, the retrieval of data - open data -, their cataloging, representation has always been consistent
with the ecological approach (Fig.3), precisely in order to evaluate the phenomena in their complexity and
entirety, to confirmed within the geospatial correlation - GWR and LISA, as presented in the next paragraph.
2.3 Methodology
The research carried on is based on an ecological approach, where the physiological traits of the virus are
examined together with a set of selected relevant variables, covering different environmental and socio-
economic aspects. Virus-related data as infected cases and (standardized) deaths were examined and referred
to several variables. We concentrate on particular elements related to aspects that, in an integrated manner,
can be considered important in understanding the human-environment relations between human activities,
geographic and climatic conditions and virus outbreaks.
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
288 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
The quantitative analysis supporting our approach has been performed on area-based methods, particularly
aimed at analyzing spatial autocorrelation among the area units considered – data at Italian province level.
Autocorrelation is analyzed at local and global level by means of Geographically Weighted Regression (GWR)
and Spatial Autocorrelation (LISA).
Standardized Mortality Ratio (SMR)
Mortality has been standardized using Standardized Mortality Ratio, that is keeping tracks of the different age
structures that can be found in different regions considered for an analysis. It in fact takes into account the
fact that different regions can have different population structures, and / or different mortalities. Standardized
Mortality Ratio is therefore a method to analyze the patterns of deaths considering age composition. It
calculates the expected number of deaths over the distribution of population by age group, and considering
the age-specific rates of deaths for each areal unit considered.
Values around unity portrays a situation where mortality is behaving ‘as expected’, or in line with the trend of
the area. Values higher than 1 are characteristic of a situation of a higher than expected mortality, while values
lower than 1 suggest a mortality lower than that expected (Gatrell & Elliott, 2002). Mortality was standardized
for the Italian provinces and for age groups - 10 groups; first group 0-9 years; last group 90-∞ -, with reference
to the national population figures in the year 2019 (Istituto Nazionale di Statistica, 2019).
An indirect standardization was performed for computing specific mortality values by age group, obtained by
dividing the number of Covid-19 deaths confirmed by the Italian Higher Institute of Health Care (ISS - Istituto
Superiore della Sanità, sorveglianza integrata Covid -19) with the 10 defined age groups. The number of
expected deaths for Italian provinces for the age groups previously identified and based on the Italian
provincial population at provincial level (Istituto Nazionale di Statistica, 2019), was calculated as in the
formula:
! " #$!%!&'
"
!#$
(1)
with ni being the specific age group population in each observed province; Ri the national mortality rate for
the specific age group.
The Standardized Mortality Ratio (SMR) was than calculated comparing the number of events observed in each
province with the respective number of expected events:
()% "*++,
!&
(2)
with d the number of observed deaths and e the number of expected deaths.
Finally, the 95% confidence intervals (95% CI) were calculated, following the rule as in Vandenbroucke
(Vandenbroucke, 1982).
Geographically Weighted Regression (GWR)
Geographically Weighted Regression (GWR) (Brunsdon et al., 1996; Casetti & Jones, 1992; Casetti, 2010;
Fotheringham et al., 2002; Fotheringham et al., 1997; Stewart Fotheringham et al., 1996) is a method which
allows to analyse how a phenomenon spatially changes within a particularly place. Starting from Tobler (Tobler,
1970) first law of geography "Everything is related to everything else, but near things are more related than
distant things", GWR can be considered as a spatial extension of multiple linear regression. GWR is not limited
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
289 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
to global parameters, but it considers also local parameters. Also, the mathematical formulation is very similar
to the typical regression analysis (equations 3, 4).
-!" .%/.$0$! / .&0&! /111/.'0'! /2!&&&3456&&4 " *1111 $
(3)
Where:
−
yi
= Dependent variable
−
xi
= Independent (also the term Explanatory is adopted) variables
−
β0
= Coefficients (sometimes the term Parameters is used) expressing the relationship between
dependent and independent variables.
−
εi
= Residuals, i.e. the part of dependent variable not explained in the model
−
-!" .%78!'9!:/ .$&78!'9!:&0$! /.&&78!'9!:&0&! /111/.'&78!'9!:&0'! /2!
(4)
In Geographically Weighted Regression the term (
ui,vi
) is also considered, which represents coordinates of
point i in the space.
It is possible to have positive or negative relationships between dependent and independent variables:
according to the kind of relationship, a sign (+/-) is associated to the coefficients.
In order to model in the best way, the phenomenon to be investigated it is fundamental to define all factors
which may influence the analyses. The central point is to find the main variables in phenomenon modelling,
defining the dependent variable and identifying the possible independent variables. It is also important, before
analysing data with GWR, to test with Ordinary Least Squares the possible independent variables to adopt.
Two main measures of Ordinary Least Squares are useful in understanding if the variables adopted in the
analysis are meaningful: R2 or adjusted R2 and Akaike. R2 results are generally included between 0 and 1. A
better predictive performance has been highlighted by values close to 1. Akaike Information Criterion (AIC)
(Akaike, 1973; Hurvich et al., 1998) has not an absolute scale of measure, but it is useful in comparing two
models, with the same dependent variable, in order to assess which of them fits better the phenomenon.
Smaller values of the AIC indicate a better simulation, if the difference is not big, less than 3, two models can
be considered equivalent.
Another important check in model performance concerns Residuals. It is fundamental to analyse that spatial
dependence does not occur in residuals, verifying a random spatial distribution. Residuals have to be analyzed
by Moran Index I. Moran Index I (Moran, 1948) is a global measure of spatial autocorrelation and its values
can be included between -1 and 1. If Moran Index I is close to zero data are randomly distributed, if the term
is higher than zero, autocorrelation is positive, otherwise it is negative.
Regression coefficients are estimated using nearby feature values. Consequently, main parameters are kernel
and bandwidth which provide a definition of nearby.
There are two kinds of kernel, fixed and adaptive: the first one defines nearby according to determined fixed
distance band; while adaptive kind defines nearby according to determined number of neighbours.
Fixed kernel is adopted if observation points are regularly located, otherwise, if observation points are
clustered, adaptive kernel is more suitable.
Bandwidth controls the size of kernel and can be defined in three ways: directly by the analyst (it is possible
to directly define distance or neighbours number), by means of AIC method, which minimises Akaike
Information Criterion (AIC), or by using CV, which minimises the CrossValidation score.
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290 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
Spatial Autocorrelation
Geographical objects are generally described by means of two different information categories: spatial location
and related properties. In data analysis there is a huge literature concerning methods which separately
compute attributes from spatial components.
The most interesting property of spatial autocorrelation is the capability to analyze at the same time locational
and attribute information (Goodchild, 1986). Consequently, spatial autocorrelation can be considered as a very
effective technique in analyzing spatial distribution of objects assessing at the same time the degree of
influence of neighbour objects. This concept is well synthesized in the first law of geography defined by Waldo
Tobler (Tobler, 1970) "All Things Are Related, But Nearby Things Are More Related Than Distant Things".
Adopting Goodchild (Goodchild, 1986) approach, (Lee & Wong, 2000) defined spatial autocorrelation as
follows:
(;< "( ( )!"*!"
#
$%&
#
!%&
( ( *!"
#
$%&
#
!%&
,
(5)
Where:
− N is the number of objects;
− i and j are two objects;
− cij is a degree of similarity of attributes i and j;
− wij is a degree of similarity of location i and j.
defining xi as the value of object i attribute; if
cij
= (
xi
−
xj
)
2
, Geary C Ratio (Geary, 1954) can be defined as
follows:
< " +,-$./+( ( *!"'"! +0!-0".(.
&/+( ( *!""! .(+0!-01.(
!
,
(6)
If
!)* = ($)− $
&
)($*− $
&
)
, Moran Index I (Moran, 1948) can be defined as follows:
= " ,/ ( ( *!"'+0!-01.+0"-01.
"!
/+( ( *!""! .(+0!-01.(
!
,
(7)
These two indices are very similar, mainly differing in the cross-product term in the numerator, which in Moran
is calculated using deviations from the mean, while in Geary is directly computed.
These two indices are global indicators of spatial autocorrelation. They provide an indication about the
presence of autocorrelation. The precise location of elevated values of autocorrelation is provided by Local
Indicators of Spatial Association. One of the most adopted indices of local autocorrelation is LISA-Local
Indicator of Spatial Association developed by Anselin (Anselin, 1988, 1995), considered as a local Moran index.
The sum of all local indices is proportional to the value of Moran one:
>=!! " ?&=,
(8)
The index is calculated as follows:
=!"+2!-2
3.
/4+
(>7@!5/705A0B::
,
5#$ ,
(9)
It allows, for each location, to assess the similarity of each observation with its surrounding elements. Five
scenarios emerge:
− locations with high values of the phenomenon and high level of similarity with its surroundings (high-
high H-H), defined as
hot spots
;
− locations with low values of the phenomenon and high level of similarity with its surroundings (low-low
L-L), defined as
cold spots
;
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291 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
− locations with high values of the phenomenon and low level of similarity with its surroundings (high-low
H-L), defined as potentially
spatial outliers
;
− locations with low values of the phenomenon and low level of similarity with its surroundings (low-high
L-H), defined as potentially
spatial outliers
;
− locations completely lacking significant autocorrelations.
LISA (Local Indicator of Spatial Association) provides an effective measure of the degree of relative spatial
association between each territorial unit and its surrounding elements, allowing highlighting type of spatial
concentration for the detection of spatial clusters.
In equations 5, 6, 7, 9 the only term not well formalized is wij related to neighbourhood property. The most
adopted approach in formalizing this property is spatial weights matrix, wij are elements of a matrix considered
as spatial weights, equal to 1 if i and j are neighbours equal to 0 in the case of self-neighbour or if i and j are
not neighbours. This approach is based on the concept of contiguity, where elements share a common border
of non-zero length. It is important to give a more detailed definition of contiguity and more particularly what
does a border of non-zero length exactly mean.
Adopting chess game metaphor (O’Sullivan & Unwin, 2010), contiguity can be considered as allowed by paths
of
rook
,
bishop
and
queen.
3. Results
3.1 Ordinary Least Squares and Geographically Weighted Regression (GWR)
All variables, previously described, have been tested using Ordinary Least Squares in order to understand in
which measure they are reliable. First results and elaborations of statistical tests suggested to exclude some
variables from the analyses for low correlation or redundancies. More particularly, the number of deaths have
been considered as a dependent variable and annual average of PM2,5 and PM10, Ozone (O3 - number of days
to exceed the 8 hour moving average of 120 μg/mc), Wind gusts (annual days with gusts> 25 knots), Fog,
Surface waterproofed to year 2016, Wind (Km/h, Jan - Feb - Mar 2020), Hospital emigration, Commuting, CO2
in not urbanized areas have been adopted as explanatory variable. The results are quite interesting, R2 is
0.705979, Adjusted R2 0.671935 and Akaike Information Criterion (AIC) 1392.44. Variance Inflation Factor is
less than 7.5, all values are lower than 3.5, this means that the explanatory variables are not redundant.
It is also important to analyze residuals. The residuals of a good model should be normally distributed with a
mean of zero. I our case the residuals histogram matches the normal curve indicated in blue in Fig.4.
Fig. 4 Histogram of Distribution of Standardized Residuals
The other important aspect is the spatial distribution of residuals. More particularly, standardized values of
residuals, calculated by means of Ordinary Least Squares, have been used as input data in calculating spatial
autocorrelation, in order to understand if residuals were autocorrelated or not.
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Spatial autocorrelation has been calculated adopting Moran scatter plot and considering standardized variables
of residuals as abscissa and spatial weighted standardised variable of residuals as ordinate. In the graph,
Moran Index corresponds to direction coefficient of linear regression, which represents the scatter plot. Positive
autocorrelation corresponds to spatial clusters in upper right and lower left quadrants. Lower right and upper
left quadrants can be classified as spatial outliers.
Fig.5 Moran scatter plot of residuals standardized variable
Fig.6 Moran scatter plot of residuals standardized variable
Fig.5 shows that the slope of Moran Index is close to zero coinciding with abscissas axis, this means that
residuals are not spatially autocorrelated.
Ordinary Least Squares allows to analyse the relationship between dependent variable and explanatory
variables, deleting also redundant and not significant variables.
After the good results obtained with Ordinary Least Squares it is important to analyse how these relationships
vary over space. This is possible using Geographical Weighted Regression. As expected GWR results are better
than those achieved with OLS: namely, R2 is 0.741573518, Adjusted R2 0.689031597 and Akaike Information
Criterion (AIC) 1389.801618.
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Also, in this case residuals are not spatially autocorrelated. Fig.6 shows that Moran Index is 0.05 this means
that the spatial distribution is random.
Local R2 is a parameter included between 0.0 and 1.0, it is an indicator on how the local regression model fits
the observed values. If the indicator is close to zero the local model is far from the observed values. In this
case all values are close to 0.7 (figure 7) and there are not great differences. Despite the local values are quite
equivalent the map at national scale describes the Italy divided in four zones with the highest level of R2 in
the northern part of Italy.
Fig.7 Local R2 map
(a)
(b)
Fig.8 Observed (a) and predicted (b) values
Analyzing Fig.8 It is possible to observe that there are small differences between the observed and predicted
values also at local level, this means that the local regression model fits very well the analysed phenomenon.
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3.2 Local Indicators of Spatial Autocorrelation (LISA)
In the Po Valley megalopolis the local climate changes (Fig. 9) and the significant change in relative humidity
and air quality - non-disjointed phenomena - (Blum, 2017; Maione et al., 2016; Manes et al., 2016; Reames
& Bravo, 2019) ) affect the quality of life, which is exposed to several actions combined with poor air quality
(Reames & Bravo, 2019).
Fig.9 Local Climate Change - Great Milan Metropolis
These are in fact apparently unrelated phenomena, which in reality, besides being profoundly dependent on
each other, do not act as a mere sum on environmental ecosystems and communities, but in the form of
combinations that are in turn related to urban geography - land use: efficient land use, sprawl and ecosystem
services. It should be noted that the law on air quality has substantial differences from country and country
(Fig 10). Furthermore, the reference targets for making comparisons are still those of the 2005 WHO
guidelines. It is worth mentioning WHO Guidelines (
WHO Air quality guidelines for particulate matter, ozone,
nitrogen dioxide and sulfur dioxide
, 2006) that for PM2.5, they set a daily limit of 25 µg/m3; year limit 10 µg/m3
and that in Italy with Legislative Decree of 13 August 2010, n. 255: 25 µg/m3 year limit was lowered to 20
µg/m3 only from 1st January 2020. However, this new national target of PM2.5 does not take into account the
direct and indirect effects deriving from the geography, urban and climatic weather conditions of the contexts,
which in the Po Valley are certainly an important element for the purposes of air quality (Ferrero et al., 2019).
In particular, local climate changes such as temperature and humidity, poor air quality and the persistent
absence of wind, make the Po Valley a one of a kind area, both at national and international level. Furthermore,
frequent and persistent thermal inversion phenomena in the winter months, especially in periods of high
atmospheric pressure, traps the cold air near the ground, together with the pollutants (Caserini et al., 2017).
In the Po valley, urban phenomena of industrialization and intensive farming (Romano & Zullo, 2016),
intertwine and more than 50% of national GDP is produced, as well as almost 50% of national energy is
consumed (Arpa Emilia-Romagna ARPAE, 2018). The transition to compatible solutions related to well-being
seems not exactly close, despite the several regional and national plans to monitor and improve air quality
(Marongiu et al., 2019). Furthermore, life expectancy for both genders is substantially stable, confirming for
longer in Northern Italy (Istituto Nazionale di Statistica, 2019), also a consequence of social inequalities,
disabilities and access to health services, contributing to the North - South social divide. Finally, also in the
North there is also a greater and specific health care over 65. In this complex framework, land use takes on a
significant dimension.
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In this research aimed at evaluating why Northern Italy was marked by Covid-19, the data set - selected from
different sources and open data) used for the development of the Lisa Maps played an important role,
supporting the interdisciplinary ecological approach: Land use; Air quality; Climate and weather; Population,
health and life expectancy. In particular, the LISA maps on indicators relating to these phenomena: Cov_14,
Cov_15, Cov_19 and Cov_72 - confirm these first evaluations of the air pollution in Po Valley megalopolis (Fig.
11, Fig. 12 and Fig.13) and at the same time highlight the other side of the metropolis: the increase in life
expectancy and the provision of related health care (no. of geriatricians / 1000 ab over 65).
Fig.10 The WHO PM 2.5 target in 2019
(a)
(b)
Fig.11 Lisa Maps: Cov_14 PM2.5 (a); Cov_15 PM10 (b)
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(a)
(b)
Fig.12 Lisa Maps: Cov_19 Ozone (a); Cov_72 PM10 and Ozone (b)
(a)
(b)
Fig. 13 Lisa Maps: Cov_102 Increase in life expectancy (2002-2017) (a); Cov_103 No. of geriatricians / 1000 ab over 65
(2019) (b)
In other words, in this complex case study of the Po Valley megalopolis we can observe the persistency of:
poor air quality - climatic handicap (Ferrero et al., 2019), inefficiency of land use (Romano et al., 2017) and
increased life expectancy (Poli et al., 2019; Sarra & Nissi, 2020) of the population with a presumably
consequent impact of Covid-19 in terms of both infections and deaths (ISTAT & ISS, 2020).
As previously explained, Po Valley has spatial configuration as basin completely closed by Alpine Chain and
Apennines and it is characterized by an a homogeneous and isotropic space. While the former feature
represents a strong impediment to air circulation and distribution the later increases the probability that urban
sprawl phenomenon occurs. The two aspects are strongly related because the soil is an important element in
the carbon cycle allowing CO2 sequestration and storage. Consequently a lack of attention to the spatial
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planning can generate negative effects producing a loss of these properties (Zomer et al., 2017). Soil and
related ecosystem services are important elements in the improvement of air quality reducing PM10 and O3
(Fusaro et al., 2017; Manes et al., 2016). Po Valley is the most attractive area of the country because great
part of productive activities are concentrated, consequently it is fundamental to have a lot of not urbanized
areas capable of allowing CO2 storage. Unfortunately annual reports of Italian Institute for Environmental
Protection and Research (ISPRA) (Munafò, 2019), other important researches (Martellozzo et al., 2018; Pileri
& Maggi, 2010; Romano & Zullo, 2016) highlight that Land take phenomenon in Italy is mainly concentrated
in the northern part of the country.
(a)
(b)
Fig.14 Lisa Maps: Cov_3: land take between 2014-2018 (a); Cov_52: land take up to 2000 (b)
(a)
(b)
Fig.15 Lisa Maps: Cov_49: sealed soils (a); Cov_82: CO2/non urbanized areas (b)
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Also spatial autocorrelation analysis confirms this trend with the more elevated values concentrated in
Lombardy region. More particularly figures 14 and 15 analyze LISA index of land take between 2014-2018 and
up to 2000, sealed soils at 2016 and CO2/non urbanized areas. The concurrence of these factors led to a
dangerous combination with a high concentration of elements dangerous to health with a strong decrease of
areas which, in some way, represent the only possibility to air cleaning.
4. Discussion
In the geographical context of Po Valley, elements as land use, life expectancy, commuting, climate handicap
and poor air quality certainly played a role and contributed to increasing the effects of the epidemic.
Furthermore, local climate changes such as temperature and humidity, poor air quality and the absence of
wind make the Po Valley an area unique of its kind, both nationally and internationally. It represents an
isotropic territorial context suitable for anthropic activities, but at the same time with latent health risks. In
particular, in the Po Valley, urban industrialization phenomena are characterized by a high entropy and by an
increasing consumption of resources, given its contribution to over 50% of national GDP and, as a side effect,
the consumption of almost 50% of national energy. Despite the existence of several regional and national
plans to monitor and improve air quality, climate, soil consumption, etc. the transition to compatible solutions
related to well-being does not seem close. Furthermore, on the occasion of the Covid-19 epidemic, PM10
emissions in the Po Valley were high and sometimes exceeded the limits and must be related to the combined
climate - wind, winter thermal inversion - and human actions - remained active in the lockdown period -
domestic heating, urban logistics, food production and retail. In this context, certainly not simple for both
human, environmental and anthropic geography, the ecological approach has allowed us to obtain the first
results and the first policy proposals with supported by GWR and LISA analysis, referring to the combined
action between urban design, monitoring and health risk plan (Fig.16).
Fig.16 Ecological approach and Policies - Po Valley Area.
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The health emergency has highlighted even more how in many cases the urban and territorial plans are old,
very far from the current reality or based on old laws, which do not allow the production of tools to respond
rapidly to current and immediate problems. The outcome is a scenario that leads to a consumption of resources
greater than the planet's capacity. The result is that the main planning goals are very far from providing a
serious response to the transformation demands that daily arise. This old system, based on vintage planning
(Romano et al., 2018) or ghost planning (Scorza et al., 2020), can lead to a situation of potential peak and
overshooting of the environmental carrying capacity (represented on left part of Fig.17).
Fig.17 Ecological approach and Policies - Po Valley Area
As in the most dramatic moments of the Covid-19 outbreak a quest for flattening the curve was requested to
avoid a peak and an extra stress over the national health systems, planning seem facing, now more than ever,
the same risks and challenges. If, as said, ghost and vintage planning can barely allow tackling short run,
ordinary solutions, for long run and extraordinary cases a change of pace is needed. An alternative to be
pursued is an ecological approach based on simulations in assessing transformations impacts, that allows
planners to take into account several land use scenarios, choosing the more suitable solutions for
transformations. Such an approach to planning can also consider the possible losses of ecosystem services in
simulations (Geneletti D., 2016; Gobattoni et al., 2016). The vast amount of data to date available, together
with the vast array of instruments for modelling scenarios, as Multiagent Systems, Space Syntax, Geodesign
(Cocco et al., 2020; Steinitz, 2012), etc. can take into account a lot of components in detailed simulations. A
Performance Based Planning represents the summary and the container for all of these models and simulation
tools. Such capacity of gathering and elaborating data to produce scenarios can help in meeting objectives of
protecting natural areas and consequently of human health be more easily.
Furthermore, adopting urban policies based on urban regeneration, sustainable mobility (Battarra et al., 2018;
Bonotti et al., 2015; Papa et al., 2018; Tira et al., 2018) and the creation of green infrastructures (Balletto et
al., 2020; Lai et al., 2018; Ronchi et al., 2020) can create a more sustainable scenario able to flatten the curve
under the Earth carrying capacity (Gargiulo & Russo, 2018; Maragno et al., 2020; Pietrapertosa et al., 2019).
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5. Conclusions
In this paper we focused our attention on the Covid-19 outbreak in Italy and on the effect of the interaction
among geographical, environmental and socio-economic characteristics. The occasion of the massive outbreak
in the Po Valley area, which has been analyzed and compared in its main character with the Wuhan – Hubei
Province in China in terms of some similarities, led us to consider a wide set of variables and analyze them by
using spatial analytical methods. This was done to evaluate some relations and to provide with some
suggestion in terms of integrated planning and policy actions. From a wide selection of variables we highlighted
four big families, grouped for ‘land use’, ‘air quality’, ‘climate and weather’ and ‘population, health and life
expectancy’. These were related to mortality, expressed in terms of SMR – Standardized Mortality Ratio -
examined in terms of spatial autocorrelation, and considered both from the spatial and attribute point of view.
Geographically Weighted Regression - GWR - and Local Indicators of Spatial Autocorrelation LISA – Spatial
analytical techniques as were performed and were useful in confirming a relation between a set of conditions
and the spreading of the Covid-19. The analysis helped to understand more the relation between
environmental conditions and health aspect, and on the need to introduce and systematize analytical tools to
support spatial decisions, to plan in ordinary and extraordinary conditions.
Future developments will concern the systematization of medium and long-term policies in relation to health
risk.
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Authors’ profile
Beniamino Murgante
He is professor of spatial panning at the School of Engineering of the University of Basilicata. Member of the Editorial Board
of many international journals, scientific committees of a lot of national and international conferences and the scientific
council of some national and international organizations. Co-General Chair of the International Conference on Computational
Science and Its Applications (ICCSA). More information can be found on the personal web page:
http://service.unibas.it/utenti/murgante/Benny.html
Ginevra Balletto
She is an Associate Professor of urban and territorial planning at the DICAAR, University of Cagliari. She is the scientific
coordinator of the Urban and territorial planning sector of the Strategic Plan of the metropolitan city of Cagliari (Sardinia,
Italy), also for post Covid-19 actions. Her actual research interests are related to urban planning and environmental
sustainability in vulnerable areas (https://people.unica.it/ginevraballetto/prodotti-della-ricerca/).
B. Murgante et al. - Geographical analyses of Covid-19's spreading contagion in the challenge of global health risks
304 - TeMA Journal of Land Use Mobility and Environment. Special Issue | Covid-19 vs City-20
Giuseppe Borruso
He is an Associate Professor of Economic and Political Geography at the DEAMS -Department of Economics, Business,
Mathematics and Statistics "Bruno De Finetti, University of Trieste. His actual research interests are related to economic
geography, with particular reference to urban geography, transport and population.
Giuseppe Las Casas
Full Professor Urban and Regional Planning at the School of Engineering of University of Basilicata, former director of
Department of Architecture, Transport and Planning of University of Basilicata and Vice-rector for the higher education of
University of Basilicata.
Paolo Castiglia
Full Professor of Hygiene at the Department of Medical, Surgical and Experimental Sciences, University of Sassari. Head of
the Unit for Hygiene and Control of Hospital Infections for the University Hospital of Sassari.
Marco Dettori
Biologist specialist in Microbiology and Virology, assistant professor of General and Applied Hygiene at the Department of
Medical, Surgical and Experimental Sciences, University of Sassari.