stoa working breakfast innovative methodologies in earthquake booklet... · in this field the fp6...
TRANSCRIPT
STOA Working Breakfast
Innovative methodologies in
earthquake disaster mitigation
Participants' booklet
STOA Working Breakfast
Innovative methodologies in
earthquake disaster mitigation
Participants' booklet
Wednesday 27 January 2016, 08:00 - 09:00
European Parliament, Brussels
Room A3H-1
2
Available at: http://www.europarl.europa.eu/stoa/cms/home/workshops/earthquake
3
CONTENTS
1 PROGRAMME ....................................................................................................................... 4
2 INTRODUCTION ....................................................................................................................... 5
3 CHAIR ............................................................................................................................................ 6
Renata BRIANO, MEP, STOA Panel .................................................................................... 6
4 SPEAKERS ..................................................................................................................................... 7
4.1 PAOLO GASPARINI, PROFESSOR EMERITUS, UNIVERSITY OF NAPOLI FEDERICO II,
NAPOLI, ITALY; CEO OF AMRA SCARL, ITALY ...................................................................... 7
4.2 ARTUR PINTO, EUROPEAN LABORATORY FOR STRUCTURAL ASSESSMENT (ELSA),
JOINT RESEARCH CENTRE, EUROPEAN COMMISSION .......................................................... 10
4.3 STEFAN WIEMER, DIRECTOR OF THE SWISS SEISMOLOGICAL SERVICE (SED), ZURICH ... 12
5 ABOUT STOA ............................................................................................................................ 14
5.1 MISSION................................................................................................................................. 14
5.2 ADMINISTRATION ............................................................................................................. 15
4
1 PROGRAMME
Chair: Renata BRIANO, MEP, STOA Panel
08.00 – 08.05
WELCOME SPEECH
Renata BRIANO, MEP, STOA Panel
08.05 – 08.15
THE ROLE PLAYED BY RECENT EUROPEAN PROJECTS TO INCREASE SEISMIC
SAFETY IN EUROPE
Paolo GASPARINI, Professor Emeritus, University of Napoli Federico II, Napoli, Italy; CEO
of AMRA Scarl, Italy
08.15 – 08.25
MITIGATION OF SEISMIC RISKS IN EUROPE: THE ROLE OF THE EUROCODES
Artur PINTO, European Laboratory for Structural Assessment (ELSA)
Joint Research Centre, European Commission
08.25 – 08.35
FUTURE CHALLENGES IN REAL-TIME EARTHQUAKE RISK REDUCTION
Stefan WIEMER, Director of the Swiss Seismological Service (SED), Zurich
08.35 – 08.55
Q&A SESSION
08.55 – 09.00
CLOSING REMARKS
Enrico GASBARRA, MEP
5
2 INTRODUCTION
Earthquakes are often devastating in terms of loss of life and environmental damage. Despite
the recent scientific evolution, earthquakes are still the most unpredictable and feared
natural disaster.
In fact they seem to occur without any previous warning. They also last a few seconds, but
they can cause severe human losses and material damage.
It is not possible to predict earthquakes. However, their physical consequences are highly
predictable once we know which are the potential seismogenetic sources that may affect an
area and the physical and human characteristics of that same area.
Earthquakes are widespread in Europe. The most destructive events occurred in the
Mediterranean countries, particularly Greece, Italy and Turkey, which are in the collision
zone between the Eurasian and African crustal plates.
Albania and Romania have also experienced major earthquakes. Smaller earthquakes are felt
by other nations, although there is generally little damage.
Though we cannot prevent earthquakes from occurring, their affects can be quite minimised
through effective prevention measures and reduction of vulnerability.
Given that the low term and the medium term impacts of the earthquakes are very serious in
several aspects of life, Member States have tried to establish national policies and take proper
measures in order to minimise the seismic disasters.
On the other side, important international organisations make their own efforts for the
development of technologies and policies that will lessen the effects of earthquakes.
From its side, European Union supports a number of initiatives and tries to launch a basis for
co-operation and technical evolution in the same field.
The aim of this STOA working breakfast is to underline the seriousness of the seismic risk in
Europe, to present the measures and the initiatives that have been taken in national level
regarding earthquakes, as well as the relevant activities and initiatives taken by the
European Union institutions and other international organisations.
6
3 CHAIR
Renata BRIANO, MEP, STOA Panel
Renata Briano is a Member of the European Parliament since July 2014. She is Vice- Chair of
the Fisheries Committee and a substitute member of the Committee on Environment, Public
Health and Food Safety. She is also the Vice-Chair of the “Biodiversity, hunting and
countryside” intergroup in the European Parliament.
She is graduated in natural sciences (1983-1989) and she worked as Researcher at the
Institute for Educational Technology CNR in Italy.
She was appointed as Councilor for the environment and sustainable development, wildlife
management and hunting-fishing of the Province of Genoa (2000-2010) and Regional
Minister for the environment and sustainable development of the Liguria Region (2010-
2014).
Key message
Earthquakes are one of the most detrimental natural disasters. Though is not possible to
predict earthquakes their physical consequences are highly predictable: they can cause
heavy material damage and human losses.
The seismic risk in Europe is high. Considering the theory of plate tectonics the highest
earthquake hazard in Europe is widespread in southern-eastern areas. Although we cannot
prevent earthquakes, we can reduce the vulnerability of the European population by the
adoption of prevention measures.
Preventive and real-time actions focusing on reduction of vulnerability are an essential way
to decrease the earthquake risk.
7
4 SPEAKERS
4.1 Paolo GASPARINI, Professor Emeritus, University of Napoli Federico II, Napoli,
Italy; CEO of AMRA Scarl, Italy
Paolo Gasparini is Professor Emeritus at the University of Napoli Federico II and Chief
Executive Officer of Analisi E Monitoraggio Del Rischio Ambientale (AMRA). He has been
Professor of Geophysics at the University of Napoli Federico II from 1970 till 2012, President
of the International Association of Volcanology and Chemistry of the Earth’s Interior
(IAVCEI) (1991-95) and Director of the Mt. Vesuvius Volcanological Observatory (1970-83).
Author of more than 150 papers published on peer reviewed journals, his more recent
scientific interest is focused on the application of early warning methods to decrease the
effects of natural hazards, on risk management problems, quantitative probabilistic risk
assessment and multi-hazard multi-risk models.
Professor Gasparini has directed several large national, European and international projects.
They include the Italian Geodynamic Project (1974-76), involving more than 70 universities,
the National Group of Volcanology of the Italian Civil Protection (1996-2002).
Paolo Gasparini has been the scientific coordinator or has been in the managing team of
several Framework Programmes of European Projects such as the FP5 TomoVes (Seismic
Tomography of Mount Vesuvius) and PEFIRVES Project and the FP6 NaRAs (Natural Risk
Assessment) and SAFER (Seismic Early Warning For Europe) Projects, the FP7 REAKT
(Methodologies for Earthquake Real Time Risk Reduction). He is presently leading the
HORIZON 2020 SHEER (Shale gas Exploration and Exploitation induced Risks) Project.
He has been member of the Advisory Group for the Environment of the European
Commissioner of Research, of the scientific committee of the Pole Gestion des Risques of
PACA region, France and advisor of the French Government and the Italian Government on
issues related to sustainable development and risk management.
8
He was the secretary of the International Commission on Earthquake Forecasting (ICEF) set
up by Italian Civil Protection, in the aftermath of L’Aquila Earthquake, and of the ICHESE
Commission established by the Italian Department of Civil Protection and the Government
of Emilia-Romagna Region to estimate the possibility that the 2012 Emilia earthquake
sequence has been affected by the nearby traditional hydrocarbon operations.
Key Message
The continuous expansion of population and the growth of complex lifeline systems make
our world increasingly exposed to seismic risk. The world’s urban areas are becoming hot
spots of global risk change, because of the continuous increase of population and of
complexity of lifeline systems.
Europe has a long history of destructive earthquakes mostly concentrated in the peri‐
Mediterranean area. The tragic events of Izmit (Turkey) in 1999, L’Aquila (Italy) in 2009 and
the Emilia (Italy) earthquake in 2012 are only some recent examples. Most of the European
cities will not be affected by a dramatic increase of population. Nonetheless, they face
increasing levels of risk because of the growing industrialization and networking of
infrastructures, lifelines and economies.
In many cities exposed to high earthquake hazard, a substantial proportion of the population
still lives in buildings that do not meet modern earthquake‐resistant standards. As a
consequence, a primary target for Europe must be the decrease of both human and
financial/infrastructural potential losses caused by earthquakes.
Although the US and Japan have populations exposed to similar levels of high earthquake
hazard, the relative vulnerability of the European population is some 10 times greater than in
Japan, and 100 times that of the US. The protection of critical infrastructure and life‐lines is
one of the priorities of the EU.
Preventive actions, such as retrofitting of structures, are essential, but they are not sufficient
and cannot be applied easily on a large scale. Real‐time actions focusing on decreasing the
physical vulnerability and exposure of populations are a viable way to reduce earthquake
risk.
These actions require the development and the use of probabilistic forecasting,
(characterized by high probability gain and very low absolute probability values), of early
warning, rapid loss and damage evaluation considering the evolution of vulnerability and
risk with time.
In this field the FP6 SAFER (Seismic Early Warning for Europe) project was the first large
project in the Western world on Earthquake Early warning to join seismologists and
engineers in the development of a general framework for the applications of early warning
methods.
9
Its successor, the FP7 REAKT (Strategies and tools for Real Time EArthquake RisK
ReducTion) has improved significantly the efficiency and the reliability of these methods and
their capability of protecting structures, infrastructures and people. In REAKT the end‐user
perspective has been carefully considered in the evaluation of each component of real time
risk mitigation chain, including all the uncertainties.
Thanks to the close integrations of several end‐users in the projects REAKT has evaluated the
feasibility of application of the developed methods to different strategic targets.
These projects were the first steps towards a unified information that would be extremely
valuable for supporting the decision making process.
The implementation of methodologies of real time mitigation of earthquake risk is an
objective feasible in Europe, since that its territory is covered by many high quality seismic
and accelerometers networks, managed by national and European agencies particularly fit
for short term forecast and, in some cases, specifically designed for seismic early warning.
10
4.2 Artur PINTO, European Laboratory for Structural Assessment (ELSA),
Joint Research Centre, European Commission
Artur Pinto is the Head of Unit of the Joint Research Centre - European Laboratory for
Structural Assessment (ELSA), Institute for the Protection and Security of the Citizen, which
addresses safety and security issues in the Construction and Building Sector.
He has contributed to the development of the Eurocodes, the European standards for
structural design (especially Eurocode 8 – Seismic Design), and follows their implementation
and further extension to new materials, efficiency issues and considering also structural
robustness.
His research and policy-support group provides pre-normative technical guidance resulting
from direct research and networking with key institutions in Europe and abroad, bridging
the gap between research and standardization and supporting EU policies for the building
sector focusing on safety and security against natural and manmade hazards.
Artur Pinto has a doctoral degree in Mechanical Engineering from the IST, Technical
University of Lisbon. He has over 250 scientific and technical publications. He lectured in a
few post-graduate courses at European Universities and has been member of the scientific
board of several international conferences. He has also been a key-note speaker at several
international conferences.
Key Message
Reducing loss of life to suitably low thresholds is always the primary concern in seismic
protection; however, in our present societies, acceptability of risk is largely an economic
issue. This brings seismic protection to a multi-performance objective, where the estimated
consequences of earthquakes are throughout minimized, including the time necessary for
recovery (resilience).
11
The European Commission has financed in the last two decades several research projects in
the field of earthquake risk management and has also strongly supported the development
of European standardization for the design of new and retrofit of existing buildings, bridges
and other civil structures.
The publication of the Eurocodes in 2010 by CEN (European Committee for Standardisation)
represents a key milestone in the European standardization process and provides Europe
with an advanced instrument for the implementation of European legislation in the
construction sector and for increasing the competitiveness of the construction industry in the
internal and external markets.
The European standard for Seismic Design, known as Eurocode 8, addresses new and
existing structures and constitutes the key technical tool to mitigate seismic risk in Europe. It
is also the result of exemplar cooperation between research and standardization, as most of
the recent research results were incorporated in the code.
An ongoing standardization mandate from DG GROW will lead to a second generation of
these standards, bringing in further harmonization, new materials and innovative
methodologies for design and assessment.
The Joint Research Centre has recently carried out a series of research and demonstration
tests on full-scale buildings and bridges as part of a series of research projects financed by
the European Framework Program FP7, which will be illustrated in the presentation.
These projects embrace new concepts and technical solutions currently being developed at
European and worldwide level, such as earthquake damage-free/tolerant structures and the
incorporation of dissipative devices.
This opens up new research areas and creates the conditions for further innovation in the
building sector. The results of these tests serve as a basis for the development of new
European design guidelines and rules to be incorporated in the standardization process.
The availability of adequate and modern standards and guidelines for the design of new
buildings is certainly a key element in the medium/long-term reduction of seismic risk in
Europe; however, it is well known that most of the damages caused by earthquakes are
mostly a consequence of the collapse and damage of existing buildings without appropriate
earthquake resistance, which require retrofit or replacement.
Therefore, appropriate conditions should be created to speed up the renovation of such
building stock in European seismic prone zones. This should be undertaken together with
the rehabilitation of buildings for improved energy efficiency and sustainability, while
taking into consideration other aspects in the context of a life-cycle analysis.
12
4.3 Stefan WIEMER, Director of the Swiss Seismological Service (SED), Zurich
Professor Wiemer is the chair of seismology at the department of Earth Science, ETH Zurich,
and the director of the Swiss Seismological Service (SED, www.seismo.ethz.ch). Born in 1967
in Germany, he graduated from the Ruhr University in Bochum in 1992 and earned his PhD
in geophysics from the University of Alaska in Fairbanks in 1996. In 1997, he was awarded a
fellowship by the German Alexander von Humboldt Foundation and moved to Tsukuba,
Japan. In 1999, he progressed to the SED as a research associate, where he initiated and led
research groups on statistical seismology and induced seismicity. He was promoted to titular
professor in 2007 and appointed as a full professor and SED director in 2013.
His expertise and research interests include probabilistic seismic hazard and risk assessment,
time-dependent processes, earthquake predictability and operational earthquake forecasting,
earthquake early warning and induced seismicity related to GeoEnergy applications. He
published more than 120 articles in international peer reviewed journals since 1994 (h=33)
and supervised 16 PhD students at ETH.
Stefan Wiemer contributed in a wide range of community service positions. He is a member
of the Swiss academy of sciences and was the Swiss delegate in the European Academies
Science Advisory Council working group on carbon capture and storage. Currently he is
serving as advisor to the Dutch State Supervision of Mines on the problem of induced
seismicity in Groningen, and is a member of the ERC Consolidator Grants evaluation panel.
During his career, Stefan Wiemer initiated, coordinated or participated in a wide range of
research and development projects at national or international scale. In 2009/10, he was the
project manager of the Organisation for Economic Co-operation and Development (OECD)
initiated Private-Public Partnership for earthquake risk assessment worldwide (GEM, the
Global Earthquake Model). He also was a leading Principal Investigator and participant in
many large-scale European projects (NERIES, NERA, SHARE, GEISER, REAKT, IMAGE,
EPOS, DESTRESS).
13
Key Message
For more than 100 years, seismology has worked in pretty much the same way: damaging
earthquakes could not be predicted beforehand with any confidence; after they occurred it
takes hours to days in order to understand what has happened and determine the impact.
Warnings were not possible. While after-the-fact information and damage assessment is
clearly important, there are strong limitations to the value of this information.
New information technologies, much denser seismic networks, an improved understanding
of the physics and statistics of earthquakes and also changing risk perception of societies will
in my view lead to a paradigm shift in the way earthquake information could be processed,
analysed and distributed in a near-real time environment. Earthquake hazard and risk will
be appreciated not as a constant in time, but a rapidly evolving risk landscape.
Operational Earthquake Forecasting tools will highlight periods and regions of elevated
seismic risk with gradually improving accuracy, albeit still with large uncertainties and
missed events. In the near future, smart cities will contain literally tens of tens of thousands
of cheap wireless seismic sensors, the Internet of Things will connect buildings, cars,
appliances and also people to a continuous changing risk landscape.
While an earthquake ruptures along a fault, event information and sometimes early
warnings about imminent arrival of damaging shaking will be readily available to anybody
and anything connected to the Internet. A smart building will know that it will experience
significant shaking and whether it has suffered any damage; it will also know the likelihood
that another event may hit in in the next 24 hours. How will it inform occupants about its
safety level? Will smart phone applications inform me about the best actions to take when
dangerous shaking or a tsunami wave is imminent, taking into account the strength and
location of the building that I am in, and the place that I am in the building?
Across many nations in Europe earthquakes remain the natural hazard with the largest risk
profile, both in terms of human and financial losses. I will argue in this presentation that
seismology, civil defence and society in Europe is not yet ready to take advantage of these
emerging capabilities for enhanced earthquake information and not prepared for the
scientific, technical, societal and legal challenges these changes will bring along.
To move real-time seismology forward, the quality, density and robustness of seismic
networks and processing tools needs to be much improved, enabling networks to deal with
the challenges of big data and automated decision making under uncertainty.
14
5 ABOUT STOA
5.1 MISSION
The Science and Technology Options Assessment (STOA) Panel forms an integral part of the
structure of the European Parliament. Launched in 1987, STOA is tasked with identifying
and independently assessing the impact of new and emerging science and technologies. The
goal of its work is to assist, with independent information, the Members of the European
Parliament (MEPs) in developing options for long-term, strategic policy-making.
The STOA Panel
The STOA Panel consists of 24 MEPs nominated from the eight permanent parliamentary
committees: AGRI (Agriculture & Rural Development), CULT (Culture & Education), EMPL
(Employment & Social Affairs), ENVI (Environment, Public Health & Food Safety), IMCO
(Internal Market & Consumer Protection), ITRE (Industry, Research & Energy), JURI (Legal
Affairs) and TRAN (Transport & Tourism). Ms Mairéad McGuinness MEP is the European
Parliament Vice-President responsible for STOA and member of the Panel. The STOA Chair
for the first half of the 8th legislature is Paul Rübig, with Eva Kaili and Evžen Tošenovský
elected as 1st and 2nd Vice-Chairs.
The STOA Approach
STOA fulfils its mission primarily by carrying out science-based projects. Whilst undertaking
these projects, STOA assesses the widest possible range of options to support evidence-based
policy decisions. A typical project investigates the impacts of both existing and emerging
technology options and presents these in the form of studies and options briefs. These are
publicly available for download via the STOA website: www.europarl.europa.eu/stoa/.
Some of STOA's projects explore the long-term impacts of future techno-scientific trends,
with the aim to support MEPs in anticipating the consequences of developments in science.
Alongside its production of 'hard information', STOA communicates its findings to the
European Parliament by organising public events throughout the year.
Focus areas
STOA activities and products are varied and are designed to cover as wide a range of
scientific and technological topics as possible, such as nano-safety, e-Democracy, bio-
engineering, assistive technologies for people with disabilities, waste management,
cybersecurity, smart energy grids, responsible research & innovation, sustainable agriculture
and health. They are grouped in five broad focus areas: eco-efficient transport and modern
energy solutions; sustainable management of natural resources; potential and challenges of
the Internet; health and life sciences; science policy, communication and global networking.
15
5.2 ADMINISTRATION
Director-General - Directorate-General for Parliamentary Research Services (EPRS)
Anthony Teasdale
Director, Directorate C, Impact Assessment & European Added Value
Wolfgang Hiller
Head of Unit - Scientific Foresight Unit (STOA)
Theo Karapiperis
Head of Service - STOA Secretariat
Zsolt Pataki
Head of Service - Scientific Foresight
Lieve Van Woensel
Administrators
Nera Kuljanic
Mihalis Kritikos
Gianluca Quaglio – Seconded National Expert
Assistants
Serge Evrard
Rachel Manirambona
Damir Plese
Anne Villers
Trainee
Liliana Cunha