1956 Atlantic Hurricane Database Reanalysis – Sandy Delgado and Chris Landsea
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Texas Hurricane History
Texas Hurricane History David Roth National Weather Service Camp Springs, MD Table of Contents Preface 3 Climatology of Texas Tropical Cyclones 4 List of Texas Hurricanes 8 Tropical Cyclone Records in Texas 11 Hurricanes of the Sixteenth and Seventeenth Centuries 12 Hurricanes of the Eighteenth and Early Nineteenth Centuries 13 Hurricanes of the Late Nineteenth Century 16 The First Indianola Hurricane - 1875 21 Last Indianola Hurricane (1886)- The Storm That Doomed Texas’ Major Port 24 The Great Galveston Hurricane (1900) 29 Hurricanes of the Early Twentieth Century 31 Corpus Christi’s Devastating Hurricane (1919) 38 San Antonio’s Great Flood – 1921 39 Hurricanes of the Late Twentieth Century 48 Hurricanes of the Early Twenty-First Century 68 Acknowledgments 74 Bibliography 75 Preface Every year, about one hundred tropical disturbances roam the open Atlantic Ocean, Caribbean Sea, and Gulf of Mexico. About fifteen of these become tropical depressions, areas of low pressure with closed wind patterns. Of the fifteen, ten become tropical storms, and six become hurricanes. Every five years, one of the hurricanes will become reach category five status, normally in the western Atlantic or western Caribbean. About every fifty years, one of these extremely intense hurricanes will strike the United States, with disastrous consequences. Texas has seen its share of hurricane activity over the many years it has been inhabited. Nearly five hundred years ago, unlucky Spanish explorers learned firsthand what storms along the coast of the Lone Star State were capable of. Despite these setbacks, Spaniards set down roots across Mexico and Texas and started colonies. Galleons filled with gold and other treasures sank to the bottom of the Gulf, off such locations as Padre and Galveston Islands. -
The Timbul Site, Bali, and the Transformations Project: Material Remains and Considerations of Chronology and Typology
THE TIMBUL SITE, BALI, AND THE TRANSFORMATIONS PROJECT: MATERIAL REMAINS AND CONSIDERATIONS OF CHRONOLOGY AND TYPOLOGY Elisabeth A. Bacus Research Professor, University of Akron Email: [email protected] ABSTRACT The Timbul site, which a 2000 survey indicated had sig- nificant potential for the study of Bali's early states, was the focus of test excavations as part of the Transfor- mations in the Landscapes of South-Central Bali: An Ar- chaeological Investigation of Early Balinese States. This paper presents results of the analyses of the materials recovered from the 2004 excavations, their chronological information and an earthenware rim shape typology that is also tied to earthenware rim types from dated north coast sites. The excavated deposits, albeit limited, con- tribute further evidence of Bali's Early Metal period and rarely recovered settlement remains from possibly just prior to and during the early Classic period; these re- mains are discussed within the context of current archae- ological knowledge of these periods. INTRODUCTION South-central Bali (Figure 1), particularly the area be- tween the Pakerisan and Petanu rivers, is often considered to have been the center of the island's early states (Bernet Kempers 1991:114-115; Hobart et al. 1996:25). This area has yielded a high concentration of remains (e.g., bronze drums, carved stone sarcophagi) from the early complex societies of the mid/late-1st millennium BC to mid/late-1st millennium AD (Ardika 1987) and from the kingdoms of the Classic Period, particularly of the 11th to mid-14th cen- Figure 1 Location of the Timbul site tury AD. -
BERNAL-THESIS-2020.Pdf (5.477Mb)
BROWNWOOD: BAYTOWN’S MOST HISTORIC NEIGHBORHOOD by Laura Bernal A thesis submitted to the History Department, College of Liberal Arts and Social Sciences in partial fulfillment of the requirements for the degree of MASTER OF ARTS in History Chair of Committee: Dr. Monica Perales Committee Member: Dr. Mark Goldberg Committee Member: Dr. Kristin Wintersteen University of Houston May 2020 Copyright 2020, Laura Bernal “A land without ruins is a land without memories – a land without memories is a land without history.” -Father Abram Joseph Ryan, “A Land Without Ruins” iii ACKNOWLEDGMENTS First, and foremost, I want to thank God for guiding me on this journey. Thank you to my family for their unwavering support, especially to my parents and sisters. Thank you for listening to me every time I needed to work out an idea and for staying up late with me as I worked on this project. More importantly, thank you for accompanying me to the Baytown Nature Center hoping to find more house foundations. I am very grateful to the professors who helped me. Dr. Monica Perales, my advisor, thank you for your patience and your guidance as I worked on this project. Thank you to my defense committee, Dr. Kristin Wintersteen and Dr. Goldberg. Your advice helped make this my best work. Additionally, I would like to thank Dr. Debbie Harwell, who encouraged me to pursue this project, even when I doubted it its impact. Thank you to the friends and co-workers who listened to my opinions and encouraged me to not give up. Lastly, I would like to thank the people I interviewed. -
Background Hurricane Katrina
PARTPART 33 IMPACTIMPACT OFOF HURRICANESHURRICANES ONON NEWNEW ORLEANSORLEANS ANDAND THETHE GULFGULF COASTCOAST 19001900--19981998 HURRICANEHURRICANE--CAUSEDCAUSED FLOODINGFLOODING OFOF NEWNEW ORLEANSORLEANS •• SinceSince 1559,1559, 172172 hurricaneshurricanes havehave struckstruck southernsouthern LouisianaLouisiana ((ShallatShallat,, 2000).2000). •• OfOf these,these, 3838 havehave causedcaused floodingflooding inin NewNew thethe OrleansOrleans area,area, usuallyusually viavia LakeLake PonchartrainPonchartrain.. •• SomeSome ofof thethe moremore notablenotable eventsevents havehave included:included: SomeSome ofof thethe moremore notablenotable eventsevents havehave included:included: 1812,1812, 1831,1831, 1860,1860, 1915,1915, 1947,1947, 1965,1965, 1969,1969, andand 20052005.. IsaacIsaac MonroeMonroe ClineCline USWS meteorologist Isaac Monroe Cline pioneered the study of tropical cyclones and hurricanes in the early 20th Century, by recording barometric pressures, storm surges, and wind velocities. •• Cline charted barometric gradients (right) and tracked the eyes of hurricanes as they approached landfall. This shows the event of Sept 29, 1915 hitting the New Orleans area. • Storm or tidal surges are caused by lifting of the oceanic surface by abnormal low atmospheric pressure beneath the eye of a hurricane. The faster the winds, the lower the pressure; and the greater the storm surge. At its peak, Hurricane Katrina caused a surge 53 feet high under its eye as it approached the Louisiana coast, triggering a storm surge advisory of 18 to 28 feet in New Orleans (image from USA Today). StormStorm SurgeSurge •• The surge effect is minimal in the open ocean, because the water falls back on itself •• As the storm makes landfall, water is lifted onto the continent, locally elevating the sea level, much like a tsunami, but with much higher winds Images from USA Today •• Cline showed that it was then northeast quadrant of a cyclonic event that produced the greatest storm surge, in accordance with the drop in barometric pressure. -
Fishing Pier Design Guidance Part 1
Fishing Pier Design Guidance Part 1: Historical Pier Damage in Florida Ralph R. Clark Florida Department of Environmental Protection Bureau of Beaches and Coastal Systems May 2010 Table of Contents Foreword............................................................................................................................. i Table of Contents ............................................................................................................... ii Chapter 1 – Introduction................................................................................................... 1 Chapter 2 – Ocean and Gulf Pier Damages in Florida................................................... 4 Chapter 3 – Three Major Hurricanes of the Late 1970’s............................................... 6 September 23, 1975 – Hurricane Eloise ...................................................................... 6 September 3, 1979 – Hurricane David ........................................................................ 6 September 13, 1979 – Hurricane Frederic.................................................................. 7 Chapter 4 – Two Hurricanes and Four Storms of the 1980’s........................................ 8 June 18, 1982 – No Name Storm.................................................................................. 8 November 21-24, 1984 – Thanksgiving Storm............................................................ 8 August 30-September 1, 1985 – Hurricane Elena ...................................................... 9 October 31, -
On the Structure of Hurricane Daisy 1958
NATIONAL HURRICANE RESEARCH PROJECT REPORT NO. 48 On the Structure of Hurricane Daisy 1958 ^ 4 & U. S. DEPARTMENT OF COMMERCE Luther H. Hodges, Secretary WEATHER BUREAU F. W. Rolcheldorfoi, Chief NATIONAL HURRICANE RESEARCH PROJECT REPORT NO. 48 On the Structure of Hurricane Daisy (1958) by J6se A. Coltfn and Staff National Hurricane Research Project, Miami, Fla. Washington, D. C. October 1961 NATIONAL HURRICANE RESEARCH PROJECT REPORTS Reports by Weather Bureau units, contractors, and ccoperators working on the hurricane problem are preprinted in this series to facilitate immediate distribution of the information among the workers and other interested units. Aa this limited reproduction and distribution in this form do not constitute formal scientific publication, reference to a paper in the series should identify it as a preprinted report. Objectives and basic design of the NHRP. March 1956. No. 1. numerical weather prediction of hurricane motion. July 1956- No. 2. Supplement: Error analysis of prognostic 500-mb. maps made for numerical weather prediction of hurricane motion. March 1957. Rainfall associated with hurricanes. July 1956. No. 3. Some problems involved in the study of storm surges. December 1956. No. h. Survey of meteorological factors pertinent to reduction of loss of life and property in hurricane situations. No. 5. March 1937* A mean atmosphere for the West Indies area. May 1957. No. 6. An index of tide gages and tide gage records for the Atlantic and Gulf coasts of the United States, toy 1957. No. 7. No. 8. PartlT HurrlcaneVand the sea surface temperature field. Part II. The exchange of energy between the sea and the atmosphere in relation to hurricane behavior. -
City of League City
CITY OF DICKINSON MITIGATION PLAN CITY OF DICKINSON 07/2017 City of Dickinson Office of Emergency Management 4000 Liggio St Dickinson TX 775393 281-337-4700 TABLE OF CONTENTS Introduction........................................................................................................................................ 1 Authority .....................................................................................................................................1-2 Purpose and Need ........................................................................................................................... 2 Scope ............................................................................................................................................. 2 Section I The Planning Process ....................................................................................................... 3 Overview of the Plan Update ........................................................................................................3-4 Mitigation Planning Committee (MPC) ............................................................................................4-5 Public Participation .......................................................................................................................... 6 Announcement of Hazard Mitigation Survey ...................................................................................... 7 Hazard Mitigation Survey Form .................................................................................................. -
P6.3 Using ERA40 in Cyclone Phase Space to Refine the Classification
P6.3 Using ERA40 in Cyclone Phase Space to Refine the Classification of Historical Tropical Storms Danielle Manning* and Robert Hart The Florida State University *Corresponding author email: [email protected] I. INTRODUCTION The goal of this study is to, when feasible Understanding of cyclone structural evolution within the ERA40 data, extend and refine the structural both during and beyond the tropical stage has increased characteristics of existing best-track cyclones. These tremendously over the past fifty years through various refinements may include the tropical or extratropical satellite-based, model-based, and analysis-based transition points in the lifecycle or the genesis point of classifications. This new knowledge has brought tropical cyclones that formed from cold-core origins. forward the reanalysis of historical storms in the context Finally, through a detailed examination of the full 45 of present understanding (Landsea et al. 2004) in order years, several cyclones were found of warm-core or to extend and revise the National Hurricane Center’s hybrid structure that may qualify for subtropical or (NHC) North Atlantic hurricane database (HURDAT; tropical status, but were not documented within the Neumann et al. 1993). This reanalysis is vital for the existing best-track archive. Case examples of all these filling of gaps within, and further improvement overall events are presented below, along with an evaluation of of the track and structural evolution of tropical cyclones. CPS intensity bias evolution over the ERA40 period. II. DATA AND METHODOLOGY Using ECMWF Reanalysis dataset (ERA40; Uppala et al. 2005), three parameters that classify a cyclone within a continuum of structure (warm to cold core, shallow to deep, and frontal to nonfrontal) can be calculated (Hart 2003). -
6B.3 Synoptic Composites of the Extratropical Transition Lifecycle of North Atlantic Tropical Cyclones: Factors Determining Post-Transition Evolution
6B.3 SYNOPTIC COMPOSITES OF THE EXTRATROPICAL TRANSITION LIFECYCLE OF NORTH ATLANTIC TROPICAL CYCLONES: FACTORS DETERMINING POST-TRANSITION EVOLUTION Robert E. Hart1, Jenni L. Evans2, and Clark Evans1 1Department of Meteorology, Florida State University 2Department of Meteorology, Pennsylvania State University 1. INTRODUCTION 2. DATA AND METHODOLOGY Over the past five years, the extratropical a. Datasets transition (ET) lifecycle has been defined based upon Storm composites performed here were satellite signatures (Klein et al. 2000) and objective based upon 1°×1° resolution Navy Operational measures of dynamic and thermal structure (Evans Global Atmospheric Prediction System (NOGAPS; and Hart 2003). Following ET, tropical cyclones Hogan et al. 1991) operational analyses for the period (TCs) can become explosive cold-core cyclones, 1998-2003. During these six years, 34 Atlantic TCs explosive warm-seclusion cyclones, or simply decay underwent resolvable ET as diagnosed within the as a cold-core cyclone (Hart 2003; Evans and Hart cyclone phase space (CPS) 2003). Each of these three evolution paths has (http://moe.met.fsu.edu/cyclonephase). dramatically different wind and precipitation field b. Methodology (Bosart et al. 2001), and ocean wave (Bowyer 2000; i. Normalizing the ET timeline Bowyer and Fogarty 2003) responses associated with The ET lifecycle defined in Evans and Hart it. Furthermore, the envelope of realized intensity is (2003) is used here, with the beginning of ET fundamentally related to the structure obtained after (labeled as TB) as the time when the storm becomes ET (Hart 2003), so incorrect forecasts of storm significantly asymmetric (B>10) and end of ET structure have the effect of also degrading the (labeled as TE) the time when the lower-tropospheric L intensity forecasts. -
Pilotthe Cameron Parish 35¢ June 21, 2007 Vol
PilotThe Cameron Parish 35¢ June 21, 2007 Vol. 50--No. 37 Cameron, La. 70631 THIS HISTORIC photo was taken from the second or third floor of the Cameron Courthouse on June 27, 1957, the day that Hurricane Audrey devastated Cameron Parish. Several hundred persons in the courthouse survived but about 500 others else- where in the parish perished. This photo was taken by the late Hadley Fontenot, who was Cameron’s county agent at the time. Audrey’s 50th anniversary will be observed Wednesday, June 27 in ceremonies at the courthouse. Audrey’s 50th anniversary to be observed here June 27th By CYNDI SELLERS Hurricane Audrey book; Cameron Parish Library - his- Even as Cameron Parish torical photos; Cameron Pilot struggles to recover from the - archival materials including effects of Hurricane Rita, the the first issue after the storm; tragic and devastating impact KPLC-TV - documentaries of Hurricane Audrey in 1957 and film clips; and the has not been forgotten. On National Hurricane Museum Wednesday, June 27, the and Science Center. parish will commemorate the Corporate sponsors of the 50th anniversary of the dead- commemoration are Cheniere ly storm, which claimed over LNG, Sempra Energy, and 400 lives. Cameron Communications. The ceremony will take place at 10 a.m. on the steps of the Cameron Court House, Oak Grove which sheltered hundreds from the fury of the storm. A speaker told light lunch will be served Brigadier General after the program, and dis- plays of hurricane informa- Robert J. LeBlanc Rev. John Reynolds will be tion, books, and memorabilia guest speaker at Oak Grove will be available for viewing. -
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. -
Azimuthally-Averaged Structure of Hurricane Edouard (2014) Just After Peak Intensity
Quarterly Journal of the Royal Meteorological Society Q. J. R. Meteorol. Soc. 144: 1–5 (2018) Azimuthally-averaged structure of Hurricane Edouard (2014) just after peak intensity Roger K. Smitha∗, Michael T. Montgomeryb and Scott Braunc a Meteorological Institute, Ludwig Maximilians University of Munich, Munich, Germany b Dept. of Meteorology, Naval Postgraduate School, Monterey, CA, USA c Laboratory for Mesoscale Atmospheric Processes, NASA Goddard Space Flight Center, Greenbelt, Maryland, MD, USA ∗Correspondence to: Prof. Roger K. Smith, Meteorological Institute, Ludwig-Maximilians University of Munich, Theresienstr. 37, 80333 Munich, Germany. E-mail: [email protected] Analyses of dropsonde data collected in Hurricane Edouard (2014) just after its mature stage are presented. These data, have unprecedentedly high spatial resolution, based on 87 dropsondes released by the unmanned NASA Global Hawk from an altitude of 18 km during the Hurricane and Severe Storm Sentinel (HS3) field campaign. Attempts are made to relate the analyses of the data to theories of tropical cyclone structure and behaviour. The tangential wind and thermal fields show the classical structure of a warm core vortex, in this case with a secondary eyewall feature. The equivalent potential temperature (θe) field shows also the expected structure with a mid-tropospheric minimum at outer radii and contours of θe flaring upwards and outwards at inner radii and, with some imagination, roughly congruent to the surfaces of absolute angular momentum. However, details of the analysed radial velocity field are somewhat sensitive to the way in which the sonde data are partitioned to produce an azimuthal average. This sensitivity is compounded by an apparent limitation of the assumed steadiness of the storm over the period of data collection.