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FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

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Flooding occurs somewhere in the world approximately 10,000 times every day as the consequences of a locale having more water than the local water cycle can process within its physical limits. Floods occur as the result of: extreme levels of , precipitation in thunderstorms, tropical storms, typhoons, hurricanes, and cyclones; in storm surges, and in tsunami wave run up. We continue to operate with a flawed premise: Knowledge from flood disasters, which occur in association with great subduction zone earthquakes in the Pacific and Indian oceans and are very well understood, therefore flood disaster resilience should be accomplished relatively easily by vulnerable countries. Unfortunately, the fact of the matter is, floods are not annual events; they are also complex, so most nations, whether impacted or not, usually are slow to adopt and implement policies based on science and recent catastrophic events making flood disaster resilience a very elusive goal to achieve. What have we learned from recent past floods to increase survivability? First of all, the timing of anticipatory actions is vital. People who know: 1) what to expect (e.g., strong ground motion, soil effects, flood wave run up, ground failure), where and when floods have historically happened, and 3) what they should (and should not) do to prepare for them, will survive. Secondly, timely, realistic disaster scenarios save lives. The people who have timely, realistic, advance information that facilitates reduction of vulnerabilities, and hence the risks associated with strong ground shaking, flood wave run up, and ground failure will survive. Thirdly, Emergency preparedness and response. The “Uncontrollable and Unthinkable” events will always hinder the timing of emergency response operations, especially the search and rescue operations that are limited to “the golden 48 hours.” The local community’s capacity for emergency health care (i,e., coping with damaged hospitals and medical facilities, lack of clean drinking water, food, and medicine, and high levels of morbidity and mortality) is vital for survival. And finally, earthquake engineer building save lives. Buildings engineered to withstand the risks from an earthquake’s strong ground shaking and ground failure that cause damage, collapse, and loss of function, is vital for protecting occupants and users from death and injury. Presentation courtesy of Dr. Walter Hays, Global Alliance for Disaster Reduction

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Page 1: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN

INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

Page 2: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODING

• Flooding occurs somewhere in the world approximately 10,000 times every day as the consequences of a locale having more water than the local water cycle can process within its physical limits.

Page 3: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODS

• Floods occur as the result of: extreme levels of precipitation in thunderstorms, tropical storms, typhoons, hurricanes, and cyclones; after a storm surge, and after tsunami wave run up.

Page 4: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LOSS OF FUNCTION OF STRUCTURES IN FLOODPLAIN

FLOODSFLOODS

INUNDATION

INTERACTION WITH HAZARDOUS MATERIALS

STRUCTURAL/CONTENTS DAMAGE FROM WATER

WATER BORNE DISEASES (HEALTH PROBLEMS)

EROSION AND MUDFLOWS

CONTAMINATION OF GROUND WATER

CAUSES OF RISK

CAUSES OF RISK

FLOOD DISASTER LABORATORIES

FLOOD DISASTER LABORATORIES

Page 5: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODING ALSO TRIGGERS LANDSLIDES

THAT CAN ALSO CAUSE A DISASTER (see part 9)

Page 6: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

ONE OF WORLD’S FLOOD MOST NOTABLE DISASTER

LABORATORIES: THE YANGTZE RIVER DRAINAGE

BASIN, CHINA

PAST 2,100 YEARS

Page 7: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOODING: YANGTZE RIVER

• Historical records indicate that in 2,100 years, between the early Han Dynasty and late Qing Dynasty, the Yangzte flooded 214 times, an average of once every 10 years.

Page 8: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

YANGTZE RIVER

Page 9: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

CHINA’S FLOOD LABOR-ATORY: THE YANGTZE RIVER

• The Yangtze River, with over 700 tributaries, is the longest river in Asia and the third longest in the World.

• Its headwaters are situated at an elevation of 16,000 feet in the Kunlun Mountains, and its mouth is 3,720 miles away in the East China Sea, north of Shanghai.

Page 10: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLOOD DISASTER LABORATORY:

PAKISTAN2010

Page 11: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

ONE-FIFTH OF PAKISTAN FLOODED: JULY 29

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HURRICANE DEANWAS A FLOOD DISASTER LABORATORY

FROM THE CARIBBEAN TO THE GULF OF MEXICO

2007

FROM A CATEGORY 2-3 STORM ON 17 AUGUST 2007 TO A CATEGORY 4 STORM ON 18 AUGUST 2007 TO A CATEGORY 5 STORM

ON 20 AUGUST

Page 13: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

HURRICANE DEAN: CATEGORY 2 STORM ON AUGUST 16

Page 14: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

PROJECTED STORM TRACK: AUGUST 17

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HURRICANE DEAN: A CATEGORY 2-3 STORM ON AUGUST 17

• The eye of hurricane Dean, the first of the North Atlantic season, passed between the Caribbean islands: St. Lucia and Martinique, on Friday, August 17.

• The two islands, less than 80 km (50 mi) apart were, were struck with storm surge, heavy rain, and winds of 165 - 200 km per hour (100 - 125 mi per hour).

Page 16: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

IMPACTS ON MARTINIQUE

• In Martinique, Hurricane Dean flooded many locales and ripped roofs from houses and buildings.

• 100 percent of Martinique’s banana crop and 70 percent of the sugar cane crop were destroyed.

• Trees were downed.• Electrical power was knocked out.• Airport were closed.• Tourists in coastal hotels were evacuated. • $270 million damage to infrastructure

Page 17: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE: WIND AND RAIN

Page 18: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE

Page 19: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE:BOAT SINKING

Page 20: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE: FLOODING

Page 21: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE: FLOODING

Page 22: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FORT DE FRANCE, MARTINIQUE: FLOODING

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JAMAICA: STORM SURGE DESTROYED HOUSE

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FLOODING DAMAGE IN JAMAICA

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FLOODING DAMAGE IN PORT AU PRINCE: JAMAICA

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FLOODING, LANDSLIDES, AND DEBRIS IN KINGSTON, JAMAICA

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FLOODING IN CHETUMAL, MEXICO ON AUGUST 21

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FLOODING:BACALAR, MEXICO ON AUGUST 21

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LIMONES, MX. MAYAN COMMUNITY, FLOODED: AUGUST 22-23

Page 30: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

TYPHOONS KETSANA, PARMA, AND MIRINAE WERE

FLOOD DISASTER LABORATORIES IN THE

PHILIPPINES2007

Page 31: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

PHILIPPINES HIT BY KETSANA, PARMA, MIRINAE: SEPT- NOV

Page 32: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

KETSANA FLOODS QUESON CITY

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KETSANA FLOODING IN PHILIPPINES; SEPT 23-30

Page 34: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

KETSANA FLOODS CAINTA RIZAL

Page 35: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

PARMA FLOODS THE PHILIPPINES; OCT 9

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PARMA’S RAIN AND FLOODING TRIGGERS MUDFLOWS; OCT 12

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MIRINAE FLOODING: NOV 2

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TWO OF MANY FLASH FLOOD DISASTER LABORATORIES:

ISTHANBUL,TURKEY2007

SAN BERNARDINO, CAAUGUST 3, 2014

Page 39: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLASH FLOODS NEAR ISTHANBUL, TURKEY: SEPT 9

Page 40: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLASH FLOOD DISASTER LABORATORY: AUG. 3, 2014

Page 41: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLASH FLOOD DISASTER LABORATORY: AUG. 3, 2014

• After a torrential rain storm on Sunday in southern California’s San Bernardino Mountains, flash floods triggered thick debris flows

• The 5 m (15 ft) debris flows cut off access to two towns: Oak Glen, and Forest Falls.

Page 42: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FLASH FLOOD TRIGGERS DEBRIS FLOWS: AUG. 3, 2014

Page 43: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

THE TSUNAMI WAVE RUN UP ON AMERICAN SAMOA WAS A

FLOOD DISASTER LABORATORY

2007

Page 44: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

AMERICAN SAMOA TSUNAMI: SEPT 29

Page 45: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

The M7.7 earthquake generated a near-source tsunami with 3 m (10 ft) waves that struck within 5 minutes

after the quake---so quickly that the regional tsunami warning system

that was improved after the December 26, 2004 tsunami disaster, was ineffective..

Page 46: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

TSUNAMI WAVE RUN UP IN MENTAWAI ISLAND

TSUNAMI WAVE RUN UP IN MENTAWAI ISLAND

Page 47: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

PAGO PAGO, ANERICAN SAMOA AFTER THE TSUNAMI; SEPT 29

Page 48: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LESSON: THE KNOWLEDGE AND TIMING OF ANTICIPATORY ACTIONS IS VITAL

• The people who know: 1) what to expect (e.g., inundation from extreme precipitation, storm surge, tsunami wave run up), 2) where and when impacts will happen, and 3) what they should (and should not) do to prepare for them will survive.

Page 49: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LESSON: TIMELY, REALISTIC DISASTER SCENARIOS SAVE LIVES

• The people who have timely, realistic, advance information that facilitates reduction of vulnerabilities, and hence the risks associated with floods will survive.

Page 50: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LESSON: EMERGENCY RESPONSE SAVES LIVES

• The timing of emergency response operations, especially the search and rescue operations that are limited to “the golden 48 hours,” will increase the likelihood of survival.

Page 51: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LESSON: EMERGENCY MEDICAL PREPAREDNESS SAVES LIVES

• The local community’s capacity for emergency health care (i.e., coping with damaged hospitals and medical facilities, lack of clean drinking water, food, and medicine to treat water borne diseases, and high mor-bidity/mortality is vital for survival.

Page 52: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

LESSON: ENGINEERED INFRASTRUCTURE SAVE LIVES

• Infrastructure engineered to withstand the risks from floods (e.g., inundation, foundation scour, damage, failure, and loss of function), is vital for survival.

Page 53: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

WE CONTINUE TO OPERATE WITH A FLAWED PREMISE:

KNOWLEDGE FROM FLOOD DISASTERS, WHICH OCCUR EVERY

DAY SOMEWHERE IN THE WORLD IN ASSOCIATION WITH RAIN, SEVERE

WINDSTORMS, AND TSUNAMIS, IS ENOUGH TO MAKE ANY NATION

ADOPT AND IMPLEMENT POLICIES TO FACILITATE DISASTER RESILIENCE

Page 54: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

FACT: GLOBAL CONSTRUCTION IN THE FLOOD PLAIN OF RIVERS AND

ALONG COASTAL AREAS IS EXTENSIVE; THE ASSOCIATED

POLITICAL CONTROVERSY CAUSES MOST NATIONS TO BE SLOW TO

ADOPT AND IMPLEMENT POLICIES FOR FLOOD DISASTER RESILIENCE

Page 55: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

YOUR

COMMUNITY

YOUR

COMMUNITYDATA BASES AND INFORMATIONDATA BASES AND INFORMATION

HAZARDS: GROUND SHAKING GROUND FAILURE SURFACE FAULTING TECTONIC DEFORMATION TSUNAMI RUN UP AFTERSHOCKS

• MONITORING• SCENARIO MAPS• INVENTORY• VULNERABILITY• LOCATION

RISK

ACCEPTABLE RISK

UNACCEPTABLE RISK

BOOKS OF KNOWLEDGE

• PREPAREDNESS• PROTECTION• /EARLY WARNING• EM RESPONSE• RECOSTRUCTION AND

RECOVERY

FLOODI DISASTER RESILIENCE

Page 56: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

PILLARS OF FLOOD DISASTER RESILIENCE

Anticipatory Preparedness

Adoption and Implementation of urban plans

Realistic Flood Disaster Scenarios

Timely Emergency Response (including Emergency Medical Services)

Cost-Effective Reconstruction & Recovery

Page 57: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

THE CHALLENGE:

POLICY CHANGES: CREATE, ADJUST, AND REALIGN PROGRAMS, PARTNERS AND PEOPLE UNTIL YOU HAVE CREATED THE KINDS OF TURNING POINTS NEEDED FOR MOVING TOWARDS FLOOD DISASTER RESILIENCE

Page 58: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

AN UNDER-UTILIZED GLOBAL STRATEGY

To Create Turning Points for Flood Disaster Resilience

USING EDUCATIONAL SURGES CONTAINING THE PAST AND PRESENT LESSONS TO FOSTER

AND ACCELERATE POLICY CHANGES

Page 59: FLOODS PART II. THE GLOBAL DISASTER LABORATORY MODEL. AN INTEGRATED FRAMEWORK FOR GLOBAL DISASTER RESILIENCE

MOVING TOWARDS THE MUST-HAPPEN GLOBAL STRATEGY

To Achieve Flood Disaster Resilience

INTEGRATION OF SCIENTIFIC AND TECHNICAL SOLUTIONS WITH POLITICAL

SOLUTIONS IN EVERY NATION FOR REALISTIC POLICIES ON PREPAREDNESS, PROTECTION, EARLY WARNING, DISASTER

SCENARIOS, EMERGENCY RESPONSE, RECONSTRUCTION, AND RECOVERY