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DSD-SEA 2023 Innovations in hydro modelling software - Brinkman

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Deltares
10 de Mar de 2023
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DSD-SEA 2023 Innovations in hydro modelling software - Brinkman

  1. JanJaap (JJ) Brinkman Director Deltares Singapore Branch Co-Director NUSDeltares Innovations in hydro-modelling software
  2. What is Deltares?
  3. What is Deltares? The Dutch Water and Subsurface research Institute
  4. 5 Deltares in het kort 15 years old Deltares 2008 100 years of expertise Delft Hydraulics 1927
  5. 6 Deltares in het kort 15 years old Deltares 2008 100 years of expertise GeoDelft 1934 TNO groundwater & subsurface Public Works knowledge units
  6. Deltares is the independent National Research Institute in the field of water, subsurface and infrastructure. ➢ We are one of the 5 Dutch TO2 (=Applied Research) Institutes, together with MARIN, NLR, TNO and WUR ➢ Not-for-profit ➢ Unique hydraulic/geotechnical laboratories and leading computer modeling facilities (freeware / open-source policy) ➢ 840 staff (mostly MSc/PhD, 39 nationalities) ➢ Offices in Delft and Utrecht, The Netherlands and branch offices in Singapore, Indonesia, USA, Abu Dhabi/Dubai and Vietnam. Dutch National Research Institute
  7. In Singapore
  8. NUSDeltares The long-term knowledge alliance National University of Singapore NUS and Deltares
  9. SDWA The Singapore Delft Water Alliance NUSDeltares The long-term knowledge alliance National University of Singapore NUS and Deltares
  10. SDWA 2006 – 2012 The Singapore Delft Water Alliance NUS-TUDelft-Deltares NUSDeltares The long-term knowledge alliance National University of Singapore NUS and Deltares
  11. Now with TMSI, CNCS, NUS Cities, TUDelft and also… NUSDeltares The long-term knowledge alliance National University of Singapore NUS and Deltares
  12. TCOMS - the National Hydrodynamic Research Institute
  13. TCOMS – Deltares Long-term cooperation Combined development and innovation on water management for Singapore and the region TCOMS - the National Hydrodynamic Research Institute
  14. Innovations for Singapore and the region 15 • NEPTUNE water quality monitoring and modeling (NEA) • Tuas groundwater study (PUB) • Jurong Island groundwater extraction studies, Phase 1 and Phase 2 (PUB) • Polder development Pulau Tekong, Smart Polder System (HDB) • Environmental Impact Study of land reclamation (HDB) • In-Stream wetlands (Nparks) • Vulnerability of reservoir water quality to climate change (PUB) • Old alluvium groundwater recharge (PUB) • Operational management systems for optimal reservoir operation (PUB) • Wave overtopping study (BCA) • Feasibility study Mandai mangrove and Mudflat rehabilitation (Nparks)
  15. Lab Facilities, Experiments and Software DELTARES TCOMS NUS
  16. And together we have and develop Software… Over Deltares 17 Hydrosoftware Geosoftware Games en apps Decision support tools
  17. Groundwater projects Singapore (2012-2019) • Groundwater Modeling and Risk Assessment Study for Jurong Island (phase 1 and 2) − 2013-2019 • Evaluation of risk and potential of groundwater in Tuas reclamation − 2016-2019 • Groundwater Potential of offshore Old Alluvium in Singapore − 2015-2016
  18. Polder development at Pulau Tekong (2014 – now) • New polder development, first-of-its kind in Singapore; − Leads to a substantial reduction of sand demand • The reclaimed land is below the surrounding sea level and protected from the sea by a dike; − 10 kilometers long, up to 15 meters wide at its crest, 6 meters above sea level • The polder has a comprehensive water management system; − Extensive drainage network, a fresh water body and two pumping stations • Involved agencies: HDB, PUB • Continuation: − Ongoing combined research on future Polder Design Requirements (CoT) − Future living Lab https://www.youtube.com/watch?v=17BZB6ko_Nc
  19. Water Quality of Reservoirs and Coastal Waters Reservoirs • Explore the impacts of climate change, changes in land-use, and social-economic development on water quality in Singapore reservoirs over next 100 years and define possible mitigation measures. − 2016 Coastal waters • Neptune OMS, developing, implementing and validating the national water-quality monitoring and prediction service for Singapore’s coastal waters. − 2011-2014
  20. Neptune model
  21. Nature June 29 – New coastal level dataset… The world is changing, certainly in SE Asia…
  22. Of course our software solutions are changing too… • Technically ready for next-gen questions − VERY large amount of computations (e.g. probabilistic risk) − VERY large domains (e.g. flood impact forecasting on entire continental coastline) • Sustainable − Have local entities work with models − Have local entities bring their own local data into models − rapidly urbanizing areas: models kept up to date locally. 24
  23. Technical requirement: SPEED 25 1. Demand in practice → modeling needs to be faster: need for speed! − Rapid assessments for desktop studies − Forecasting 100s of ensemble member for extreme weather impacts − Event sets for insurance industry → 10,000s years of synthetic simulations over very large domains 2. Compound flooding requires taking into account more-and-more processs − Hydrology (local rainfall, upstream flow, dam management etc.) − Wave-driven flooding via Xbeach-1D can be cumbersome + high model resolution can be prohibitive − Subgrid topography for sub-grid cell variability may be required − Groundwater flooding?
  24. SFINCS is open-source GPLv3 licensed code https://github.com/Deltares/SFINCS Beta executable, downloadable from https://download.deltares.nl/en/download/sfincs/ 26 All developments are aimed for speed with preservation of as much physics as possible • Point sources (rivers and pumps) • Levees (weir formula) • Rainfall and infiltration • Wind forcing and atmospheric pressure • Coriolis • Viscosity • Geographic coordinates • Sub-grid topography
  25. Compound probabilistic flooding. Also part of Singapore’s National Model… 27 Co-occurrence Dependence
  26. • Technically ready for next-gen questions − VERY large amount of computations (e.g. probabilistic risk) − VERY large domains (e.g. flood impact forecasting on entire continental coastline) • Sustainable − Have local entities work with models − Have local entities bring their own local data into models − rapidly urbanizing areas: models kept up to date locally. 28 Of course our software solutions are changing too…
  27. Moving towards HydroMT HydroMT (Hydro Model Tools) is an open-source Python package at the interface between data, users, and water system models. It includes GIS, hydrological, statistical and plotting methods needed for rapidly building inter-connected environmental models for hydrology, water quality, groundwater, water resources and environmental impacts applications. 29 Build Update Plot Stat Cloud-ready Scalable Reproducible Flexible Fast
  28. About HydroMT: Building a model 30 Steps to build a model 1. Select the data you want to use by preparing a data catalog or use a pre- defined one. 2. Select your region of interest. 3. Select the model components you want to build and the options (data source, resampling method etc.) by preparing a model setup configuration file or use a pre-defined one. 4. Build your model using the Command Line Interface (CLI) or Python. > hydromt build model “my_model” “{‘basin’: [x,y]}” -i model_build.ini -d data_catalog.yml -vv
  29. About HydroMT Data-centred model building with HydroMT − Rapid model building/updating globally 31 Useful in quick scan analysis Ventiane Laos example: flood hazard and impact mapping Wflow + SFINCS + Delft-FIAT Useful in data-scarce regions Coumpound flood modelling Mozambique
  30. Make use of Global datasets and tools
  31. From fighting against water to living with water From civil engineering to nature based solutions Paradigm shift
  32. Towards HydroMT… Data-centred model building with HydroMT - plugins 34 https://deltares.github.io/hydromt/latest/index.html
  33. Global Tide and Storm Surge Model 35 Global Tide and Surge Model • Depth-averaged barotropic model, no boundary conditiond • Delft3D Flexible Mesh • Unstructured grid with resolution increasing towards the coast Applications • Metocean & boundary conditions for local models • Operational forecasting • Reanalysis of historical extremes • Future climate projections Usage • Large internal exposure & usage • Basis of IPCC-AR6 assessment on SLR and various ohter web-based tools • Many high-impacts publications GTSM wiki: https://publicwiki.deltares.nl/display/GTSM/ Global+Tide+and+Surge+Model
  34. Gravity potential 36 - Tides are fully driven by tidal potential. There are no boundary conditions - Tides indirectly generate their own gravity potential feedback. - The solid earth yields under tidal pressure. - Together these are called Self-attraction and loading
  35. Global datasets and tools, how will the tides change?
  36. South-East-Asia surge and tide Model (SEASAT)
  37. South-East-Asia surge and tide Model (SEASAT)
  38. Storm Surge Model •Open BC •India Ocean •Pacific Ocean •ArafuraSea
  39. Gulf of Bengal model Singapore model Gulf of Thailand model South China Seas model Java Sea model Banda Sea model TCOMS – Deltares will Invite / Initialize The SE Asia(n) Platform April/May 2023 North Australia Coastline model
  40. Global Data Services Making global data available on a digital platform for everyone 42 Deltares Software Days South-East Asia 2019
  41. 43 Proud you are here as part of our large Open Source User Community…
  42. 08:30 – 09:00 Registration and coffee 09:00 – 10:30 Opening • Official opening of the DSD-SEA 2023 – Prof. Yong (NUS) • Introduction and Program – JanJaap Brinkman (NUSDeltares) 10:00 – 10:30 Tea and coffee break 10:30 – 12:00 Block I: Global to local approaches • Global to local multi-hazard forecasting: Deltares global model, system and service – Kun Yan (Deltares) • 3D hydrodynamic and water quality modelling for Hong-Kong – Julien Groenenboom (Deltares) • Global vegetation monitoring – Bregje van Wesenbeeck (Deltares) • Large scale groundwater management – Ali Meshgi (Deltares) 12:00 – 13:00 Lunch
  43. 13:00 – 14:30 Block II: Long-term planning – climate change and climate resilience • Flood Hazard and mitigation in cities: the example of Charleston SC – Prof. Ap van Dongeren (Deltares – NUSDeltares) • Environmental Change in the Mekong Delta: Integrated Modelling – Dr. Sepehr Eslami (Deltares) • BlueCAN: cutting carbon emissions by improving water quality – Dr. Guus Kruitwagen (Witteveen+Bos) • Climate Stress Test Toolbox – Hélène Boisgontier (Deltares) 14:30 – 15:00 Tea and coffee break 15:00 – 16:30 Block IV: Short-term planning – forecasting and operational systems • Australian Flood Inundation Forecasting System (FliFS PoC) – Shoni Maguire (Australian Climate Service) & Chris Leahy (Bureau of Meteorology) • Bangkok flood forecasting and early warning system – Dr. Siriluk Chumchean (Panya Consultants Co., Ltd.) • Environmental and Hydro informatics Integration in the Taiwan River basins – Jhih-Cyuan Shen, Ph.D. (FondUS Technology) • Oil Particle Tracking Modelling – Yanna Zhou (National Environment Agency) 16:30 – 17:00 Closing • Summary of the day and introduction to the courses • Closing ceremony 17:00 – 18:30 Drinks and networking
  44. Courses – 23rd and 24th February During the following two days, three one-day courses will be organised to get users introduced to different Deltares software for groundwater modelling, coastal planning, and river basin forecasting. Each course is given twice so that attendants can decide to follow the two software of their choice. The three courses are: Groundwater modelling using iMOD Suite In this course, we will study how the iMOD Suite provides tools to efficiently build and visualize groundwater models for applications such as groundwater availability, recharge and tracking of groundwater flow paths. River basin forecasting using Delft-FEWS and Wflow In this course, we will discuss the basic principles of river basin forecasting and how Delft- FEWS provides the platform for forecasting systems. River basin modelling will use Wflow, Deltares’ state-of-the-art and open-source hydrological modelling framework. Hydrodynamic modelling using Delft-3D FM In this course, we will explore how Delft-3D FM supports detailed hydrodynamic modelling of rivers, coasts, or urban cities utilizing a flexible mesh concept.
  45. • Software as a Service • Data as a Service • Model as a Service • Computing as a Service 47 Into the cloud
  46. 48 • Innovation as the driving force • Continuous improvement of work processes • Tapping new data sources • Exploring new technologies • New distribution channels for data, models, software • Cooperation! Ready for the future
  47. Please enjoy Thank You
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