Coastal Storms Are a Reality for New York City, Arriving As Hurricanes, Tropical Cyclones ,And Nor’Easters When Certain Meteorological Conditions Converge
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PRC.15.1.1 a Publication of AXA XL Risk Consulting
Property Risk Consulting Guidelines PRC.15.1.1 A Publication of AXA XL Risk Consulting WINDSTORMS INTRODUCTION A variety of windstorms occur throughout the world on a frequent basis. Although most winds are related to exchanges of energy (heat) between different air masses, there are a number of weather mechanisms that are involved in wind generation. These depend on latitude, altitude, topography and other factors. The different mechanisms produce windstorms with various characteristics. Some affect wide geographical areas, while others are local in nature. Some storms produce cooling effects, whereas others rapidly increase the ambient temperatures in affected areas. Tropical cyclones born over the oceans, tornadoes in the mid-west and the Santa Ana winds of Southern California are examples of widely different windstorms. The following is a short description of some of the more prevalent wind phenomena. A glossary of terms associated with windstorms is provided in PRC.15.1.1.A. The Beaufort Wind Scale, the Saffir/Simpson Hurricane Scale, the Australian Bureau of Meteorology Cyclone Severity Scale and the Fugita Tornado Scale are also provided in PRC.15.1.1.A. Types Of Windstorms Local Windstorms A variety of wind conditions are brought about by local factors, some of which can generate relatively high wind conditions. While they do not have the extreme high winds of tropical cyclones and tornadoes, they can cause considerable property damage. Many of these local conditions tend to be seasonal. Cold weather storms along the East coast are known as Nor’easters or Northeasters. While their winds are usually less than hurricane velocity, they may create as much or more damage. -
ABSTRACT Title of Document: the EFFECT of HURRICANE SANDY
ABSTRACT Title of Document: THE EFFECT OF HURRICANE SANDY ON NEW JERSEY ATLANTIC COASTAL MARSHES EVALUATED WITH SATELLITE IMAGERY Diana Marie Roman, Master of Science, August 2015 Directed By: Professor, Michael S. Kearney, Environmental Science and Technology Hurricane Sandy, one of several large extratropical hurricanes to impact New Jersey since 1900, produced some of the most extensive coastal destruction within the last fifty years. Though the damage to barrier islands from Sandy was well-documented, the effect of Sandy on the New Jersey coastal marshes has not. The objective of this analysis, based on twenty-three Landsat Thematic Mapper (TM) data sets collected between 1984 and 2011 and Landsat 8 Operational Land Imager (OLI) images collected between 2013 and 2014 was to determine the effect of Hurricane Sandy on the New Jersey Atlantic coastal marshes. Image processing was performed using ENVI image analysis software with the NDX model (Rogers and Kearney, 2004). Results support the conclusion that the marshes were stable between 1984 and 2006, but had decreased in vegetation density coverage since 2007. Hurricane Sandy caused the greatest damage to low-lying marshes located close to where landfall occurred. THE EFFECT OF HURRICANE SANDY ON NEW JERSEY ATLANTIC COASTAL MARSHES EVALUATED WITH SATELLITE IMAGERY by Diana Marie Roman Thesis submitted to the Faculty of the Graduate School of the University of Maryland, College Park in partial fulfillment of the requirements for the degree of Masters of Science 2015 Advisory Committee: Professor Michael Kearney, Chair Professor Andrew Baldwin Associate Professor Andrew Elmore © Copyright by Diana Marie Roman 2015 Forward Hurricane storm impacts on coastal salt marshes have increased over time. -
Lessons for Coastal Cities from Hurricane Sandy (PDF)
NRDC: Preparing for Climate Change - Lessons for Coastal Cities from Hurricane Sandy (PDF) APRIL 2014 NRDC REPORT R:14-04-A Preparing for Climate Change: Lessons for Coastal Cities from Hurricane Sandy AUTHORS: Kim Knowlton, Dr.P.H. Miriam Rotkin-Ellman, M.P.H. Natural Resources Defense Council ACKNOWLEDGMENTS The authors would like to thank Zev Ross and Hollie Kitson of ZevRoss Spatial Analysis, Ithaca, New York, for conducting the mapping of areas in the five boroughs of New York City that were affected by unexpected flooding as a result of Hurricane Sandy in October–November 2012. We would also like to acknowledge the sustainable development project work of Barnard College students Carly Wertheim, Mariah Chen, Reeva Dua, Claudia Mack, Jenny Pensky, and Emilie Schattman (advised by professor Martin Stute), who, in the fall of 2013, developed a preliminary analysis of health and economic costs in areas unexpectedly flooded during Hurricane Sandy. Their work helped shape this issue brief. This work is an outgrowth of a panel presentation titled Climate Change & Public Health Policy Implications of Sandy, given by Kim Knowlton, Dr.P.H., at a Special Session of the 2013 American Public Health Association meeting in Boston. We are grateful to the following colleagues and external peer reviewers who provided invaluable comments on this report: David Abramson of the National Center for Disaster Preparedness; Patrick L. Kinney, director of the Climate and Health Program at the Mailman School of Public Health, Columbia University; Robert Moore and Ben Chou of NRDC’s Climate and Water program; and NRDC colleagues Steve Fleischli, Becky Hammer, Becky Hayat, Theo Spencer and Monty Schmitt. -
2014 New York Hazard Mitigation Plan Hurricane Section 3.12: HURRICANE (Tropical/ Coastal Storms/ Nor’Easter)
2014 New York Hazard Mitigation Plan Hurricane Section 3.12: HURRICANE (Tropical/ Coastal Storms/ Nor’easter) 2014 SHMP Update Reformatted 2011 Mitigation Plan into 2014 Update outline Added Tropical Storms, Coastal Storms, & Nor’easter hazards to Hurricane Profile Added new key terms to 2011 Mitigation Plan’s list of terms Updated past hurricane occurrences section Inserted Events and Losses table Inserted new Hurricane Events and Property Losses maps Added information on New York Bight Added active State development projects 3.12.1 Hurricane (Tropical/ Coastal Storms/ Nor’easters) Profile Coastal storms, including Nor’easters, tropical storms, and hurricanes can, either directly or indirectly, impact all of New York State. More densely populated and developed coastal areas, such as New York City, are the most vulnerable to hurricane-related damages. Before a storm is classified a hurricane, it must pass through four distinct stages: tropical disturbance, tropical depression, tropical storm and lastly a hurricane. Figure 3.12a: Four Stages of a Hurricane Tropical Disturbance (Stage 1) Tropical Hurricane Depression (Stage 4) (Stage 2) Tropical Storm (Stage 3) 3.12-1 Final Release Date January 4, 2014 2014 New York Hazard Mitigation Plan Hurricane Characteristics Below are some key terms to review relating to hurricanes, tropical storms, coastal storms and nor’easters: Hazard Key Terms and Definition Nor’easter- An intense storm that can cause heavy rain and snow, strong winds, and coastal flooding. Nor’easters have cold, low barometric -
Port Recovery in the Aftermath of Hurricane Sandy VOICES Improving Port Resiliency in the Era of Climate Change from the FIELD
AUGUST 2014 Port Recovery in the Aftermath of Hurricane Sandy VOICES Improving Port Resiliency in the Era of Climate Change FROM THE FIELD By Commander Linda A. Sturgis, USCG; Dr. Tiffany C. Smythe and Captain Andrew E. Tucci, USCG Acknowledgements The authors would like to acknowledge and thank the New York and New Jersey Port community, first responders and dedicated volun- teers who selflessly helped so many people and saved numerous lives in the aftermath of Hurricane Sandy. Dr. Smythe’s research on Hurricane Sandy was supported in part through the University of Colorado Natural Hazards Center’s Quick Response Grant Program, funded by National Science Foundation grant CMMI 1030670. The views expressed in this report are those of the authors and do not represent the official policy or position of the Department of Defense, Department of Homeland Security or the U.S. government. Cover Image The U.S. Coast Guard fuel pier and shore side facilities in Bayonne, New Jersey were severely damaged from Hurricane Sandy’s storm surge. (U.S. COAST GUARD) AUGUST 2014 Port Recovery in the Aftermath of Hurricane Sandy Improving Port Resiliency in the Era of Climate Change By Commander Linda A. Sturgis, USCG; Dr. Tiffany C. Smythe and Captain Andrew E. Tucci, USCG About the Authors Commander Linda A. Sturgis is a Senior Military Fellow at Captain Andrew E. Tucci is the Chief of the Office the Center for a New American Security. She led the Hurricane of Port and Facility Compliance at Coast Guard Sandy port recovery effort during her assignment at Coast Headquarters in Washington DC. -
Hurricane Sandy Rebuilding Strategy
Hurricane Sandy Rebuilding Task Force HURRICANE SANDY REBUILDING STRATEGY Stronger Communities, A Resilient Region August 2013 HURRICANE SANDY REBUILDING STRATEGY Stronger Communities, A Resilient Region Presented to the President of the United States August 2013 Front and Back Cover (Background Photo) Credits: (Front Cover) Hurricane Sandy Approach - NOAA/NASA (Back Cover) Hurricane Sandy Approach - NOAA/NASA Cover (4-Photo Banner) Credits - Left to Right: Atlantic Highlands, New Jersey - FEMA/ Rosanna Arias Liberty Island, New York - FEMA/Kenneth Wilsey Seaside Heights, New Jersey - FEMA/Sharon Karr Seaside Park, New Jersey - FEMA/Rosanna Arias Hurricane Sandy Letter from the Chair Rebuilding Strategy LETTER FROM THE CHAIR Last October, Hurricane Sandy struck the East Coast with incredible power and fury, wreaking havoc in communities across the region. Entire neighborhoods were flooded. Families lost their homes. Businesses were destroyed. Infrastructure was torn apart. After all the damage was done, it was clear that the region faced a long, hard road back. That is why President Obama pledged to work with local partners every step of the way to help affected communities rebuild and recover. In recent years, the Federal Government has made great strides in preparing for and responding to natural disasters. In the case of Sandy, we had vast resources in place before the storm struck, allowing us to quickly organize a massive, multi-agency, multi-state, coordinated response. To ensure a full recovery, the President joined with State and local leaders to fight for a $50 billion relief package. The Task Force and the entire Obama Administration has worked tirelessly to ensure that these funds are getting to those who need them most – and quickly. -
Hurricane & Tropical Storm
5.8 HURRICANE & TROPICAL STORM SECTION 5.8 HURRICANE AND TROPICAL STORM 5.8.1 HAZARD DESCRIPTION A tropical cyclone is a rotating, organized system of clouds and thunderstorms that originates over tropical or sub-tropical waters and has a closed low-level circulation. Tropical depressions, tropical storms, and hurricanes are all considered tropical cyclones. These storms rotate counterclockwise in the northern hemisphere around the center and are accompanied by heavy rain and strong winds (NOAA, 2013). Almost all tropical storms and hurricanes in the Atlantic basin (which includes the Gulf of Mexico and Caribbean Sea) form between June 1 and November 30 (hurricane season). August and September are peak months for hurricane development. The average wind speeds for tropical storms and hurricanes are listed below: . A tropical depression has a maximum sustained wind speeds of 38 miles per hour (mph) or less . A tropical storm has maximum sustained wind speeds of 39 to 73 mph . A hurricane has maximum sustained wind speeds of 74 mph or higher. In the western North Pacific, hurricanes are called typhoons; similar storms in the Indian Ocean and South Pacific Ocean are called cyclones. A major hurricane has maximum sustained wind speeds of 111 mph or higher (NOAA, 2013). Over a two-year period, the United States coastline is struck by an average of three hurricanes, one of which is classified as a major hurricane. Hurricanes, tropical storms, and tropical depressions may pose a threat to life and property. These storms bring heavy rain, storm surge and flooding (NOAA, 2013). The cooler waters off the coast of New Jersey can serve to diminish the energy of storms that have traveled up the eastern seaboard. -
Hurricane Gloria's Potential Storm Surge
NOAA TECHNICAL MEMORANDUM NWS ER-70 HURRICANE GLORIA'S POTENTIAL STORM SURGE Anthony F. Gigi, WSO N~w York, NY (LGA) David A. Wert, WSO Newark, NJ Scientific Services Division Eastern Region Headquarters July 1986 u.s. DEPARTMENT OF I National Oceantc and National Weather COMMERCE Almosphenc Admonostrabon I Servtce ,, NOAA TECHNICAL MEMORANDUM NWS ER-70 HURRICANE GLORIA'S POTENTIAL STORM SURGE Anthony F. Gi gi, WSO New York, NY (LGA) David A. Wert, WSO Newark, NJ Scientific Services Division Eastern Region Headquarters July 1986 .) ' __ / IJ INDEX Introduction. 1 Storm Surges. l Hypothetical High Tide Flooding Damages 2 Maximum Damage Possibilities. 7 Conclusion •... 8 Figures 1 through 4 - Actual Storm Surges Which Accompanied Hurricane Gloria During Low-Tide Figure 1 - Bergen Point Figure 2 - Sandy Hook Figure 3 - The Battery Figure 4 - Willets Point Figures 5 through 8 - Hypothetical Storm Surges Which Would Have Accompanied Hurricane Gloria During High-Tide Figure 5 - The Battery Figure 6 - Willets Point Figure 7 - Bergen Point Figure 8 - Sandy Hook Reference Maps Map 1 - Battery Tide, Bergen Point, and Willets Point gauges; JFK, LaGuardia, Newark, and Teterboro Airports Map 2 - Sandy Hook gauge and u.s. Military Reservation Map 3 - Long Island \J J -------------------------- - --- --- ------ Introduction Hurricane Gloria threatened residents of the New York City metropolitan area on Friday, September 27, 1985. Gloria was one of the strongest north atlantic hurricanes of the century, yet the area never received the full fury of the storm due to the following reasons: 1) The upper right hand quadrant (in this case the northeast quadrant) of a hurricane usually contains the strongest winds and most damaging storm surges. -
Plans and Prospects for Coastal Flooding in Four Communities Affected by Sandy
APRIL 2017 W O N G - P A R O D I E T A L . 183 Plans and Prospects for Coastal Flooding in Four Communities Affected by Sandy GABRIELLE WONG-PARODI Department of Engineering and Public Policy, Carnegie Mellon University, Pittsburgh, Pennsylvania BARUCH FISCHHOFF Department of Engineering and Public Policy, and Institute for Politics and Strategy, Carnegie Mellon University, Pittsburgh, Pennsylvania BEN STRAUSS Climate Central, Princeton, New Jersey (Manuscript received 4 April 2016, in final form 1 December 2016) ABSTRACT The risk of coastal flooding is increasing due to more frequent intense storm events, rising sea levels, and more people living in flood-prone areas. Although private adaptation measures can reduce damage and risk, most people living in risk-prone areas take only a fraction of those measures voluntarily. The present study examines relationships among individuals’ beliefs and actions regarding flood-related risks based on in-depth interviews and structured surveys in communities deeply affected by Superstorm Sandy. The authors find that residents recognize the risk of coastal flooding and expect it to increase, although they appear to un- derestimate by how much. Although interview participants typically cited climate change as affecting the risks that they face, survey respondents’ acceptance of climate change was unrelated to their willingness to tolerate coastal flooding risks, their beliefs about the effectiveness of community-level mitigation measures, or their willingness to take individual actions. Respondents who reported greater social support also reported both greater tolerance for flood risks and greater confidence in community adaptation measures, suggesting an important, but complex role of personal connections in collective resilience—both keeping people in place and helping them to survive there. -
Verification of a Storm Surge Modeling System for the New York City – Long Island Region
Verification of a Storm Surge Modeling System for the New York City – Long Island Region A Thesis Presented By Thomas Di Liberto to The Graduate School in Partial Fulfillment of the Requirements for the Degree of Master of Science in Marine and Atmospheric Science Stony Brook University August 2009 Stony Brook University The Graduate School Thomas Di Liberto We, the thesis committee for the above candidate for the Master of Science degree, hereby recommend acceptance of this thesis. Dr. Brian A. Colle, Thesis Advisor Associate Professor School of Marine and Atmospheric Sciences Dr. Malcolm J. Bowman, Thesis Reader Professor School of Marine and Atmospheric Sciences Dr. Edmund K.M. Chang, Thesis Reader Associate Professor School of Marine and Atmospheric Sciences This thesis is accepted by the Graduate School Lawrence Martin Dean of the Graduate School ii Abstract of the Thesis Verification of a Storm Surge Modeling System for the New York City – Long Island Region by Thomas Di Liberto Master of Science in Marine and Atmospheric Science Stony Brook University 2009 Storm surge from tropical cyclones events nor‟ easters can cause significant flooding problems for the New York City (NYC) – Long Island region. However, there have been few studies evaluating the simulated water levels and storm surge during a landfalling hurricane event over NYC-Long Island as well as verifying real-time storm surge forecasting systems for NYC-Long Island over a cool season. Hurricane Gloria was simulated using the Weather Research and Forecasting (WRF) V2.1 model, in which different planetary boundary layer (PBL) and microphysics schemes were used to create an ensemble of hurricane landfalls over Long Island. -
Coastal Hazards & Flood Mapping – a Visual Guide
COASTAL HAZARDS & FLOOD MAPPING A VISUAL GUIDE Coastal communities are special places and home to important resources. But what makes them so distinctive is also what makes them at high risk for floods. Floods are the nation’s costliest natural disasters, and coastal communities face many flood risks. These include storm surges, powerful waves, and erosion — all of which can cause extensive damage to homes, businesses, and public spaces. When a coastal storm approaches, community leaders and members of the media may use technical terms to describe storm-related risks. This visual guide explains these terms and how they relate to information shown on flood maps. TABLE OF CONTENTS UNDERSTANDING COASTAL HAZARDS & RISKS ........... 1 Inundation ..............................................................1 Coastal Flooding .....................................................1 Stillwater Elevation ..................................................2 Wave Setup ............................................................2 Storm Surge ...........................................................2 Storm Tide ..............................................................2 Wave Hazards .........................................................3 a. Runup and Overtopping b. Overland Wave Propagation Erosion ...................................................................4 Sea Level Rise ........................................................5 Tsunami ..................................................................5 COASTAL FLOOD MAPS: KEY TERMS -
Hazard Mitigation Plan – Dutchess County, New York 5.4.1-1 December 2015 Section 5.4.1: Risk Assessment – Coastal Hazards
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