HYDROASIA 2008 FLOOD ANALYSIS STUDY AT INCHEON GYO CATCHMENT TEAM GREEN NGUYEN HOANG HUYSUN YABIN GWON YONGHYEON SUZUKI ATSUNORI LI WENTAO LEE CHANJONG.

Slides:



Advertisements
Similar presentations
7th International Conference on Sewer Processes and Networks , August 2013, Sheffield, U.K. Research into suitable.
Advertisements

Modeling of Flood Inundation in Urban Areas Including Underground Space Kun-Yeun Han, Gwangseob Kim, Chang-Hee Lee, Wan-Hee Cho Kyungpook.
Neural Network I Week 7 1. Team Homework Assignment #9 Read pp. 327 – 334 and the Week 7 slide. Design a neural network for XOR (Exclusive OR) Explore.
Importance of Land use management on the Flood Management in the Chi River Basin, Thailand Kittiwet Kuntiyawichai Bart Schultz Stefan Uhlenbrook F.X. Suryadi.
Flood Analysis Study of Incheon-Gyo Catchment with SOBEK Model TEAM BLUE Adviser : Shie – Yui Liong (NUS) Leader : He Shan (NUS) Members :
ADRICOSM-EXT PROJECT (ADRIatic sea integrated COastal areaS and river basin Management system pilot project - EXTension) WP2 – INTEGRATED CATCHMENT SIMULATOR.
HydroAsia Final Presentation team Purple Reducing Flood Damage by Increasing Green Area.
STUDY OF THE STORM DRAIN SEWER OF THE URBAN CATCHMENT OF LA RIERETA, SAN BOI DE LLOBREGAT, SPAIN TEAM 3: 1. Aline Veról 2. José Rivero 3. Pedro Ramos 4.
Forecasting impact of climate change on runoff coefficient in Limpopo basin using ANN MARCH , 2004AF_42 DAKAR WORKSHOP WELCOME TO THE SECOND AIACC.
Hydrological Modeling for Upper Chao Phraya Basin Using HEC-HMS UNDP/ADAPT Asia-Pacific First Regional Training Workshop Assessing Costs and Benefits of.
Integrated Approaches for Runoff Forecasting Ashu Jain Department of Civil Engineering Indian Institute of Technology Kanpur Kanpur-UP, INDIA.
Grant: EP/FP202511/1 Advances in Flood Risk Management Science - Improved short term rainfall and urban flood prediction.
2 nd HYDROASIA ~ The Application of Hydroinformatics Systems in Urban flow Analysis by SOBEK Team Purple
Biet Qad Village Climate Relative Humidity Evaporation.
Brian Merrick CS498 Seminar.  Introduction to Neural Networks  Types of Neural Networks  Neural Networks with Pattern Recognition  Applications.
B LUE T EAM B LUE T EAM - W EB WORK AND TEAM PRESENTATION
Reading: Applied Hydrology, Sec 15-1 to 15-5
Prénom Nom Document Analysis: Artificial Neural Networks Prof. Rolf Ingold, University of Fribourg Master course, spring semester 2008.
Company LOGO Sun-Ah, Lee Sinae, Chae Sophie, Klose Shi, Yundi Jean, Girard Oriol, Raurell Thang, Nguyen FLOOD ANALYSIS STUDY AT INCHEON GYO WATERSHED GREEN.
Artificial Neural Network using for climate extreme in La-Plata Basin: Preliminary results and objectives David Mendes * José Antonio Marengo * Chou Sin.
Introduction to Neural Network Justin Jansen December 9 th 2002.
Power Systems Application of Artificial Neural Networks. (ANN)  Introduction  Brief history.  Structure  How they work  Sample Simulations. (EasyNN)
1D, 2D integrated Flood Risk Mapping (Incheon-gyo Catchment) Team RED Seongjoon BYEON Myeongsoo HAM Michele ROMANO K. Shobha YADAV Masahiko.
JYC: CSM17 Bioinformatics Week 9: Simulations #3: Neural Networks biological neurons natural neural networks artificial neural networks applications.
Hanoi, January 29 th 2015 Rodolfo Soncini-Sessa DEI – Politecnico di Milano IMRR Project 11 – Problem simplification INTEGRATED AND SUSTAINABLE WATER MANAGEMENT.
For the lack of ground data the verification of the TRMM performance could not be checked for the entire catchments, however it has been tested over Bangladesh.
November 7, 2012Introduction to Artificial Intelligence Lecture 13: Neural Network Basics 1 Note about Resolution Refutation You have a set of hypotheses.
HydroAsia face-to-face meeting Opening presentation.
2 “A process that encourages the development and management coordinated water, land and related resources to maximize the economic welfare and social.
Artificial Neural Networks (ANN). Output Y is 1 if at least two of the three inputs are equal to 1.
ABSTRACTS General Structure Background and Objective Downscaling CGCM climate change output scenario using the Artificial Neural Network model Kang Boosik.
August 20th, CONTENT 1. Introduction 2. Data and Characteristics 3. Flood analysis 1. MOUSE 2. SOBEK 3. ARC-SWAT 4. Conclusions and suggestions.
Explorations in Neural Networks Tianhui Cai Period 3.
Chapter 3 Neural Network Xiu-jun GONG (Ph. D) School of Computer Science and Technology, Tianjin University
Field Trip Report 17, Aug TEAM MEMBERS GOPIRAAMAN LVS TRA-MI NGUYEN CLAIRE BORDEROLLE CHENFEI YAN JIEUN PARK KWANG NAM KIM YOSHIYA TOUGE HIROYUKI.
Machine Learning Approach to Report Prioritization with an Application to Travel Time Dissemination Piotr Szczurek Bo Xu Jie Lin Ouri Wolfson.
1D, 2D Integrated Flood Risk Mapping (Incheon-gyo Catchment) Team RED Seongjoon BYEON Myeongsoo HAM Michele ROMANO K. Shobha YADAV Masahiko.
1 Water Services Training Group 19 th Annual Conference Optimising Services Delivery in the Water Industry Radisson Blu Hotel Sligo, 3 rd. September 2015.
Artificial Neural Network Building Using WEKA Software
DONG DONG-A UNIVERSITY Historical Flood in in. 2 DONG-A UNIVERSITY Online Collaboration Web Platform Web Platform was used as part of the communication.
Flash flood forecasting in Slovakia Michal Hazlinger Slovak Hydrometeorological Institute Ljubljana
Artificial Intelligence & Neural Network
 Based on observed functioning of human brain.  (Artificial Neural Networks (ANN)  Our view of neural networks is very simplistic.  We view a neural.
An Artificial Neural Network Approach to Surface Waviness Prediction in Surface Finishing Process by Chi Ngo ECE/ME 539 Class Project.
PARALLELIZATION OF ARTIFICIAL NEURAL NETWORKS Joe Bradish CS5802 Fall 2015.
Reservoir Uncertainty Assessment Using Machine Learning Techniques Authors: Jincong He Department of Energy Resources Engineering AbstractIntroduction.
I n regulated power industry utility wants to do demand response. Designing a Model to Obtain Residents’ Response for the Financial Incentives in a Demand.
Flood Analysis Study of Incheon-Gyo Catchment with SOBEK Model 24 August 2007 BLUE TEAM Advisor : Shie – Yui Liong (NUS) Leader : He Shan (NUS) Members.
Neural Networks Si Wu Dept. of Informatics PEV III 5c7 Spring 2008.
Automatic Screening of Sonar Imagery Using Artificial Intelligence Techniques John Tran.
Bab 5 Classification: Alternative Techniques Part 4 Artificial Neural Networks Based Classifer.
Downscaling Global Climate Model Forecasts by Using Neural Networks Mark Bailey, Becca Latto, Dr. Nabin Malakar, Dr. Barry Gross, Pedro Placido The City.
Neural Networks. Background - Neural Networks can be : Biological - Biological models Artificial - Artificial models - Desire to produce artificial systems.
SOBEK is a powerful 1D and 2D instrument for flood forecasting, drainage systems, irrigation systems, sewer overflow, ground-water level control, river.
Seth Kulman Faculty Sponsor: Professor Gordon H. Dash.
LOAD FORECASTING. - ELECTRICAL LOAD FORECASTING IS THE ESTIMATION FOR FUTURE LOAD BY AN INDUSTRY OR UTILITY COMPANY - IT HAS MANY APPLICATIONS INCLUDING.
Michael Holden Faculty Sponsor: Professor Gordon H. Dash.
Artificial Neural Networks By: Steve Kidos. Outline Artificial Neural Networks: An Introduction Frank Rosenblatt’s Perceptron Multi-layer Perceptron Dot.
Chapter 13 Artificial Intelligence. Artificial Intelligence – Figure 13.1 The Turing Test.
Dr.-Ing. Erwin Sitompul President University Lecture 1 Introduction to Neural Networks and Fuzzy Logic President UniversityErwin SitompulNNFL 1/1
WATER RESOURCES DEPARTMENT
Business Intelligence and Decision Support Systems (9 th Ed., Prentice Hall) Chapter 6: Artificial Neural Networks for Data Mining.
Predicting Salinity in the Chesapeake Bay Using Neural Networks
Climate change mitigation and adaptation actions in Vietnam
Mohammad Khaled Akhtar Bangladesh
OVERVIEW OF BIOLOGICAL NEURONS
Flood flow prediction in a river system using artificial neural network: Case study Guadalupe Basin Ahmad Tavakoly April 2010.
Kreshna GOPAL C. Prakash KHEDUN Anoop SOHUN
Presenter: Sihong LIN Adviser: Bei ZHOU 9 July, 2019
Optimal Investment Strategies to Minimize Flood Impact on Road Infrastructure Systems UK Team Prof Maria Paola Scaparra, Dr Trung Hieu Tran, Dr Siao-Leu.
Presentation transcript:

HYDROASIA 2008 FLOOD ANALYSIS STUDY AT INCHEON GYO CATCHMENT TEAM GREEN NGUYEN HOANG HUYSUN YABIN GWON YONGHYEON SUZUKI ATSUNORI LI WENTAO LEE CHANJONG ADVISERS: Prof. LIONG SHIE YUI Prof. TANAKA KENJI

OUTLINE BACKGROUND OF CATCHMENT BACKGROUND OF CATCHMENT MODELING TOOLS MODELING TOOLS - SOBEK - MOUSE SIMULATION RESULTS SIMULATION RESULTS FORECASTING: NEURAL NETWORKS FORECASTING: NEURAL NETWORKS FORECAST RESULTS FORECAST RESULTS CONCLUSION CONCLUSION Q & A Q & A

INCHEON-GYO WATERSHED

−Located in the mid-west Korea peninsula near Yellow Sea −With both international port and international airport −The third biggest city in Korea −Population : 2,730 thousand Incheon

– –Total area : 34 km 2 Length :8 km – –Tidal difference : 9 m – –Avg. of Rainfall : 1,702.3 mm/year – –Most of present Incheon Gyo watershed was sea before completed to reclamation in 1985 – –Reclamation area used for industry & residence – –Culvert slope is very mild(Avg. of Slope : 0.01 %) – –Flooding in 1997 to 2001 (except 2000) Study area Gaja WWTP City Hall Gansuk station Juan station Incheon Gyo Pump Station Coastline before 1984 Study Area Yellow Sea Incheon Gyo Pump station Reclamati on Area Incheon-gyo Catchment

MODELING TOOLS

MOUSE SETUP Import from the excel file “Imported data to Mouse.xls” to Mouse Setting up Urban Drainage model with MOUSE Validation

4/8/1997 1AM ~ 4/8/1997 4PM (15 hrs) Maximum rainfall : 19mm/10min Input Rainfall Data 100%

Flood(100_100)

WATER ON STREET AT NODES (MANHOLES) MANHOLES AT FLOOD AREA

SIDE VIEW OF SIMULATION RESULTS

SOBEK SET UP

WATER ON STREET AT NODES (MANHOLES) NODES NOT AT FLOOD AREA

WATER ON STREET AT NODES (MANHOLES) NODES NOT AT FLOOD AREA

SIDE VIEW OF SIMULATION RESULTS

WATER ON STREET AT NODES (MANHOLES) NODES AT FLOOD AREA

WATER ON STREET AT NODES (MANHOLES) NODES AT FLOOD AREA

SIDE VIEW OF SIMULATION RESULTS

WATER ON STREET AT NODES (MANHOLES) NODES AT FLOOD AREA

SIDE VIEW OF SIMULATION RESULTS

USING NEURAL NETWORK AS A FORECAST SYSTEM

DefinitionDefinition An artificial neural network (ANN) is a mathematic model or computational model based on biological neural networks. An artificial neural network (ANN) is a mathematic model or computational model based on biological neural networks. ANN consists of an interconnected group of nodes, akin to the vast network of neurons in the human brain. ANN consists of an interconnected group of nodes, akin to the vast network of neurons in the human brain.

ApplicationApplication  Function approximation  Regression analysis  Pattern recognition  Time series prediction

Schematic DiagramSchematic Diagram

ReferenceReference Haykin, S. (1999) Neural Networks: A Comprehensive Foundation, Prentice Hall, ISBN Haykin, S. (1999) Neural Networks: A Comprehensive Foundation, Prentice Hall, ISBN

THE RESULT OF NEURAL NETWORK

WHY A FORECAST SYSTEM IS NEEDED?

The Multilayer Perceptron Neural Network is then used to forecast the total discharge at the reservoir. The data series are splitted into 2 portions, one for training while the other for validation INPUTOUTPUT RainfallTotal Discharge TT-dtT-2dtTT-dtT-2dtT+dt, T+2dt Dt=30 minutes Scenarios RainfallWL at pond Training 100% 50%100% 120%100% 120%50% 100%50% Validation100%120% Neural Network setup for input and output

Maximum rainfall intensity 50%57 100% %136.8

DISCHARGE S AT RECERVOIR OF THREE MAIN METWORKS (4 August 1997)

TrainingValidation LeadtimeCCR2CCR2 30 mins mins Correlation coefficient R squared

SOBEK SIMULATED VS ANN FORECAST 30 minutes leadtime

60 minutes leadtime SOBEK SIMULATED VS ANN FORECAST

SUGGESTIONS Rainfall & Wind Forecasting Catchment Runoff & Sea Level Forecasting Optimal Reservoir Operation Online forecast system

Conclusion MOUSE and SOBEK have been used to study Incheon catchment for the event in 1997.MOUSE and SOBEK have been used to study Incheon catchment for the event in Several scenarios have been successfully generated by both MOUSE and SOBEK.Several scenarios have been successfully generated by both MOUSE and SOBEK. Present an idea of using neural network at a forecast system for reservoir operationPresent an idea of using neural network at a forecast system for reservoir operation An Artificial Neural Network model has been trained by the scenarios generated with sense.An Artificial Neural Network model has been trained by the scenarios generated with sense. Discharge at the next time step has been reasonably predicted by ANN.Discharge at the next time step has been reasonably predicted by ANN. Suggest some solutions to improve the forecast systemSuggest some solutions to improve the forecast system

THANK YOU Q & A

Our team movie