Luca Guerrieri Valerio Comerci Eutizio Vittori

Similar documents
2.3 Notes: Earthquake Damage Can Be Reduced

Important Concepts. Earthquake hazards can be categorized as:

Earthquake Hazards. Tsunami

Earthquake Hazards. Tsunami

Earthquake Hazards. Tsunami

Numerical investigation of the November 17, 2015 anomaly in the harbor of Crotone, Ionian Sea

Earthquakes Chapter 19

Finding an Earthquake Epicenter Pearson Education, Inc.

Earthquakes and Earthquake Hazards Earth - Chapter 11 Stan Hatfield Southwestern Illinois College

Earthquakes. Earthquake Magnitudes 10/1/2013. Environmental Geology Chapter 8 Earthquakes and Related Phenomena

Earthquakes. Building Earth s Surface, Part 2. Science 330 Summer What is an earthquake?

SCENARIO DESIGN ON THE IMPACT OF A HIGH-MAGNITUDE EARTHQUAKE IN THE CITY OF LIMA, PERU

NPTEL Online - IIT Kanpur. Course Name Geotechnical Earthquake Engineering. Department IIT Kanpur

Active Tectonics. Earthquakes, Uplift, and Landscape. Edward A. Keller University of California, Santa Barbara

Lab 9: Satellite Geodesy (35 points)

Earthquake hazards. Aims 1. To know how hazards are classified 2. To be able to explain how the hazards occur 3. To be able to rank order hazards

Tsunami and earthquake in Chile Part 2

Dynamic Crust Regents Review

Magnitude 6.3 SOUTH ISLAND OF NEW ZEALAND

Module 2, Investigation 1: Earthquake Hazards

Earthquakes. Chapter Test A. Multiple Choice. Write the letter of the correct answer on the line at the left.

Earthquakes Earth, 9th edition, Chapter 11 Key Concepts What is an earthquake? Earthquake focus and epicenter What is an earthquake?

Seismic vulnerability in Latinamerica Speaker: Rafael Osiris de León Sciences Academy of Dominican Republic.

Guidelines for Site-Specific Seismic Hazard Reports for Essential and Hazardous Facilities and Major and Special-Occupancy Structures in Oregon

The March 11, 2011, Tohoku-oki earthquake (Japan): surface displacement and source modelling

ENGINEERING-SEISMOLOGICAL ASPECTS OF EARTHQUAKE SCENARIO DEVELOPMENT ON THE EXAMPLE OF TASHKENT, UZBEKISTAN

Natural Disasters Spring, LECTURE #8: Earthquake Disasters: Monitoring & Mitigation. Date: 1 Feb 2018 (lecturer: Dr.

REPORT ON THE TOHOKU AREA PASIFIC OFFSHORE EARTHQUAKE

Candidate Name Centre Number Candidate Number CHANGING PHYSICAL AND HUMAN LANDSCAPES SAMPLE ASSESSMENT MATERIALS

Lecture Outline Wednesday-Monday April 18 23, 2018

Earthquakes. These icons indicate that teacher s notes or useful web addresses are available in the Notes Page.

PROTECTING MONUMENTS AND HISTORICAL SETTINGS FROM THE NEXT EARTHQUAKE

Application of a GIS for Earthquake Hazard Assessment and Risk Mitigation in Vietnam

Tsukuba, Japan International Institute of Seismology and Earthquake Engineering Building Research Institute STUDY TRIP TO ITAKO CITY

Monitoring Coastal Change after the Tsunami in Thailand

Earthquakes and Faulting

Forces in Earth s Crust

PLATE DEFORMATION - 2

CHANGING PHYSICAL AND HUMAN LANDSCAPES SAMPLE ASSESSMENT MATERIALS

Indian Ocean Tsunami Warning System: Example from the 12 th September 2007 Tsunami

PROTECTING MONUMENTS AND HISTORICAL SETTINGS FROM THE NEXT EARTHQUAKE

Comparison between predicted liquefaction induced settlement and ground damage observed from the Canterbury earthquake sequence

Downtown Anchorage Seismic Risk Assessment & Land Use Regulations to Mitigate Seismic Risk

Geo-hazard Potential Mapping Using GIS and Artificial Intelligence

Landscape evolution. An Anthropic landscape is the landscape modified by humans for their activities and life

Overview of Consequences of the Tsunami in Thailand and Roles and Activities of the Department of Mineral Resources after the 26 December 2004 Tsunami

Assessment Schedule 2015 Earth and Space Science: Demonstrate understanding of the causes of extreme Earth events in New Zealand (91191)

S. Toda, S. Okada, D. Ishimura, and Y. Niwa International Research Institute of Disaster Science, Tohoku University, Japan

Magnitude 6.5 OFFSHORE NORTHERN CALIFORNIA

What is a Tsunami? Tsu = harbor Nami = wave (Japanese terms)

EARTHQUAKE HAZARD ASSESSMENT IN KAZAKHSTAN

Earthquakes Science & Safety. Ms Joan L. Latchman Seismologist Seismic Research Unit

Mw 7.8, Southwest of Sumatra, Indonesia Wed, 2 March 2016 at 12:49:48 UTC M /03/03

SCIENCE OF TSUNAMI HAZARDS

Wainui Beach Management Strategy (WBMS) Summary of Existing Documents. GNS Tsunami Reports

Pilot service: Southern Emilia Romagna (Italy)

Objectives. Vocabulary

Major External Processes Driven by energy from the sun and from gravity. Also create hazards and resources.

GEOTECHNICAL ENGINEERING INVESTIGATION HANDBOOK Second Edition

SCIENCE OF TSUNAMI HAZARDS

UGRC 144 Science and Technology in Our Lives/Geohazards

EC Funded Research on Tsunamis in the. Achievements and Perspectives

Earthquakes 11/14/2014. Earthquakes Occur at All Boundaries. Earthquakes. Key Aspects of an Earthquake. Epicenter. Focus

Groundwater and Coastal Phenomena Preceding the 1944 Tsunami (Tonankai Earthquake)

Rapid Changes on Earth: Earthquakes, Volcanoes, Landslides. Chapter 6 Study Guide

3l NATURAL HAZARDS AND UNSTABLE GROUND

An analysis on the relationship between land subsidence and floods at the Kujukuri Plain in Chiba Prefecture, Japan

FOURTH GRADE HAZARDS 1 WEEK LESSON PLANS AND ACTIVITIES

An entire branch of Earth science, called, is devoted to the study of earthquakes.

Magnitude 7.0 N of ANCHORAGE, ALASKA

Storms. 3. Storm types 4. Coastal Sectors 5. Sorm Location and Seasonality 6. Storm Severity 7. Storm Frequency and grouping 8. The design storm event

appendix e: geologic and seismic hazards

Seismic risk in Romania

Section 19.1: Forces Within Earth Section 19.2: Seismic Waves and Earth s Interior Section 19.3: Measuring and Locating.

Running Head: JAPANESE TSUNAMI 1. Geological Perspective of the Japanese Tsunami

Magnitude 7.7 QUEEN CHARLOTTE ISLANDS REGION

I. Locations of Earthquakes. Announcements. Earthquakes Ch. 5. video Northridge, California earthquake, lecture on Chapter 5 Earthquakes!

UNIT - 7 EARTHQUAKES

Earthquake prediction. Earthquake prediction: animals?

SECTION 3. Housing. EAppendix E GEOLOGIC AND SEISMIC HAZARDS

Section Forces Within Earth. 8 th Grade Earth & Space Science - Class Notes

Earthquakes Science & Safety. Dr. Richard Robertson Geologist & Head Seismic Research Unit

Before exploring the effects of the 1906 earthquake, watch the video on ground shaking and liquefaction at:

Looking after Lyme Regis

Study of the liquefaction phenomenon due to an earthquake: case study of Urayasu city

Earthquakes and Earth s Chapter. Interior

FIG Working Week May, Bulgaria From the wisdom of the ages to the challanges of modern world

EQ Monitoring and Hazards NOTES.notebook. January 07, P-wave. S-wave. surface waves. distance

TECHNIQUES FOR ASSESSING COASTAL HAZARD AREAS FOR THE GISBORNE DISTRICT COAST

STUDY ON TSUNAMIGENIC EARTHQUAKE CRITERIA FOR THE INDONESIAN TSUNAMI EARLY WARNING SYSTEM

Probabilistic Earthquake Risk Assessment of Newcastle and Lake Macquarie Part 1 Seismic Hazard.

Earthquakes in Canada

Preliminary report on the Canterbury Earthquake South Island of New Zealand , M 6.3

Disclaimer. This report was compiled by an ADRC visiting researcher (VR) from ADRC member countries.

20.1 Earthquakes. Chapter 20 EARTHQUAKES AND VOLCANOES. Earthquakes and plate boundaries 500 UNIT 6 EARTH S STRUCTURE

Lecture notes Bill Engstrom: Instructor Earthquakes GLG 101 Physical Geology

Earthquakes Web Quest

Update on the It s Our Fault project

ARE THE SEQUENCES OF BUS AND EARTHQUAKE ARRIVALS POISSON?

ADDITIONAL RESOURCES. Duration of resource: 30 Minutes. Year of Production: Stock code: VEA Resource written by: Andrew Clarke BA Dip Tchg

Transcription:

Earthquake Environmental Effects induced by the 1908 December 28 th Messina earthquake: an in-situ contribute to the Messina supersite (GEO Task DI-09-01a Vulnerability Mapping and Risk Assessment Luca Guerrieri (luca.guerrieri@isprambiente.it) Valerio Comerci (valerio.comerci@isprambiente.it) Eutizio Vittori (eutizio.vittori@isprambiente.it) This document describes a dataset of in situ effects induced by the 1908 Messina earthquake on natural environment, produced by ISPRA as a contribute to the EEE Catalogue, in the frame of an INQUA (International Union for Quaternary Research) project. This dataset will contribute to the Messina supersite, as a first example of the contribute of the EEE Catalogue to the Task DI-09-01a Vulnerability Mapping and Risk Assessment of the GEO Work Plan. The EEE Catalogue The EEE Catalogue aims at collecting in a standard way all the information regarding the effects induced by paleo, historical and modern earthquakes on natural environment (Earthquake Environmental Effects). The catalogue is compiled at global level in the frame of the #0811 INQUA TERPRO Project "A global catalogue of Earthquake Environmental Effects". The implementation of the EEE Catalogue by the partners through a web interface is in progress. At the moment only a few validated records are available on the public version of the EEE Catalogue at http://www.eeecatalog.sinanet.apat.it/login For each earthquake information is available at different level of generalization: at earthquake level general information is available about the seismic event, including essential seismological parameters, the extent of surface faulting and total area covered by EEE, epicentral intensity assessments based on damage distribution and/or on environmental effects (ESI 2007 intensity scale). at locality level information is given about the locality where an ESI local intensity assessment is available. at site level detailed information is available about the environmental effect, including its original description, classification, major characteristics and size, references and, when available, even a picture.

Figure 1 Spatial distribution of the localities affected by Earthquake Environmental Effects induced by the 1908 Messina earthquake The spatial location of epicenter, localities and sites can be seen on Google Maps (Figure 1). Alphanumeric data and coordinates can be exported as a Table (Figure 2). Thus, it is possible to plot the spatial data on a GIS and, to build a web service (e.g. WMS, WFS) for the Messina supersite. Figure 2 List of descriptions of Earthquake Environmental Effects for Messina as reported in the historical documents (in Italian). Each effect has been classified according to its genesis (slope movement, ground settlement, etc.).

Environmental Effects induced by the 1908 December 28 th Messina earthquake The December 28, 1908, Southern Calabria - Messina earthquake (Intensity MCS XI, Mw 7.24) was the strongest seismic event of the 20th century in Italy and the most ruinous in terms of casualties (at least 80,000). Its epicenter was located at sea in the southern part of the Messina Straits. Few minutes after the earthquake, both sides of the Straits were inundated by several tsunami waves, worsening the disastrous effects due directly to the earthquake. The damages were particularly catastrophic along the Calabrian coast, between south of Reggio Calabria and south-west of Scilla, and along the eastern coast of Sicily from its easternmost tip to south of Messina. Messina and Reggio Calabria were almost totally destroyed. We have collected and catalogued all the described coseismic effects on the environment (Figure 3) by means of a careful screening of contemporary documents, i.e. technical and photographic reports, newspapers and other archive material. Inside 447 different testimonies of environmental effects, we have identified 290 independent occurrences (Figure 4). Among these effects, particularly relevant were the changes in elevation (mainly ground lowering) along both sides of the Straits, partly due to the settlement of loose sediments and artificial filling (e.g., Messina and Reggio Calabria port areas), and partly ascribed to landslides and tectonic deformation. Liquefaction phenomena, described as water, mud or sand ejection, occurred in the areas of Messina, lake Pantano (Ganzirri) and Reggio Calabria. Portions of the coast were lost, because of landslides and the combined action of the tsunami erosion and the earthquake shaking. Ground cracks were reported in 69 localities, most of them in Messina, Reggio Calabria and Villa San Giovanni. 75 slope movements occurred in many Sicilian and Calabrian localities mainly along coastal areas, but also inland. Several hydrological anomalies occurred in both regions: appearance or disappearance of springs, change of spring discharge, water temperature variations. Also descriptions of gas emissions have been found. The larger part of the collected effects is localized in the urban areas, which attracted the attention of the reporter, and along the coastal areas which were more easily accessible. To each ground effect has been attributed one of four spatial resolution values (0-1 Km, 1-10 Km, 10-100 Km, 100-1000 Km). However, this information is not available in the EEE Catalogue.

Figure 3 - Location of the environmental effects of the 1908 earthquake in the Straits area according to the collected documents CLASSIFICATION OF THE DESCRIBED EFFECTS Tsunami waves: 204 Appearance/disapp. of springs; change of springs discharge/ water temperature: 12 Coastline retreat: 19 Crack: 69 Ground lowering: 28 Water/mud/sand ejection: 8 Mass deposition on the sea floor: 11 Other: 7 Rumble: 14 Lights: 18 Gas emission: 9 Slope movement: 75 Ground uplift by levelling: 30 Differential lowering and tilting in buildings and other artificial structures: 14 Ground lowering by levelling: 91 Figure 4 - Classification of all the environmental effects of the 1908 earthquake found in contemporary documents (technical and photographic reports, newspapers and other archive material). Many testimonies are related to the same effects

Implications for seismic risk of the Messina area The dataset clearly points out the vulnerability of the physical environment to the occurrence of 1908 Messina like-earthquakes (and associated tsunami). The identification and characterization of the most vulnerable sites nowadays exposed to the occurrence of earthquake environmental effects is essential in the seismic risk assessment of the Messina area. The analysis of the in situ observations reported in the contemporary sources allowed us to map the spatial distribution of ground coseismic environmental effects of the 1908 earthquake. This information is essential in order to better estimate the future impact of a similar occurrence on a town like Messina that has experienced a strong urban and infrastructural growth since then. In particular, the dataset allow to know the areas prone to seismically induced landslides, liquefactions, ground settlements, etc. and to be reached by tsunami waves. Furthermore, information on Earthquake Environmental Effects is helpful also for the evaluation of the seismic intensity of the event: in fact. the EEE characteristics, size, spatial distribution and extent can be used for the definition of epicentral and local intensity through the ESI 2007 intensity scale. In 25 localities, where more diagnostic environmental effects occurred (Figures 5 and 6), we have applied the ESI 2007 scale in order to evaluate the intensity: in the Straits area the ESI values are one or two degrees lower than the MCS values (at Messina the maximum ESI value is X, while the maximum MCS value is XI). We have to consider that the ESI scale is calibrated on the MM and MSK scales, which provide intensity estimates lower than the MCS scale for the highest degrees. Moreover, the strong earthquakes that struck this area in 1894, 1905 and 1907 had certainly weakened the buildings, many of them constructed using fluvial stones and poor quality mortar, which had been badly restored afterwards. Figure 5 - ESI 2007 intensity values for several localities located in the far field area of the 1908 Messina earthquake

Figure 6 - ESI 2007 intensity values for several localities in the Straits area