Tsunami Early Warning Systems in the Indian Ocean and Southeast Asia

Total Page:16

File Type:pdf, Size:1020Kb

Tsunami Early Warning Systems in the Indian Ocean and Southeast Asia ESCAP is the regional development arm of the United Nations and serves as the main economic and social development centre for the United Nations in Asia and the Pacific. Its mandate is to foster cooperation between its 53 members and 9 associate members. ESCAP provides the strategic link between global and country-level programmes and issues. It supports Governments of the region in consolidating regional positions and advocates regional approaches to meeting the region’s unique socio-economic challenges in a globalizing world. The ESCAP office is located in Bangkok, Thailand. Please visit our website at www.unescap.org for further information. The shaded areas of the map indicate ESCAP members and associate members. Tsunami Early Warning Systems in the Indian Ocean and Southeast Asia Report on Regional Unmet Needs United Nations New York, 2009 Economic and Social Commission for Asia and the Pacific Tsunami Early Warning Systems in the Indian Ocean and Southeast Asia Report on Regional Unmet Needs The designations employed and the presentation of the material in this publication do not imply the expression of any opinion whatsoever on the part of the Secretariat of the United Nations concerning the legal status of any country, territory, city or area, or of its authorities, or concerning the delimitation of its frontiers or boundaries. This publication has been issued without formal editing. The research for this publication was carried out by Sheila B. Reed, Consultant. The publication may be reproduced in whole or in part for education or non-profit purposes without special permission from the copyright holder, provided that the source is acknowl- edged. The ESCAP Publications Office would appreciate receiving a copy of any publication that uses this publication as a source. No use may be made of this publication for resale or any other commercial purpose whatsoever without prior permission. Applications for such permission, with a statement of the purpose and extent of reproduction, should be addressed to the Secretary of the Publica- tions Board, United Nations, New York. United Nations publication Sales No. E.09.11.F.14 Copyright © United Nations 2009 All rights reserved Printed in Thailand ISBN: 978-92-1-120580-0 ST/ESCAP/2536 About this Report This Report provides an overview of priorities for tsunami early warning systems in the Indian Ocean and Southeast Asia. In particular, it will guide funding decisions by the ESCAP Multi- Donor Voluntary Trust Fund on Tsunami Early Warning Arrangements in the Indian Ocean and Southeast Asia, and was developed at the request of the Fund’s Advisory Council. ESCAP would like to thank the Governments of Thailand, Sweden, Turkey and Nepal, which have made financial contributions to the Fund, and the many other countries and partners that have made important contributions of their time and expertise. Table of Contents Tsunami Early Warning Systems in the Indian Ocean and Southeast Asia Systems in the Indian Ocean and Southeast Early Warning Tsunami Acronyms and Abbreviations ....................................................................................................... vii Executive Summary ...........................................................................................................................1 1. Introduction ...........................................................................................................................3 1.1 Report on Regional Unmet Needs ......................................................................................3 1.2 ESCAP Tsunami Regional Trust Fund ..............................................................................4 1.3 Methodology..........................................................................................................................4 2. Background ............................................................................................................................5 2.1 TEWS Evolution ....................................................................................................................5 2.2 Response to the 12 September 2007 Tsunami Event ........................................................6 2.3 Key Components of the Regional TEWS ...........................................................................7 3. Governance and Institutional Arrangements ...................................................................9 3.1 Summary ................................................................................................................................9 3.2 Introduction ...........................................................................................................................9 3.3 International Coordination Mechanisms ...........................................................................9 3.4 National Coordination Mechanisms ................................................................................12 3.5 Civil Society and Community Coordination ..................................................................13 3.6 Priorities/Recommendations ............................................................................................14 4. Risk Knowledge ..................................................................................................................15 4.1 Summary ..............................................................................................................................15 4.2 Introduction .........................................................................................................................15 4.3 Organizational Arrangements ..........................................................................................15 4.4 Identification of Hazards ...................................................................................................16 4.5 Community Vulnerability Assessment............................................................................19 4.6 Risk Assessment ..................................................................................................................20 4.7 Information Storage and Accessibility .............................................................................20 4.8 Priorities/Recommendations ............................................................................................21 5. Monitoring and Warning Service .....................................................................................22 5.1 Summary ..............................................................................................................................22 5.2 Introduction .........................................................................................................................22 5.3 Institutional Mechanisms...................................................................................................22 5.4 Monitoring Systems ............................................................................................................24 5.5 Forecasting and Warning Systems ...................................................................................28 v 5.6 Priorities/Recommendations ............................................................................................29 6. Communication and Dissemination of Warnings..........................................................30 6.1 Summary ..............................................................................................................................30 6.2 Introduction .........................................................................................................................30 6.3 Organizational and Decision Making Processes ............................................................31 6.4 Effective Communication Systems and Equipment ......................................................32 6.5 Warning Messages ..............................................................................................................33 6.6 Priorities/Recommendations ............................................................................................33 7. Response Capability ...........................................................................................................34 Report on Regional Unmet Needs on Regional Report 7.1 Summary ..............................................................................................................................34 7.2 Introduction .........................................................................................................................34 7.3 Reaction to Warnings .........................................................................................................35 7.4 Disaster Preparedness and Response Plans ....................................................................36 7.5 Community Response Capacity .......................................................................................37 7.6 Public Awareness and Education .....................................................................................37 7.7 Priorities/Recommendations ............................................................................................38 8. Priorities/Recommendations ............................................................................................39 Annex 1 - Bibliography ...................................................................................................................41 vi Acronyms and Abbreviations Tsunami Early Warning Systems in the
Recommended publications
  • The Mw 8.8 Chile Earthquake of February 27, 2010
    EERI Special Earthquake Report — June 2010 Learning from Earthquakes The Mw 8.8 Chile Earthquake of February 27, 2010 From March 6th to April 13th, 2010, mated to have experienced intensity ies of the gap, overlapping extensive a team organized by EERI investi- VII or stronger shaking, about 72% zones already ruptured in 1985 and gated the effects of the Chile earth- of the total population of the country, 1960. In the first month following the quake. The team was assisted lo- including five of Chile’s ten largest main shock, there were 1300 after- cally by professors and students of cities (USGS PAGER). shocks of Mw 4 or greater, with 19 in the Pontificia Universidad Católi- the range Mw 6.0-6.9. As of May 2010, the number of con- ca de Chile, the Universidad de firmed deaths stood at 521, with 56 Chile, and the Universidad Técni- persons still missing (Ministry of In- Tectonic Setting and ca Federico Santa María. GEER terior, 2010). The earthquake and Geologic Aspects (Geo-engineering Extreme Events tsunami destroyed over 81,000 dwell- Reconnaissance) contributed geo- South-central Chile is a seismically ing units and caused major damage to sciences, geology, and geotechni- active area with a convergence of another 109,000 (Ministry of Housing cal engineering findings. The Tech- nearly 70 mm/yr, almost twice that and Urban Development, 2010). Ac- nical Council on Lifeline Earthquake of the Cascadia subduction zone. cording to unconfirmed estimates, 50 Engineering (TCLEE) contributed a Large-magnitude earthquakes multi-story reinforced concrete build- report based on its reconnaissance struck along the 1500 km-long ings were severely damaged, and of April 10-17.
    [Show full text]
  • Global Navigation Satellite System Enhancement for Tsunami Early
    1 Global Navigation Satellite System Enhancement for Tsunami Early Warning Systems Editors: John LaBrecque, Center for Space Research University of Texas Austin, Texas USA John Rundle, Earth and Planetary Science Department University California Davis, California, USA Gerald Bawden, Earth Surface and Interior Focus Area Science Mission Directorate, NASA Washington, DC USA 2 Click on Highlighted Text Below to View Agenda and Proceedings of the GTEWS 2017 Workshop • Motivation and Support GTEWS Clip: • GTEWS Development History GEONET Captures the Tohoku-oki Earthquake & • GTEWS: Tsunami Early Warning Technology Tsunami • GTEWS Requirements • Prototype GTEWS Networks • Workshop Findings and Recommendations • Bibliography 3 Motivation and Support With little to no warning more than 230,000 lives were lost to the Great Indian Ocean Tsunami of December 26, 2004 (Figure 1). The lack of warning was attributed to several failures including the absence of a proper tsunami Figure 1: Tourists become aware of the first of six tsunami waves at Hat Rai Lay Beach, near Krabi in southern Thailand, December 26, 2004. (GettyImages) warning system for the Indian Ocean as well as inadequate sensing technology and analysis systems for large earthquakes and the resulting tsunamis. The devastating loss of life focused the efforts of scientists, engineers and politicians to establish the Indian Ocean Tsunami Warning System and improve the sensor networks for more accurate and rapid estimates of tsunami potential. A combined network of seismic and geodetic sensors quickly emerged as an accurate, efficient, and cost-effective enhancement to tsunami early warning systems for those communities nearest the earthquake epicenter. Geophysicists demonstrated the potential value of the regional network of the Global Positioning System (GPS) receivers of the Global Geodetic Observing System (GGOS) in providing rapid and accurate tsunami warning and tracking.
    [Show full text]
  • Climate Change Impacts in Indonesia
    Climate Change in Indonesia Implications for Humans and Nature Michael Case1, Fitrian Ardiansyah2, Emily Spector3 1Research Scientist, WWF International Climate Change Programme 2Program Director, Climate & Energy WWF-Indonesia 3Brandeis University summary observed climate change (Hulme and Sheard, 1999; Boer and Faqih, 2004) • Mean annual temperature has increased by about 0.3°C in Indonesia • Overall annual precipitation has decreased by 2 to 3% in Indonesia • Precipitation patterns have changed; there has been a decline in annual rainfall in the southern regions of Indonesia and an increase in precipitation in the northern regions • The seasonality of precipitation (wet and dry seasons) has changed; the wet season rainfall in the southern region of Indonesia has increased while the dry season rainfall in the northern region has decreased projected climate change (Hulme and Sheard, 1999; Boer and Faqih, 2004; Naylor et al., 2007) • Warming from 0.2 to 0.3°C per decade in Indonesia • Increase in annual precipitation across the majority of the Indonesian islands, except in southern Indonesia where is it projected to decline by up to 15 percent • Change in the seasonality of precipitation; parts of Sumatra and Borneo may become 10 to 30% wetter by the 2080’s during December-February; Jakarta is projected to become 5 to 15% drier during June-August • 30-day delay in the annual monsoon, 10% increase in rainfall later in the crop year (April-June), and up to 75% decrease in rainfall later in the dry season (July–September) impacts: water
    [Show full text]
  • Exelon Generation
    Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.4.6 Table of Contents Section Title Page 2.4.6 Probable Maximum Tsunami Hazards ............................................................ 2.4.6-1 2.4.6.1 Probable Maximum Tsunami ................................................................ 2.4.6-1 2.4.6.2 Historical Tsunami Record ................................................................... 2.4.6-4 2.4.6.3 Source Generator Characteristics ........................................................ 2.4.6-4 2.4.6.4 Tsunami Analysis ................................................................................. 2.4.6-5 2.4.6.5 Tsunami Water Levels ......................................................................... 2.4.6-5 2.4.6.6 Hydrography and Harbor or Breakwater Influences on Tsunami ......... 2.4.6-8 2.4.6.7 Effects on Safety-Related Facilities ...................................................... 2.4.6-8 2.4.6.8 References ........................................................................................... 2.4.6-8 2.4.6-i Revision 0 Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.4.6 List of Tables Number Title 2.4.6-1 Summary of Historical Tsunami Runup Events in the Texas Gulf Coast 2.4.6-ii Revision 0 Victoria County Station ESP Application Part 2 — Site Safety Analysis Report Subsection 2.4.6 List of Figures Number Title 2.4.6-1 Location Map Showing the Extent of the Geological Provinces in the Gulf of Mexico Basin (Reference 2.4.6-1) 2.4.6-2 (A) Landslide Area (Purple Shade) Offshore of the Rio Grande River (East Breaks Slump) and Other Portions of the Gulf of Mexico, (B) An Enlarged View of Landslide Zones Near Sigsbee Escarpment (Reference 2.4.6-1) 2.4.6-3 The Caribbean Plate Boundary and its Tectonic Elements (Reference 2.4.6-1) 2.4.6-4 Results of Hydrodynamic Simulation for the Currituck Slide, (a) Maximum Wave Height During 100 min.
    [Show full text]
  • GIS and Emergency Management in Indian Ocean Earthquake/Tsunami Disaster
    GIS and Emergency Management in Indian Ocean Earthquake/Tsunami Disaster ® An ESRI White Paper • May 2006 ESRI 380 New York St., Redlands, CA 92373-8100, USA • TEL 909-793-2853 • FAX 909-793-5953 • E-MAIL [email protected] • WEB www.esri.com Copyright © 2006 ESRI All rights reserved. Printed in the United States of America. The information contained in this document is the exclusive property of ESRI. This work is protected under United States copyright law and other international copyright treaties and conventions. No part of this work may be reproduced or transmitted in any form or by any means, electronic or mechanical, including photocopying and recording, or by any information storage or retrieval system, except as expressly permitted in writing by ESRI. All requests should be sent to Attention: Contracts and Legal Services Manager, ESRI, 380 New York Street, Redlands, CA 92373-8100, USA. The information contained in this document is subject to change without notice. U.S. GOVERNMENT RESTRICTED/LIMITED RIGHTS Any software, documentation, and/or data delivered hereunder is subject to the terms of the License Agreement. In no event shall the U.S. Government acquire greater than RESTRICTED/LIMITED RIGHTS. At a minimum, use, duplication, or disclosure by the U.S. Government is subject to restrictions as set forth in FAR §52.227-14 Alternates I, II, and III (JUN 1987); FAR §52.227-19 (JUN 1987) and/or FAR §12.211/12.212 (Commercial Technical Data/Computer Software); and DFARS §252.227-7015 (NOV 1995) (Technical Data) and/or DFARS §227.7202 (Computer Software), as applicable.
    [Show full text]
  • Global Navigation Satellite System to Enhance Tsunami Early Warning Systems
    Hatō zu by Konen Uehara Global Navigation Satellite System to Enhance Tsunami Early Warning Systems Editors: John LaBrecque Center for Space Research, University of Texas Austin, Texas USA John Rundle Earth and Planetary Science, University California Davis, California, USA Gerald Bawden Earth Surface and Interior Focus Area, Science Mission Directorate, NASA Washington, DC USA December 2018 Global Navigation Satellite System to Enhance Tsunami Early Warning Systems Editors: John LaBrecque, Center for Space Research, University of Texas, Austin, Texas USA John Rundle, Earth and Planetary Science, University California, Davis, California, USA Gerald Bawden, Earth Surface and Interior Focus Area, Science Mission Directorate, NASA Washington, DC USA Content: • Recorded Proceedings and Presentations of the GTEWS 2017 Workshop https://www.dropbox.com/s/e53sksa7q9z8dkl/2017 GTEWS Program.pdf?dl=0 • GSTEWS: GEONET Captures Tohoku-oki earthquake https://www.dropbox.com/s/7v3rmz2b1stjpnw/GTEWS_Tohoku.mp4?dl=0 • Motivation and Support • GTEWS Development History • Tsunami Detection and Monitoring • GTEWS Requirements • Prototype GTEWS Networks • Workshop Findings and Recommendations • Bibliography Motivation and Support With little to no warning more than 230,000 lives were lost to the Great Indian Ocean Tsunami of December 26, 2004. This devastating loss of life focused the efforts of scientists, engineers and politicians to strengthen tsunami early warning systems beginning with an accurate and rapid estimate of tsunami potential. A combined network of seismic and geodetic sensors quickly emerged as an accurate, efficient, and cost effective enhancement to tsunami early warning systems for those at risk communities nearest the earthquake epicenter. In the months following the Great Indian Ocean Tsunami, geophysicists demonstrated that analysis the GPS network of the Global Geodetic Observing System could have provided warning within 15 minutes after the Sumatran earthquake if the network data were available in real time.
    [Show full text]
  • Tsunami Alert Rapid Notification System (TARNS)
    Tsunami Alert Rapid Notification System (TARNS) Partnership Program Government of Thailand - National Disaster Warning Center U.S. Department of Agriculture Forest Service National Oceanic and Atmospheric Administration Tsunami Alert Presentation Topics Rapid Notification System What is Tsunami Alert Rapid Notification System (TARNS) Why Thailand? TARNS program activities and timeline U.S. Initiative: Indian Ocean Tsunami Alert Tsunami Warning System Rapid Notification System Vision: To provide strategic support towards the development of an operational “end-to-end” tsunami warning system for the Indian Ocean within a multi-hazard framework Tsunami What is TARNS? Where does Alert Rapid it fit in end-to-end system? Notification System Regional National National / Tsunami Resilient Communities Decision Data Communication Forecast Support Notification Dissemination Actions Collect Transmit data Forecast Warning Send Warnings Evacuations hazard to forecast hazard warning to to data center (tsunami, country focal population flood, etc) point Tsunami What is TARNS? Where does it Alert Rapid link with the system as a whole? Notification System Regional Warning Network to National Focal Point to formulate forecast/warning TARNS – all national activities including the “last mile” warning dissemination Community preparedness to respond to warnings What is TARNS? How does it Tsunami Alert fit in national system? Rapid Notification System Regional Tsunami Warning Center (seismic and tsunami data collection and interpretation) National Focal
    [Show full text]
  • Living with Earthquake Hazards in South and South East Asia
    ASEAN Journal of Community Engagement Volume 2 Number 1 July Article 2 7-31-2018 Living with earthquake hazards in South and South East Asia Afroz Ahmad Shah University of Brunei Darussalam, [email protected] Talha Qadri Universiti of Brunei Darussalam See next page for additional authors Follow this and additional works at: https://scholarhub.ui.ac.id/ajce Part of the Social and Behavioral Sciences Commons Recommended Citation Shah, Afroz Ahmad; Qadri, Talha; and Khwaja, Sheeba (2018). Living with earthquake hazards in South and South East Asia. ASEAN Journal of Community Engagement, 2(1). Available at: https://doi.org/10.7454/ajce.v2i1.105 Creative Commons License This work is licensed under a Creative Commons Attribution-Share Alike 4.0 License. This Research Article is brought to you for free and open access by the Universitas Indonesia at ASEAN Journal of Community Engagement. It has been accepted for inclusion in ASEAN Journal of Community Engagement. Afroz Ahmad Shah, Talha Qadri, Sheeba Khwaja | ASEAN Journal of Community Engagement | Volume 1, Number 2, 2018 Living with earthquake hazards in South and Southeast Asia Afroz Ahmad Shaha*, Talha Qadria, Sheeba Khwajab aUniversity of Brunei Darussalam, Brunei Darussalam bFaculty of Social Sciences, Department of History, University of Brunei Darussalam, Brunei Darussalam Received: March 7th, 2018 || Revised: May 24th & June 22nd, 2018 || Accepted: July 9th, 2018 Abstract A large number of geological studies have shown that most of the Asian regions are prone to earthquake risks, and this is particularly significant in SE Asia. The tectonics of this region allow the geological investigators to argue for severe vulnerability to major and devastating earthquakes in the near future.
    [Show full text]
  • Tsunami Guideline Plan for Operators of Caribbean Ports
    Tsunami Guideline Plan for Operators of Caribbean Ports Lisbon, Portugal, during the great earthquake of 1 November 1755. This piece of art, made that year, shows the city in ruins and in flames. Tsunami rush upon the shore, destroying the wharfs. This event is known as the first teletsunami affecting the Caribbean region (Source: The Earthquake Engineering Online Archive – Jan Kozak Collection). October 2011 It was reviewed and discussed at the NSF/PRSN/NOAA-NWS Tsunami Ports Operators Workshop held on November 2 and 3, 2010 in Mayagüez, Puerto Rico. The purpose of this guideline is to suggest the plan’s document content and proposed actions to be acquired in case of a tsunami. Table of Contents SUMMARY ........................................................................................................................ 3 INTRODUCTION ............................................................................................................... 4 PROCEDURES ................................................................................................................. 6 Now, BEFORE a tsunami ............................................................................................... 6 DURING a tsunami event ............................................................................................. 10 AFTER a tsunami ......................................................................................................... 12 DEFINITION AND GLOSSARY OF TERMS .................................................................... 13
    [Show full text]
  • Indian Tsunami Warning System
    INDIAN TSUNAMI WARNING SYSTEM Shailesh Nayak and T. Srinivasa Kumar Indian National Centre for Ocean Information Services (INCOIS), Hyderabad 500055, India – [email protected] Commission IV KEY WORDS: Hazards, Ocean, Database, Modelling, Decision Support ABSTRACT: Tsunami is a system of ocean gravity waves formed as a result of large-scale disturbance of the sea floor that occurs in a relatively short duration of time. The Indian Ocean is likely to be affected by tsunamis generated mainly by earthquakes from the two potential source regions, the Andaman-Nicobar-Sumatra Island Arc and the Makran Subduction Zone. A state-of-the-art warning centre has been established at INCOIS with all the necessary computational and communication infrastructure that enables reception of real- time data from the network of national and international seismic stations, tide gauges and bottom pressure recorders (BPRs). Earthquake parameters are computed in the less than 15 minutes of occurrence. A database of pre-run scenarios for travel times and run-up height has been created using Tunami N2 model. At the time of event, the closest scenario is picked from the database for generating advisories. Water level data enables confirmation or cancellation of a tsunami. Tsunami bulletins are then generated based on decision support rules and disseminated to the concerned authorities for action, following a standard operating procedure. The criteria for generation of advisories (warning/alert/watch) are based on the tsunamigenic potential of an earthquake, travel time (i.e. time taken by the tsunami wave to reach the particular coast) and likely inundation. The performance of the system was tested on September 12, 2007 earthquake of magnitude 8.4 off Java coast.
    [Show full text]
  • Operational Users Guide for the Pacific Tsunami Warning and Mitigation System (PTWS)
    Intergovernmental Oceanographic Commission technical series 87 Operational Users Guide for the Pacific Tsunami Warning and Mitigation System (PTWS) January 2009 UNESCO 87 Operational Users Guide for the Pacific Tsunami Warning and Mitigation System (PTWS) January 2009 UNESCO 2009 IOC Technical Series No. 87 Paris, 2 February 2009 English only EXECUTIVE SUMMARY The Pacific Tsunami Warning and Mitigation System (PTWS) was founded in 1965 by the Intergovernmental Oceanographic Commission (IOC) of UNESCO, following 5 major destructive Pacific tsunamis in the previous 19 years, to help reduce the loss of life and property from this natural hazard. The Operational Users Guide for the Pacific Tsunami Warning and Mitigation System (PTWS) provides a summary of the tsunami message services currently provided to the PTWS by the U.S. National Oceanic and Atmospheric Administration’s (NOAA) Pacific Tsunami Warning Center (PTWC), the NOAA West Coast / Alaska Tsunami Warning Center (WC/ATWC) and the Japan Meteorological Agency’s (JMA) Northwest Pacific Tsunami Advisory Center (NWPTAC). This 2009 version, formerly called the Communications Plan for the Tsunami Warning System in the Pacific, has been completely revised to include descriptions of the operations of these three Centres in the main body, with additional technical information given in Annexes. The Guide is intended for use by the responsible agencies within each country of the PTWS who are recipients of tsunami messages from the international Centres. Section 1 provides the objectives and purposes of the Guide. Section 2 describes the administrative procedures, the organizations involved, and how to subscribe to services offered. Section 3 provides an overview of the three operational Centers, while Sections 4-6 describe in detail the services each of them provide.
    [Show full text]
  • 02.04S.06 Probable Maximum Tsunami
    Rev. 01 15 Jan 2008 STP 3 & 4 Final Safety Analysis Report 2.4S.6 Probable Maximum Tsunami The following site-specific supplement addresses the probable maximum tsunami. Probable maximum tsunami flooding events are discussed in Subsection 2.4S.2. 2.4S.6.1 Probable Maximum Tsunami Previous estimates of “worst-case” tsunami flooding along the Texas Gulf Coast have been made for near-field and far-field (i.e., a tsunami that occurs from a source over a 1000 km away) sources. These previous estimates have been based on both historical tsunamis and simulated events. With respect to near-field sources, the National Oceanic and Atmospheric Administration’s (NOAA) West Coast and Alaska Tsunami Warning Center has estimated “worst-case” events by using a two-dimensional depth- integrated hydrodynamic model developed at the University of Alaska, Fairbanks (Reference 2.4S.6-1). The model was run on a Cray X1 supercomputer and included four “worst-case” scenarios based on geoseismic events originating in the Caribbean Sea and the Gulf of Mexico: (1) A moment magnitude (Mw) 9.0 in the Puerto Rico trench (66W, 18N) (2) A Mw 8.2 in the Caribbean Sea (85W, 21N) (3) A Mw 9.0 in the North Panama Deformed Belt (66W, 12N) (4) A hypothetical scenario off the coast of Veracruz, Mexico (95W, 20N) For all near-field modeled scenarios, the peak shoreline wave height along the Gulf coast was less than 0.35 meters. The peak shoreline wave height for the first scenario in the vicinity of STP 3 & 4 was predicted as being between 0.04 meters and 0.06 meters (Figure 2.4S.6-1).
    [Show full text]