DSD-SEA 2019 Seasonal drought forecasting using state-of-the-art hydro softwa...Deltares
Presentation by Mr. Irfan Sudono, MT Research Center for Water Resources – Ministry of Public Works and Housing (Indonesia) at the Seminar Hydro Software to support policy development and real-time decision making, during the Deltares Software Days South-East Asia 2019. Wednesday, 27 November 2019, Bangkok.
Getting the Most From Weather Data - Daniel Pearson, Mark Lenz, Nelun Fernand...TWCA
TWCA Fall Conference 2019 - (helpful links below)
USGS Links:
Water Alert - https://maps.waterdata.usgs.gov/mapper/wateralert/
National Water Information System: Web Interface - https://waterdata.usgs.gov/tx/nwis/current?type=flow
Water Services - https://waterservices.usgs.gov/
Texas Water Dashboard - https://txpub.usgs.gov/txwaterdashboard
NWS Austin/San Antonio - weather.gov/sanantonio
TWDB Links:
Water Data for Texas – https://waterdatafortexas.org/
Flood viewer - https://map.texasflood.org/#/
TexMesonet - https://www.texmesonet.org/
LCRA Hyrdromet - hydromet.lcra.org
Sediment deposition in koyna reservoir by integrated bathymetric surveyeSAT Journals
Abstract In southern part of India, most of the precipitation occurs due to south-west monsoon during the months of June to September. Storage reservoirs are constructed to store the run-off volume and utilize it for long term requirements in the command such as irrigation, power generation, domestic water supply etc. The sediment deposition in the reservoir is a continuous and complex process. Sediment in a river which originates from the land erosion process in the catchment is propagated along with the river flow and finally gets deposited in the reservoir. This has adverse effect such as reduction in storage capacity and increase in backwater levels. For the long term and yearly planning of efficient utilization of reservoir capacity, estimation of sediment deposit is not only sufficient but also estimation of trapped sediment at different levels in the reservoir is required. Differential Global Positioning System (DGPS) based Integrated Bathymetric Survey System for hydrographic survey is used for estimation of sediment deposition pattern in the Koyna reservoir. In this method three or more satellite based GPS receivers are used in differential mode for positioning. Ecosounder is used for depth measurements. GPS reference receiver is located at a known latitude and longitude position and GPS mobile receiver is located on the survey boat. Both the GPS operate in differential mode through a communication link. From this study (2004) it is observed that sedimentation rate in Koyna reservoir is more than 6.5 Ham/100 sq.km/year anticipated in 1949. Key Words: reservoir, sedimentation, Bathymetric Survey, hydrographic, GPS
DSD-SEA 2019 Seasonal drought forecasting using state-of-the-art hydro softwa...Deltares
Presentation by Mr. Irfan Sudono, MT Research Center for Water Resources – Ministry of Public Works and Housing (Indonesia) at the Seminar Hydro Software to support policy development and real-time decision making, during the Deltares Software Days South-East Asia 2019. Wednesday, 27 November 2019, Bangkok.
Getting the Most From Weather Data - Daniel Pearson, Mark Lenz, Nelun Fernand...TWCA
TWCA Fall Conference 2019 - (helpful links below)
USGS Links:
Water Alert - https://maps.waterdata.usgs.gov/mapper/wateralert/
National Water Information System: Web Interface - https://waterdata.usgs.gov/tx/nwis/current?type=flow
Water Services - https://waterservices.usgs.gov/
Texas Water Dashboard - https://txpub.usgs.gov/txwaterdashboard
NWS Austin/San Antonio - weather.gov/sanantonio
TWDB Links:
Water Data for Texas – https://waterdatafortexas.org/
Flood viewer - https://map.texasflood.org/#/
TexMesonet - https://www.texmesonet.org/
LCRA Hyrdromet - hydromet.lcra.org
Sediment deposition in koyna reservoir by integrated bathymetric surveyeSAT Journals
Abstract In southern part of India, most of the precipitation occurs due to south-west monsoon during the months of June to September. Storage reservoirs are constructed to store the run-off volume and utilize it for long term requirements in the command such as irrigation, power generation, domestic water supply etc. The sediment deposition in the reservoir is a continuous and complex process. Sediment in a river which originates from the land erosion process in the catchment is propagated along with the river flow and finally gets deposited in the reservoir. This has adverse effect such as reduction in storage capacity and increase in backwater levels. For the long term and yearly planning of efficient utilization of reservoir capacity, estimation of sediment deposit is not only sufficient but also estimation of trapped sediment at different levels in the reservoir is required. Differential Global Positioning System (DGPS) based Integrated Bathymetric Survey System for hydrographic survey is used for estimation of sediment deposition pattern in the Koyna reservoir. In this method three or more satellite based GPS receivers are used in differential mode for positioning. Ecosounder is used for depth measurements. GPS reference receiver is located at a known latitude and longitude position and GPS mobile receiver is located on the survey boat. Both the GPS operate in differential mode through a communication link. From this study (2004) it is observed that sedimentation rate in Koyna reservoir is more than 6.5 Ham/100 sq.km/year anticipated in 1949. Key Words: reservoir, sedimentation, Bathymetric Survey, hydrographic, GPS
GWP - Flood Hazard Mapping for Small Island Developing States using GIS and L...Esri UK
Due to accelerating climatic and environmental changes, flood hazard modelling and mapping is an increasingly important issue. Flood hazard mapping in developing nations is often restricted to few areas and rarely available for national-scale infrastructure risk analysis and spatial planning, as traditional modelling approaches are inherently affected by increasing uncertainties and require a large number of datasets. In this session, learn how GWP Consultants overcame this difficulty using a simple GIS-based geomorphological approach, using Samoa as a case study. LiDAR-derived high-resolution Digital Elevation Models and ArcGIS analysis techniques were used to model and map flood hazards. Hear how Collector was used to assist with field activities (validating GIS-based flood hazard products and producing a drainage infrastructure database), significantly reducing time inputs. ArcGIS Online platform capabilities were used to deliver flood hazard products and improve risk communication to relevant stakeholders, including the Government of Samoa, World Bank, and United Nations Development Programme.
Workshop on Operationalizing the Regional Collaborative Platform to Address ‘Water Consumption, Water Productivity and Drought Management’ in Agriculture, 27 - 29 October 2015, Cairo, Egypt
Greetings all,
By the end of April 2008, the final meeting of the MERSEA European Project set up in Paris, in the Institut Océanographique.
The aim of the project was to develop a European system for operational monitoring and forecasting on global and regional scales
of the ocean physics, biogeochemistry and ecosystems.
It was surely a challenge to get together many different partners to build the future European operational oceanography of
tomorrow. It was also a challenge for the MERSEA teams to demonstrate their capacity to collect, validate and assimilate remote
sensed and in situ data into ocean circulation models, to interpolate in time and space for uniform coverage, to run nowcasting
(i.e. data synthesis in real-time), forecasting, and hind-casting, and to deliver information products. The project also had to
develop marine applications addressing the needs of both intermediate and end-users, whether institutional or from the private
sector
This Newsletter collects some of the many results obtained during this project. Several aspects are tackled: global and regional
forecasting systems, observations, and applications.
The News is written by the Coordinator of the Project, Yves Desaubies. He draws MERSEA results up.
In a first article, Marie Drévillon et al. present the MERSEA/Mercator-Ocean V2 global ocean analysis and forecasting system. In a
second one, Hervé Roquet et al. describe L3 and L4 high resolution SST products. The next article, written by Bruce Hackett et
al., focuses on Oil spill applications. The article of John Siddorn et al. closes the issue by a description of the development of a
North-East Atlantic tidal NEMO system.
Enjoy your reading!
Different GNSS (Global Navigation Satellite System) Receiver’s combination an...IJMTST Journal
The greater part of the modern GNSS receiver are able to guarantee a fair positioning performance almost
everywhere. The aim is to investigate the effective potentialities of GNSS sensor such as GPS, GLONASS and
to make a statistical analysis of these receivers. The continuous increase of the number of GNSS multiconstellation
station will give a good opportunity to improve accuracy and precision levels. The system is
based on sensors, Arm cortex, and personal computer. Positioning data which includes both longitude and
latitude is extracted using NMEA protocol of the receiver. The extracted data will be displayed and saved on
personal computer and retrieved later. Each receiver sensor is analyzed, statistically characterized and its
error probabilities are obtained.
Data Quality on Mars - ISO 80000 and other Standards - Apache Big Data Europe...Werner Keil
Big Data without Data Quality becomes messy and meaningless in most cases. Therefore, data and measurements have to be stored and transferred in a standard way.
We all know that when representing a temperature, for example, we normally have it as decimal/float. But, is this float in Celsius? Fahrenheit? Kelvin?
One of the most vivid examples was Mars Climate Orbiter being lost as the spacecraft went into orbital insertion, due to ground-based computer software which produced output in non-SI units of pound-seconds (lbf×s) instead of the metric units of newton-seconds (N×s) specified in the contract between NASA and Lockheed.
In this session we're going to explore data quality and measurement standards like ISO 80000 or UCUM (Unified Code for Units of Measure), Unit support for programming languages and APIs plus projects using them like Apache SIS, Performance Co-Pilot or uDig.
Contextualizing the Visualization of Climate DataRaquel Alegre
EGU 2014, 27th April - 2nd May 2014, Vienna (Austria)
Session: Techniques and tools for effective visualization and sonification in the geosciences
Category: Earth & Space Science Informatics (ESSI)
Presentation highlights the potential of satellite data products, modeling tools and Smart-ICT platform to assist flood-based farming to enable rural people to overcome poverty and improve food productivity while reducing water consumption.
The project demonstrates for the last two flood seasons how satellite data can detect the extent and duration of flooding in various irrigation block and the authorities can make use of such information to know when and where the flood waters are reaching the farm fields and how many days it got inundated. We have also showcased how flood forecasting tools can help downstream authorities to make operational planning including maintenance of irrigation blocks and early warning for local communities.
GIS Based Semi Automated Extraction of Sites for Artificial Rechargeresearchinventy
The artificial recharge has emerged as the only alternative to restore the alarmingly falling water table. Hence, various nations including India have embarked into major programs on artificial recharge. But maximum benefits can be achieved if only the sites are selected on geological and other terrain conditions. But many a times, as these structures are to be constructed on emergency basis, the scientific protocols could not be followed. To get over this, a computer model was developed on GIS based semi-automated extraction of artificial recharge sites. In this model, a set of seven geosystem variables/maps which control the overall infiltration were prepared and converted into spatial GIS databases showing the favorable (pervious) and unfavorable (impervious) zones for artificial recharge, imported to a specially written software in VB.NET called RECHARGE. The program has been written in such a way that the user can retrieve these geosystem maps from the computer showing only the favorable areas, integrate them and on the basis of number of variables coincided, suitable sites on various priorities for recharge can be displayed in the computer by following the tutored protocol provided in the software. This will be an useful tool, and further detailed studies would bring out generic software to benefit the larger cross section of the countries.
Flood Warning Systems - A practical approachChris Goding
A practical overview of the components typically used in a flood warning system.
Contact Greenspan for more information:
cgoding at greenspan dot com dot sg
+65 98214182
GWP - Flood Hazard Mapping for Small Island Developing States using GIS and L...Esri UK
Due to accelerating climatic and environmental changes, flood hazard modelling and mapping is an increasingly important issue. Flood hazard mapping in developing nations is often restricted to few areas and rarely available for national-scale infrastructure risk analysis and spatial planning, as traditional modelling approaches are inherently affected by increasing uncertainties and require a large number of datasets. In this session, learn how GWP Consultants overcame this difficulty using a simple GIS-based geomorphological approach, using Samoa as a case study. LiDAR-derived high-resolution Digital Elevation Models and ArcGIS analysis techniques were used to model and map flood hazards. Hear how Collector was used to assist with field activities (validating GIS-based flood hazard products and producing a drainage infrastructure database), significantly reducing time inputs. ArcGIS Online platform capabilities were used to deliver flood hazard products and improve risk communication to relevant stakeholders, including the Government of Samoa, World Bank, and United Nations Development Programme.
Workshop on Operationalizing the Regional Collaborative Platform to Address ‘Water Consumption, Water Productivity and Drought Management’ in Agriculture, 27 - 29 October 2015, Cairo, Egypt
Greetings all,
By the end of April 2008, the final meeting of the MERSEA European Project set up in Paris, in the Institut Océanographique.
The aim of the project was to develop a European system for operational monitoring and forecasting on global and regional scales
of the ocean physics, biogeochemistry and ecosystems.
It was surely a challenge to get together many different partners to build the future European operational oceanography of
tomorrow. It was also a challenge for the MERSEA teams to demonstrate their capacity to collect, validate and assimilate remote
sensed and in situ data into ocean circulation models, to interpolate in time and space for uniform coverage, to run nowcasting
(i.e. data synthesis in real-time), forecasting, and hind-casting, and to deliver information products. The project also had to
develop marine applications addressing the needs of both intermediate and end-users, whether institutional or from the private
sector
This Newsletter collects some of the many results obtained during this project. Several aspects are tackled: global and regional
forecasting systems, observations, and applications.
The News is written by the Coordinator of the Project, Yves Desaubies. He draws MERSEA results up.
In a first article, Marie Drévillon et al. present the MERSEA/Mercator-Ocean V2 global ocean analysis and forecasting system. In a
second one, Hervé Roquet et al. describe L3 and L4 high resolution SST products. The next article, written by Bruce Hackett et
al., focuses on Oil spill applications. The article of John Siddorn et al. closes the issue by a description of the development of a
North-East Atlantic tidal NEMO system.
Enjoy your reading!
Different GNSS (Global Navigation Satellite System) Receiver’s combination an...IJMTST Journal
The greater part of the modern GNSS receiver are able to guarantee a fair positioning performance almost
everywhere. The aim is to investigate the effective potentialities of GNSS sensor such as GPS, GLONASS and
to make a statistical analysis of these receivers. The continuous increase of the number of GNSS multiconstellation
station will give a good opportunity to improve accuracy and precision levels. The system is
based on sensors, Arm cortex, and personal computer. Positioning data which includes both longitude and
latitude is extracted using NMEA protocol of the receiver. The extracted data will be displayed and saved on
personal computer and retrieved later. Each receiver sensor is analyzed, statistically characterized and its
error probabilities are obtained.
Data Quality on Mars - ISO 80000 and other Standards - Apache Big Data Europe...Werner Keil
Big Data without Data Quality becomes messy and meaningless in most cases. Therefore, data and measurements have to be stored and transferred in a standard way.
We all know that when representing a temperature, for example, we normally have it as decimal/float. But, is this float in Celsius? Fahrenheit? Kelvin?
One of the most vivid examples was Mars Climate Orbiter being lost as the spacecraft went into orbital insertion, due to ground-based computer software which produced output in non-SI units of pound-seconds (lbf×s) instead of the metric units of newton-seconds (N×s) specified in the contract between NASA and Lockheed.
In this session we're going to explore data quality and measurement standards like ISO 80000 or UCUM (Unified Code for Units of Measure), Unit support for programming languages and APIs plus projects using them like Apache SIS, Performance Co-Pilot or uDig.
Contextualizing the Visualization of Climate DataRaquel Alegre
EGU 2014, 27th April - 2nd May 2014, Vienna (Austria)
Session: Techniques and tools for effective visualization and sonification in the geosciences
Category: Earth & Space Science Informatics (ESSI)
Presentation highlights the potential of satellite data products, modeling tools and Smart-ICT platform to assist flood-based farming to enable rural people to overcome poverty and improve food productivity while reducing water consumption.
The project demonstrates for the last two flood seasons how satellite data can detect the extent and duration of flooding in various irrigation block and the authorities can make use of such information to know when and where the flood waters are reaching the farm fields and how many days it got inundated. We have also showcased how flood forecasting tools can help downstream authorities to make operational planning including maintenance of irrigation blocks and early warning for local communities.
GIS Based Semi Automated Extraction of Sites for Artificial Rechargeresearchinventy
The artificial recharge has emerged as the only alternative to restore the alarmingly falling water table. Hence, various nations including India have embarked into major programs on artificial recharge. But maximum benefits can be achieved if only the sites are selected on geological and other terrain conditions. But many a times, as these structures are to be constructed on emergency basis, the scientific protocols could not be followed. To get over this, a computer model was developed on GIS based semi-automated extraction of artificial recharge sites. In this model, a set of seven geosystem variables/maps which control the overall infiltration were prepared and converted into spatial GIS databases showing the favorable (pervious) and unfavorable (impervious) zones for artificial recharge, imported to a specially written software in VB.NET called RECHARGE. The program has been written in such a way that the user can retrieve these geosystem maps from the computer showing only the favorable areas, integrate them and on the basis of number of variables coincided, suitable sites on various priorities for recharge can be displayed in the computer by following the tutored protocol provided in the software. This will be an useful tool, and further detailed studies would bring out generic software to benefit the larger cross section of the countries.
Flood Warning Systems - A practical approachChris Goding
A practical overview of the components typically used in a flood warning system.
Contact Greenspan for more information:
cgoding at greenspan dot com dot sg
+65 98214182
Presentation on the Environment Agency's future Flood Warning System project and changes to come to the Flood Warning System based on customer need, with digital at the heart of the project. Presented by Kevin Barnes, National Flood Resilience Team – Senior Advisor at the Environment Agency, at the Flood Resilience Discovery Day in Bristol on 27 February 2015.
Early warning System Disaster ManagementVraj Pandya
Description on early warning technologies in Earth quake, flood cyclone and various other characteristics are provided here, it would be quite beneficial for you people to use it. there is no simple copy paste, its really amazing and useful
DSD-SEA 2019 Use of Earth Observation Data to Enhance Water Resource Manageme...Deltares
Presentation by Mr. Miguel Laverde, Asian Disaster Preparedness Center (Thailand) at the Seminar Hydro Software to support policy development and real-time decision making, during the Deltares Software Days South-East Asia 2019. Wednesday, 27 November 2019, Bangkok.
The ExtremeEarth project develops geospatial analytics techniques and technologies that scale to the petabytes of big Copernicus data, information and knowledge, and applies these technologies in two of the thematic exploitation platforms of the European Space Agency: Food Security and Polar.
GEO Expert Advisory Group - ESA Thematic Exploitation Platforms - Geohazardsterradue
The second EAG (Expert Advisory Group) meeting was held on February 5th, 2019 in Geneva. Terradue as EAG member was invited to present on solutions supporting the GEO vision for Knowledge Hubs
Information and Communication Technology in Water Management: A Case StudyBRNSS Publication Hub
Smartphones, smart watches, smart cars, and smart grids - everything is smart nowadays, even water. Living in the smart city, Bhubaneswar, I have never encountered a lack of fresh water. However, the global picture looks quite different. Water scarcity affects every continent. According to a UN investigation, around 1.2 billion people live in areas of physical water scarcity. A further 1.6 billion people face economic water shortages (where countries lack the necessary infrastructure to take water from rivers and aquifers). There is enough fresh water on the planet for 7 billion people but it is distributed unevenly and too much of it is wasted or polluted. This study will find a solution of this problem.
The geographical decision-making chain: formalization and application to mari...Bilal IDIRI
Maritime traffic monitoring needs tools for spatiotemporal decision support. The operators responsible (e.g. the Coast Guard) must monitor vessels that are represented as objects moving in space and time. Operators use maritime tracking systems to follow the evolution of traffic and make decisions about the risks of a situation. These systems are based on Geographic Information Systems (GIS) and OnLine Transaction Processing (OLTP) approaches, which are prohibitively expensive, very slow and produce operational data unsuited to decision-making. Instead, operators require summarized data that is easier for them to produce and use. Therefore, we propose the definition of a geographical decision-making chain that adds a decision-making dimension to current systems. It consists of a carefully assembled set of tools that can automate the three phases of Business Intelligence, namely data loading, modelling and analysis.
"Understanding the Carbon Cycle: Processes, Human Impacts, and Strategies for...MMariSelvam4
The carbon cycle is a critical component of Earth's environmental system, governing the movement and transformation of carbon through various reservoirs, including the atmosphere, oceans, soil, and living organisms. This complex cycle involves several key processes such as photosynthesis, respiration, decomposition, and carbon sequestration, each contributing to the regulation of carbon levels on the planet.
Human activities, particularly fossil fuel combustion and deforestation, have significantly altered the natural carbon cycle, leading to increased atmospheric carbon dioxide concentrations and driving climate change. Understanding the intricacies of the carbon cycle is essential for assessing the impacts of these changes and developing effective mitigation strategies.
By studying the carbon cycle, scientists can identify carbon sources and sinks, measure carbon fluxes, and predict future trends. This knowledge is crucial for crafting policies aimed at reducing carbon emissions, enhancing carbon storage, and promoting sustainable practices. The carbon cycle's interplay with climate systems, ecosystems, and human activities underscores its importance in maintaining a stable and healthy planet.
In-depth exploration of the carbon cycle reveals the delicate balance required to sustain life and the urgent need to address anthropogenic influences. Through research, education, and policy, we can work towards restoring equilibrium in the carbon cycle and ensuring a sustainable future for generations to come.
UNDERSTANDING WHAT GREEN WASHING IS!.pdfJulietMogola
Many companies today use green washing to lure the public into thinking they are conserving the environment but in real sense they are doing more harm. There have been such several cases from very big companies here in Kenya and also globally. This ranges from various sectors from manufacturing and goes to consumer products. Educating people on greenwashing will enable people to make better choices based on their analysis and not on what they see on marketing sites.
Natural farming @ Dr. Siddhartha S. Jena.pptxsidjena70
A brief about organic farming/ Natural farming/ Zero budget natural farming/ Subash Palekar Natural farming which keeps us and environment safe and healthy. Next gen Agricultural practices of chemical free farming.
Artificial Reefs by Kuddle Life Foundation - May 2024punit537210
Situated in Pondicherry, India, Kuddle Life Foundation is a charitable, non-profit and non-governmental organization (NGO) dedicated to improving the living standards of coastal communities and simultaneously placing a strong emphasis on the protection of marine ecosystems.
One of the key areas we work in is Artificial Reefs. This presentation captures our journey so far and our learnings. We hope you get as excited about marine conservation and artificial reefs as we are.
Please visit our website: https://kuddlelife.org
Our Instagram channel:
@kuddlelifefoundation
Our Linkedin Page:
https://www.linkedin.com/company/kuddlelifefoundation/
and write to us if you have any questions:
info@kuddlelife.org
1. Flooding in Thailand
Veerachai Tanpipat, D.Eng.(veerachai@haii.or.th)
SurajateB. Aroonnet, PhD. (surajate@haii.or.th)
August 18 –22, 2014 at HoaBinhHotel and NASATI head office, in Hanoi, Vietnam
Cyberinfrastrucure and Water Resources in the Lower Mekong Region
Visualization and communications of derived knowledge to policy support at different levels
2. Table of Contents
•Flooding in Thailand
•Spatial Data for Control and Management used in 2011 Flood
•Communication problems
•Post 2011 Flood Water Management Tools Development
•APAN Network Utilization and Test Results
•Conclusions
3. Flooding in Thailand
Flood is an annual natural phenomenon in Thailand especially the Central Thailand is on the flat terrain (Chao Phraya River Basin).
The worst in the last 5 decades recently occurred in the year 2011 (an estimated $46.5 billion in economic loss was incurred, effected 6 million ha, 13 million people and almost 1,000 related deaths).
Source: Thailand Flood 2011; Rapid Assessment for Resilient Recovery and Reconstruction Planning, World Bank 2012 (www.worldbank.org/th)
6. Spatial Data List: GIS layers
1.Flood maps
2.Flood Dikes
3.Locations of flood control gates
4.Information from Telemeters
5.Precipitation data from telemeters and Thai Meteorological Department
6.Roads and water ways
7.Administration boundaries
8.Digital Elevation Model
Spatial Data for Control and Management used in 2011 Flood
7. 7
Flood and Drought Risk Map
Source: 1. Flood Areas usingLANDSAT, RADARSAT and SPOT from 2005-2009; by GISTDA2. Drought Risk Areas2005, by LDD
19. Bang PraMa, SupanburiProvince, ALI quick look; Acquired 14 Feb 2012 where water inundated still remained.
Email alert from ASE Operation at NASA JPL
21. 8DEC 2011
5 NOV 2011
EO-1-ALI
1 NOV 2011
29 OCT 2011
The Don MuangAirport (also Don Mueang) started to flood on October 25, 2011
Over 30 EO-1 acquisitions, during the flood event.
18 NOV 2011
22. EO-1-ALI
29 OCT 2011
http://earthobservatory.nasa.gov/IOTD/view.php?id=76282
28. The "International Symposium on Artificial Intelligence, Robotics and Automation in Space (i-SAIRAS)“ 2012, ESA, 4-6 September 2012, Turin, Italy
29. Spatial Data List (Con’t) Remote sensing
GISTDA
1.THEOS (Thaichot)
2.RADARSAT
JAXA
1.PiSAR-L Arial images onboard airplane
HAII-ThaiFlood
1.Arial photographs from UAV
2.Digital Elevation Model (5 meter)
3.Model outputs
Google Earth as a reference!!!
46. Spatial Data List (Con’t) Remote sensing
International Charter Space and Major Disasters
1.WorldView 1 and 2
2.IKONOS 1 and 2
3.GeoEye-1
4.TerraSAR-X
5.Disaster Monitoring Constellation (DMC), Survey Satellite Technology Ltd. (SSTL)
6.Terra-ASTER
7.LANDSAT 5 ETM and LANDSAT 7 ETM+
8.SPOT-5
9.IRS-R2
58. Communication Problems
•During the 2011 flood event regarding a lot in coming information to decision makers the out going messages to the public did not clear and create a lot of confusion and misunderstanding
•Decision makers did not really understand the information they get well enough
•Too many not correct official announcements
•The necessary information did not deliver to the public well enough
•Later, even correct messages were sent to the public, people started not to believe those messages and warning anymore.
59. Post 2011 Flood Water Management Tools Development
Monitoring and Warning
•Centralize related hydro and climate data so Better user friendly of monitoring and warning information web interface have been developed and deployed.
•National HydroInformaticsand Climate Data Center
60. •Developing of Decision Support System (DSS)
•Chao Phraya River Basin
•Chi and MunRiver Basins
•Mobile applications have been developed and deployed.
•Simple flood control management scheme.
•Mobilized Emergency Data Supporting Center
•NOAA-NGDC Collaboration
62. Main Function of NHC
Forecasting and Warning System
•สภาพอากาศระยะ สั้น-กลาง-ยาว
•สมดุลน้้า ความเสี่ยงน้้าท่วม-น้้าแล้ง
•บริหารโครงสร้าง/เขื่อน/ฝาย/ปตร./สูบ
Development and Adaptation
Crisis Management
Forecast for Water Management
Normal Management
Short, Medium and Long range Weather Forecast
Water Balance: Chance for Flood and Drought
Structure/Dam/Dyke/Weir/Watergate/ Pump Management
4
3
National
Hydroinformaticsand Climate Data Center (NHC)
Monitoring
Water and flood
situation
2
1
63. National Hydroinformatics and Climate Data Center
Rainfalls, Strom
and dam inflow
Warning System
Report System
Map
Data Center
High Performance
Computers
Related Agencies
CCTV Table / Chart
Collaboration
Research
Mobile Center (Mirror Site)
Modeling
UAV
Social Sensors
National Disaster Warning Center
Equipment
GIN/MOI-Net
Network
Meteorology Hydrology
Utility
System
Geography
Economy
Society
Statistic
Data
Data
Linkage
System
Telemeterin
g
63
Internet
Mirror Site
Internet GIS System
Autonomous
RobotBoat
64. Main Data on the National Hydroinformaticsand Climate Data Center
Link and exchange data between 12 related water resource management government agencies and the National Hydroinformaticsand Climate Data Center for research usage for monitoring and analyzing the situation.
237 Data Types
Water level Data
Basin Telemetering Data
Artesian Well Data
Warning Telemetering Data
Landslide Risk Map Data
Landslide Risk Community Data
Weather Map Data
Sea Level Data
Large Dam Data
Model for Rainfalls Forecast Figure
Canal Water Level Measurement Data
Flood Map
70. National Hydroinformaticsand Climate Data Center
•Storm direction
•Rainfall information
•Sea surface height/temperature
•Water diagram
•Dam water level
•Water model and warning system in flood and drought for water management
Automatic real-time data:
•Solar intensity
•Temperature
•Humidity
•Air pressure
•Rainfall
•Water level
Thailand's Wind and PrecipitationForecast (WRF)
Use a high resolutions topography
Deploy fine computational grid 3x3 km (3 nested domains)
Run twice a day –7-day forecasts (9x9 km)
Use NCEP’s Global Forecast System (GFS) inputs
Verify with Local weather stations
74. Technology and Data Services
Website
Model
NHC Mobile application
(March 2013)
News Report / Water situationmonitoring
Serve Executive and People
Broadcast water situationnews
Serve Local and Community
Water and Weather Situation Monitoring
Serve Executive and Government Agencies
Situation Forecast / Estimation
Government Agencies Collaboration
MediaBox
75. 75 75
Decision support system (DSS) National HydroinformaticsData Center
Multiple
Data Sources
GIS
Water user
Base Data
WRF
Forecast Data
Real-time Data
Rainfall
Discharge
Water level
Reservoir
Data Management
Flood Forecasting System
Analysis
Output
Real-time Data
Flood Forecast
Water Balance
Flood Management
Multi-user
Interfaces
DSS
76. “GAEMI”
GAEMI
(1 –6 October 2012)
Cloud condition 5 Oct. 2012
Telemetry rainfall 5 Oct. 2012
Weather forecast model: WRF
Use a high resolutions topography
Deploy fine computational grid 3x3 km (3 nested domains)
Run twice a day –7-day forecasts (9x9 km)
Use NCEP’s Global Forecast System (GFS) inputs
Verify with Local weather stations
77. Floodforecasting models combine the use of 1D river model and 2D overland flow model together. By coupling these two modelswith the weather forecast (WRF), the flow & flood conditions can be predicted 7days in advance. The project area covers the entire Chao Phraya river basin.
77
Flood forecasting system
77
1D
2D
78. Real time monitoring system
Real-time mode
Scenario mode
•Direct data connection
•Flexible data presentation
•Overview of water situation
•Support decision making
•Support scenariodesign in real time mode
•Fast and easy
•Risk analysis and possible flood impact
•Scenario of control structures eg. reservoirs
79. Scenario mode
Rainfall forecast model
Flood probability
Forecasted
rainfall
NAM/
MIKE11
WRF
Early warning
Real time
flood forecasting
Decision making
Accurate
flood information
Better and
earlier decisions
Forecasted discharge/water level
Impact
assessments
Actions/Reponses
Decision support
GFS
Possible flood impact analysis
82. Water Management and the National Flood Problem Solution
Warning Announcement
Monitor and inform the disaster information
National Hydroinformaticsand Climate Data Center
NHC
89. NOAA-NGDC
•Suomi NPP VIIRS/ATMS data and applications
•7 main data products are FTP daily from NGDC to HAII through APAN
1.Imaging bands
2.M bands 1-5
3.Day / night band (DNB)
4.Cloud Products
5.Ocean Products
6.Terrestrial products
7.Aerosols
Post Flood Control Tools Development
94. 18 Gbof Data have been downloading through APAN everyday and increasing.
From:
1. ftpprd.ncep.noaa.gov 6.7 Gb
2. rda.ucar.edu 4.4 Gb
3. ftp.hycom.org 2.0 Gb
4. www.ngdc.noaa.gov 4.9 Gb
APAN Network Utilization and Test Results
100. Conclusions
•Variety of spatial data and information have been utilized for flooding management in Thailand.
•Previous management could not put rich information in a good appropriate practical usage.
•Development of user friendly web interface and tools for water control have been developed.
•Establishment of National HydroInfomaticsand Climate Data Center
101. Conclusions
•Establishment of Climate Change Understanding and Adaptation Technology Center
•Establishment of Mobilized Emergency Data Supporting Center
•Utilization of APAN’s bandwidth dramatically increases and need stable routing in Japan’s hub to the USA and others.
•Increasing International collaborations.