SUCCESSFUL COOPERATION OF STAKEHOLDERS IN THE LIFELONG LEARNING - - PowerPoint PPT Presentation

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SUCCESSFUL COOPERATION OF STAKEHOLDERS IN THE LIFELONG LEARNING - - PowerPoint PPT Presentation

Czech University of Life Sciences Prague SUCCESSFUL COOPERATION OF STAKEHOLDERS IN THE LIFELONG LEARNING MODEL FOCUSING ON WATER DISASTERS Pavel KOVAR, CULS Prague ICA-CEDIA Conference Leuven, June 11 - 13, 2009 CONTENTS CONTENTS


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Czech University of Life Sciences Prague

SUCCESSFUL COOPERATION OF STAKEHOLDERS IN THE LIFELONG LEARNING MODEL FOCUSING ON WATER DISASTERS

Pavel KOVAR, CULS Prague ICA-CEDIA Conference Leuven, June 11 - 13, 2009

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CONTENTS CONTENTS

  • Introduction

Introduction

  • Why focused on water

Why focused on water

  • How to live with floods

How to live with floods

  • Strategy for Lifelong Learning

Strategy for Lifelong Learning Programmes Programmes

  • Conclusions

Conclusions

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SLIDE 3
  • 1709 Establishment of the Prague Polytechnics (included

Civil Engineering faculty)

  • 1906: Agricultural and Forestry faculties on the Prague

Polytechnics

  • 1960: First study programmes on Water Reclamation

(mostly Irrigation and Drainage)

  • 1990- 2002: Two-month Hydrology courses (continuing

education)

  • since 1999 Bologna Process (restructuring system of

HEIs)

  • since 2003 Two-week Natural Disaster Prevention

Workshops

MILESTONES AT THE CULS PRAGUE

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SLIDE 4

Principal Principal global global issues issues of

  • f 21th

21th century century: :

  • FOOD QUALITY AND SECURITY

FOOD QUALITY AND SECURITY

  • ENVIRONMENT QUALITY

ENVIRONMENT QUALITY ( (both both dependant dependant on

  • n water

water quality quality and and quantity quantity) ) WATER SCARCITY: 20% WATER SCARCITY: 20% of

  • f world

world population population (50% has no (50% has no sewerage sewerage system system) ) 70% 70% of

  • f world

world water water for for irrigation irrigation POSSIBLE FUTURE CONFLICTS: POSSIBLE FUTURE CONFLICTS:

  • lack

lack of

  • f water

water

  • non

non-

  • effective

effective irrigation irrigation systems systems

  • downstream

downstream and and upstream upstream conflicts conflicts

  • eco

eco-

  • systems

systems degradation degradation ( (contaminatin contaminatin, salinity, , salinity, etc etc.) .)

WHY TO FOCUS ON WATER? WHY TO FOCUS ON WATER?

WATER WATER AS VULNERABLE AS VULNERABLE AND EXHAUSTIBLE AND EXHAUSTIBLE RESOURCE RESOURCE

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STATUS OF WORLD FRESH WATER STATUS OF WORLD FRESH WATER AVAILABILITY AVAILABILITY

PARAMETER

STATUS

2003 2050

POPULATION* (in billions)

6.1 9.8

POPULATION AFFECTED BY WATER SCARCITY (in millions)

180 1700

COUNTRIES AFFECTED BY WATER SCARCITY

20 39

* *A Average

verage population population projection projection Source Source: : Gardner Gardner and and Engelman Engelman, 2003 , 2003

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SLIDE 6

WATER WATER RESOURCES RESOURCES MANAGEMENT MANAGEMENT

PROTECTION OF WATER RESOURCES PROTECTION OF WATER RESOURCES PROTECTION OF SOCIETY AGAINST WATER EXTREMES PROTECTION OF SOCIETY AGAINST WATER EXTREMES

INTEGRATED WATER RESOURCES MANAGEMENT: INTEGRATED WATER RESOURCES MANAGEMENT:

  • FRESH WATER IS EXHAUSTIBLE AND VULNERABLE

FRESH WATER IS EXHAUSTIBLE AND VULNERABLE RESOURCE RESOURCE

  • PARTICIPATION OF ALL

PARTICIPATION OF ALL

  • WATER AS AN ASSET

WATER AS AN ASSET

  • EU WATER FRAMEWORK DIRECTIVE

EU WATER FRAMEWORK DIRECTIVE

WATER REQUIREMENTS AVAILABLE RESOURCES

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EU EU WATER WATER FRAMEWORK DIRECTIVE FRAMEWORK DIRECTIVE

(EU (EU legislative legislative basis basis of

  • f IWRM: WF

IWRM: WF Directive Directive 2000/60 EC) 2000/60 EC)

A.

  • A. Sustainable

Sustainable use use of

  • f waters

waters ( (long long-

  • term

term accessible accessible sources sources) ) B.

  • B. Protection

Protection of

  • f water

water quality quality C.

  • C. Water

Water requirements requirements ( (incl incl. . ecosystems ecosystems) )

  • D. Care
  • D. Care for

for groundwater groundwater resources resources E.

  • E. Mitigation

Mitigation of

  • f harmful

harmful impacts impacts of

  • f floods

floods and and droughts droughts F.

  • F. Achivement

Achivement and and maintenance maintenance of

  • f "

"good good status" status" of

  • f all

all waters waters

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HOW TO LIVE WITH FLOODS

PRAGUE, August 2002

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Tr Tr€ €ja ja -

  • C

C•

  • sa

sař řskƒ ostrov skƒ ostrov -

„Č ČOV OV

REAL FLOODS REAL FLOODS ( (rainfall rainfall, , surface surface runoff runoff) )

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REAL FLOODS REAL FLOODS

( (rainfall rainfall, , surface surface runoff runoff) )

The flow rates et the main water-stages above and in Prague.

VS max = 785 cm cca 5300 m

3.s

  • 1

VS max = 796 cm cca 1800 m

3.s

  • 1

VS max = 467 cm cca 440 m

3.s

  • 1

Q max = cca 3500 m

3.s

  • 1

1000 2000 3000 4000 5000 6000 8.8.2002 9.8.2002 10.8.2002 11.8.2002 12.8.2002 13.8.2002 14.8.2002 15.8.2002 16.8.2002 17.8.2002 18.8.2002 source of the data CHM I Q (m3.s -1)

Vltava - Malá Chuchle Berounka - Beroun Sázava - Nespeky VD Vrané - balance outflow

note: The input data are compile by water authority Povodí Vltavy based on operative data. This data might be further modify after detailed evaluation by The Czech Hydrometeorological Institute.

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PREPARATION OF FLOOD PREVENTION PREPARATION OF FLOOD PREVENTION

Smetanovo n•břež„

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Smetanovo n•břež„

FLOOD PREVENTION EFFECTIVENESS FLOOD PREVENTION EFFECTIVENESS

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SLIDE 15
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LESSONS AND CONCLUSIONS

WHAT TO DO?

  • Better understanding of natural processes (channel

and inundation, urbanization principles, proper land use, good management practices…)

  • Better forecasting and warning systems, use of

mathematical models for simulation and forecast

  • Consolidation of the integrated flood control system

(firemen, police, health personnel, civil service)

  • Protection of the urbanised areas: including mobile gates

(example: in Prague - both Vltava river-banks)

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REDUCING HARMFUL IMPACTS OF FLOODS (IMPACT OF CATCHMENT MANAGEMENT)

  • LAND USE AND LANDSCAPE STRUCTURE, MOSAIC DISPLACEMENT

ROADS NETWORK - DRAINAGE NATURAL RETENTION

  • NATURAL HYDROGRAPHICAL NETWORK: GEOMORPHOLOGICAL

DIVERSITY,CONVEYANCE OF DISCHARGES CHANNEL versus INUNDATION

  • WATER CONTROL MEASURES: DEPRESSIONS, RIVER PLANES,

TERRACES, TORRENT CONTROL

  • SMALL RESERVOIRS, PONDS, RETENTION BARRIERS, WETLANDS
  • DIKES AND POLDERS
  • WEIRS AND DAMS
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STRATEGY FOR LIFELONG LEARNING PROGRAMMES

Education and training in Water Resources within LLP with a particular reference to the following groups:

  • Practicioners: consulting engineers, investors, building companies,

civil service personnel, local management, data producers, NGOs, etc.

  • University staff: Professor assistants, technicians and other
  • personnel. Three universities at Prague:
  • Life Sciences (Faculty of Envi Sciences)
  • Technology (Faculty of Civil Engineering)
  • Charles (Faculty of Sciences)
  • Municipalities : Prague Metropolitan Authorities (decision makers),

personnel of environmental departments

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TWO MAJOR QUESTIONS:

  • Where to get a financial support from?
  • International organizations (UNESCO, WMO, FAO?)
  • Civil Service?
  • Building/water companies?
  • Water Boards?
  • Sector of education (Ministry)?
  • What will be the best form of education and training ?
  • Long-term education (Distant learning): 1990 to 2002 annualy

two-month Hydrology Course „Hydrological Data for Water Resources Planning“

  • Short-term training: since 2003 annually two-week Course on

Natural Disaster Prevention (focused on Floods and Droughts)

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INTERNATIONAL POSTGRADUATE TRAINING COURSES IN HYDROLOGY

SPONSORS: CZECH REPUBLIC UNESCO WMO

HYDROLOGICAL DATA FOR WATER RESOURCES PLANNING

GENERAL INFORMATION 2002 Session

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Tab.1

TH E CO URSE CURRICULUM 2002 (18 th SESSIO N)

Subject, Part Num ber of contact hours Part I.:Basic knowledge 84

  • 1. Elements of Hydrology and Hydraulics

20

  • 2. Use of Statistical M athematics in Hydrology

12

  • 3. Elements of M eteorology and Hydrometeorology

10

  • 4. Hydrometeorological Instruments and Networks

10

  • 5. Elements of Hydropedology and Hydrogeology

18

  • 6. Evapotranspiration

8

  • 7. Hydrological M aps and use of GIS

6 Part II.: Topical Group W orks (incl. GW 1,2,3) 74 GW 1 : River Hydrology, Floods and their Forecasting 26

  • 1. Flood Hydrographs and Routing

6

  • 2. Rainfall-Runoff and Routing M odels

8

  • 3. Reservoirs and W ater M anagement

6

  • 4. Forecasting and W arning Systems

6 GW 2 : Environm ental and Landscape H ydrology 24

  • 1. M odelling of Hydrological Processes

10

  • 2. W ater Balance Catchment M odels

4

  • 3. Environmental Impact on W ater M anagement

6

  • 4. Climate Change and W ater Resources

4 GW 3 : Use of Hydroinformatics and Data Collection and Processing 24

  • 1. Hydroinformatics

8

  • 2. Application of Remote Sensing and Telecommunication

Systems 6

  • 3. Computerized Data Processing

6

  • 4. Use of Isotopes in Hydrology

4 Part III Visits, Study Tours, Exams 30

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CZECH UNIVERSITY OF LIFE SCIENCES PRAGUE CZECH UNIVERSITY OF LIFE SCIENCES PRAGUE

EUROPEAN WORKSHOP ON NATURAL DISASTER PREVENTION focused on floods and droughts EUROPEAN WORKSHOP ON NATURAL DISASTER PREVENTION focused on floods and droughts

Prague, June 2008 Prague, June 2008

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  • FLOOD AND DROUGHT HAZARD

ASSESSMENT

  • VULNERABILITY ANALYSIS
  • OPTIONS FOR RISK REDUCTION
  • EARLY WARNING
  • FLASH FLOOD FORECASTING

IMPLEMENTATION

  • MITIGATION AND RECOVERY
  • PRACTICAL TRAINING

INTERNATIONAL NDP WOKSHOP CURRICULUM

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  • EXAMPLES OF CASE STUDIES
  • FIELD TRIP JIZERSKE MOUNTAINS
  • Experimental catchments
  • Disaster of the Dam on Bila Desna in 1916
  • Transformation of “Black triangle“ to

“Green triangle“

WORKSHOP CURRICULUM

  • continued
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BASIC OUTLINES OF EARLY WARNING

  • FORECAST AND PREDICTION
  • Forecast of extreme events
  • WARNING
  • Information of possible impacts on people and

infrastructure

  • Involvement of recommendations
  • REACTION
  • Ensurance that information is correctly understood
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MAJOR STAKEHOLDERS OF THE NATURAL DISASTER PREVENTION PROJECT:

  • THREE UNIVERSITIES (CULS, TU, ChU, all at Prague)
  • PRAGUE MUNICIPALITY (PM)
  • VLTAVA RIVER WATER BOARD (VRWB)
  • CZECH HYDROMETEOROLOGICAL INSTITUTE (CHMI)

COST BENEFIT ANALYSIS Total budget about EUR 15,000 annually. Registration fee EUR 50 each participant (25 to 30 persons) CULS contributions: subsidised accommodation + food Other subsidy: Ministry of Education + Prague Municipality

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Municipality-University Centre and its Pillar Flood Control Activities

Research Information networking Training & Capacity building

Network Knowledge Curriculum Participation Results/ Outcomes Data/ Information

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COMBINATION OF TECHNICAL AND SOCIAL ASPECTS OF THE PROGRAMME

Contact to people in disaster regions:

  • Zoning of flood areas
  • Contact to Civil Service (Municipality)
  • Role of insurance companies
  • Information on Integrated Rescue System
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CONCLUSIONS

  • Flexibility of study programmes and their reflection
  • n recent development in water sciences.
  • Collaboration of Universities with Civil Service,

Municipality, Water Board and Hydromet Institute.

  • Integrated water resources management in Europe.
  • Cooperation between European universities.
  • Best practices Project development (for subsidy).
  • Extra income from multiple sources.
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Workshop on Natural Disaster Prevention