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Transcript
ICTs in Japan
for Climate Change Issues
Eiji Ishida
Ministry of Internal Affairs and Communications, Japan
January 28, 2016
Climate Change Issues in Global Frameworks
Sendai Framework
u Seven Global Targets
• Reduce mortality, direct
disaster economic loss
• Increase countries with DRR
strategies
etc.
u Priorities for Action
• Understanding disaster risk
• Strengthening disaster risk
governance
• Investing in DRR for
resilience
• Enhancing disaster
preparedness / Building
back better in recovery
# Including countermeasures
for climate change
Global Frameworks
u 2030 Agenda for Sustainable
Development
• Adopted at the UN GA in September
2015
• Focuses on DRR and mitigation and
adaptation to climate change among
targets
u Paris Agreement
• Adopted at the COP21 in December
2015
• Prioritizes DRR as an important
element in mitigation and adaptation
to climate change
2
Roles of ICT for Climate Change
Observation and prediction
for disaster risk reduction
and mitigation and
adaptation to climate
change
Disaster risk
reduction
Restoration
Restoration of telecom
networks / Provision of
Information for affected people
Response
3
Providing and sharing
knowledge of disaster
prevention
Preparedness
ICT
Disaster
Early warning and exercising caution for immediate actions /
Collection and dissemination of disaster information for
rescue and evacuation
Long-Term Trend of Heavy Rainfall in Japan
Ø An analysis using AMeDAS* data shows the long-term trend of the
heavy rainfall in Japan (* Automated Meteorological Data Acquisition System)
Ø Frequency of an hour rainfall over 50 mm shows increment in 40
years, indicating significance at 95% confidence level
(Source: Japan Meteorological Agency website)
4
Phased Array Weather Radar
5
(Source: “Vertical Motion an Growth of Precipitation Measured by Dual Phased Array Weather Radar Every 30 Seconds”,
Shinsuke Satoh et al, AMS 37th Conference on Radar Meteorology @Normal OK, Sep 14, 2015)
Solid-State Weather Radar
6
A solid-state weather radar
Ø has characteristics of high-accurate observation, reduction of life
cycle cost, stable operation and effective usage of radio spectrum
Electron tube
Semiconductor
Ø Requires high voltage
Ø Requires many raw data for
high accuracy
Ø Short designed life (~ 2 yrs)
Ø High running cost
Ø Not require high voltage
Ø Requires less raw data for
high accuracy
Ø Long designed life (> 10 yrs)
Ø Low running cost
Seismic/Tsunami Observation and Communication System
(Source: Fujitsu Limited)
7
Seismic/Tsunami Observation and Communication System
(Source: Fujitsu Limited)
8
Seismic/Tsunami Observation and Communication System
(Source: NEC Corporation)
9
Flood Simulator
10
A flood simulator
Ø predicts river flooding and inundation;
Ø enables intuitive and easy user interface and flexible configuration;
Ø allows high-speed and high-accuracy simulation.
River
Levees
Levee collapse points
(Click on the mouse
to specify)
Flooded area
(Displays temporal
water level changes)
Sample image of flood simulation
Result of simulation
11
Thank You
Ministry of Internal Affairs and Communications, JAPAN
11