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Smart Water Management Republic Korea History Water Resource Management

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Smart Water

Management of Korea:
history of water
resource management
Dr. Sangyoung Park

Global Cooperation Department

Korea-Mekong Water Resource Management Research


Center (KMCRC)

K-water
• Stage of Development of Water Resource Management in Korea
• Smart Water Management for K-City Project Global Program
• K-items for Indonesian New Capital City
Precipitation

Unfavorable Conditions
2/3 of annual precipitation
: June ~ September

Flood in summer
Drought in winter Han : 390
Nakdong : 372
Geum : 300
Seine : 34(France)
Rhine : 18(Germany)
Mississippi : 3(U.S)
The Korean War: 25 June 1950 ~ 27 July 1953
Given Water
Policy Tools
Conditions Policy
Legal & Regulatory Framework,
Public and Private Area,
Since 1962 Financing,
Connecting Governance, etc.
National & Economic Serving Korea’s Various Needs
Development Plans
Ex) Quick Infra Equipment
Quality Improvement, etc.

Flood Goals Tools


• Climate Drought • Quantity & Quality • Legislation
• Water Resources • Ecosystem • Regulation
• Social & Economic • Economy • Organizations

Situation • Social Equity • Tax, Tariff


Poverty
(Source: MOE, 2012)

* GNI is the total domestic & foreign output claimed by residents of a country
GNI(Gross National Income) = GDP + Money flowing from Foreign Countries – Money flowing to foreign countries
GNI & Water Supply/Sewerage Coverage

Indicator 1961 1980 2000 2012


GNI per Capita ($) 85 2,340 17,110 30,970
Water Supply Coverage (%) 17 55 87.1 98.1
Sewerage Coverage (%) 2 8.3 70.5 91.6

Photos: Homes on the Cheonggye in the 1960s(left), and the stream as it looked in 2014(right), Seoul, Korea.
Credits: Seoul History Museum (left); iStock/Tanjala Gica (Right)
2009~
Development of Climate Change
multipurpose dams for
water supply, flood Sustainable water
1965-80
protection, hydropower Industrialization management for
climate change
- Soyanggang Dam (1973)
- Andong Dam (1977)
2001~2008
1981-90 Eco-Friendly Strategy
Choice & Concentration
Eco-friendly development
Development of multi-
& management of water
regional supply systems
resources
1991-2000
Phenol Accident
Sewerage
Enlargement
The overall strategy and vision came first, and the sector investments from
a variety of sources were sought after.
(Source: Achieving total sanitation & hygiene coverage within a generation – lessons from East Asia, WaterAid 2015)
• Supercomputer-based precipitation forecasting system (PFS) and uses it to apply advanced water management.
• Precipitation Prediction Model (K-PPM) has been constructed as a 3×3 km high resolution grid system to take account of the
detailed geographical characteristics of dam and reservoir areas.
• Provides data on precipitation forecasting for five days on an hourly basis (120 hours) four times a day.
⚫ ICT-based water operation systems to acquire, monitor and control all relevant data on a real-time basis from the whole
water supply systems ranging from water sources to tap water
⚫ The acquired data are analyzed in terms of water quantity, water quality and energy management with the help of
intelligent water network software that enable to supply drinking water without service interruption and formulate an
optimal plan to rehabilitate water supply infrastructure.
⚫ water-Net: Diagnosis, Operation and Management System for Water Distribution Networks
• A water network operation system with which it’s possible to collect real-time information about waterworks,
ensure a GIS-based water network inspection, and manage water quantity, quality and crisis and energy.
⚫ LID element technologies
• Bio retention: storm water pond, tree box filter, storm water wetland, Infiltration basin
• Green roof, rain garden
• Porous pavement, water-retentive pavement
• Infiltration trench, Infiltration channel, Infiltration chamber

Green Infrastructure !!
Conventional Water Treatment Plant ❖ Decentralized water supply system, combined with
auxiliary water sources and emergency water supply
storage using storage tanks and deep tunnels,
ensures a safe and stable water supply.

❖ Effects
• Ensures customer-oriented safe and stable
water supply in the future
• Aims to make zero cutting-off water supply
and increase a direct water supply rate from
the current level of 5% to 30%
• Energy saving from clean energy
Key barriers Key enablers
Factors limiting successful SWM implementation Factors for successful SWM implementation

• Lack of initial support/investment • Political commitment at all levels


• Access to skills/capacity to use SWM solutions • Policy, legislation and regulation support
• Access to infrastructure or resources • Combining the use of SWM tools with other methods
• Evolving technology/upgrades (high costs) • Strong stakeholder engagement from the beginning
• Lack of compatibility across SWM solutions • Multidisciplinary approach
• Hesitation to replace traditional infrastructure • Long-term investment for ongoing R&D
• Lack of policy incentives • Capacity development, training and
education

* Source: https://www.iwra.org/swmreport/
Risk
- Political issues
- Government system
- Carrying capacity
- Staging of development
- Wholistic operation

Opportunity
- Friendship and stewardship
- Favourable environment
- Proven competency
- Human resource

Suggestion
- Working evidence
- Long-term prospective
- Multi-cultural working env.
- Home office / Field office
고맙습니다 !!

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