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Smart Water Strategies – Smart Utilities
SmartWater4Europe Erick Oostermeyer Project Coordinator
November 6th, 2014
This project has received funding from the European Union’s Seventh Programme for research, technological development and demons t ra t i on unde r g ran t agreement No 619024.
Please hold the line
Please hold the line………
4 steps: 1. Solve the problem 2. Find out what happened? 3. Who where involved? 4. What can we do to prevent this from
happening again?
The European Innovation partnership on Water (EIP) • Established priority areas related to the challenges in
water supply distribution networks, focusing on resource efficiency, Smart Water Management and decision support systems.
• Although the technology components for Smart Water Management are available, the route to application is still uncertain
• The main hurdles are: lack of integrated and open solutions; difficulty of comply intelligence awareness and lock of political and regulatory support.
The challenge European water u,li,es face many problems related to their 3.5 million km’s of distribu,on networks: § Large parts of water distribu,on networks
have to be rehabi l i tated requir ing investments of € 10 billion/year.
§ Priori,za,on and op,miza,on of investments is needed urgently.
§ In many countries, water quality needs improvement in order to reduce health risks and resources for water produc,on and distribu,on must be used more efficiently.
Old networks
Water quality
Investment Priorization
SmartWater4Europe § Demonstra,on of integrated smart water supply solu,ons at 4 sites across Europe.
§ Total Cost: € 12 million. § EC Contribu,on: € 5,999,288,00. § Dura,on: 4 year. § Start Date: 1st of January 2014. § Consor,um: 12 innova,ve SMEs, 3 water u,li,es, 3 research ins,tutes, 1 company and 2 plaTorm organisa,ons.
§ Project Web Site: hWp://www.smartwater4europe.com
Smart Water Grid
Business Intelligence Customer data
Asset data
Sta
tic
Ø Proactive/Preventive control & measures
Ø Information provision
Sensor data
(Social) media R
eal t
ime
Increased process
efficiency
Increased customer
satisfaction
Upmost Challenge: Big Water Data
DATA
INFO
Business intelligence
!
API API
Project Objectives • To demonstrate 12 innovative solutions • To demonstrate 4 integrated solutions • To establish and guard integration and standardisation
aspects • To establish business cases, deployment and potential
market uptake routes
TWUL Demo site Thames valley:
Reading 32.000 km
In progress ?
74 km
VIP Leeuwarden 2.200 km
Sunrise Demo site Lille
12 km
ü Project Budget: 12M€ ü EU funding: FP7 INNO DEMO ü Project duration: 4 year ü Project Management: Vitens N.V.
ü 12 innovative SMEs ü 3 water utilities ü 3 research institutes ü 1 company ü 2 platform organizations
This project has received funding from the European Union’s Seventh Programme for research, technological development and demonstration under grant agreement No 619024.
Consortium
Demo Sites Thames Valley: Reading
§ Fobney Water Treatment Works: it is the largest works in the Kennet area.
§ 870 kilometres of distribu,on mains and 172 kilometres of trunk mains located in and around the city of Reading.
§ It has many pipes over 60 years old, serving 89.000 commercial and domes,c proper,es.
§ They include installa,ons varying f r o m 4 ” ( 1 0 0 mm ) u p t o 32” (800mm) in size, with majority of larger diameters constructed of iron.
§ The demonstra,on site comprises 12 km’s of distribu,on network.
§ Demonstra,on infrastructure concerns 72 smart meters.
§ Serving a university a campus. § Seasonal varia,ons.
Sunrise
Demo Sites
§ 4 DMAs, 45 Op,qua Eventlab Sensors, IMQS user interface pilot.
§ All customers have an analogue water meter, bigger customers an AMR, a detailed hydraulic model, main flow and pressure meters.
Spain
Vitens Innovation Playground
Demo Sites
Site Theme Netherlands Spain United Kingdom France
Water quali:y management
1.1 Detec:on, back-‐tracing and forward tracing of water quality events by using mul:ple generic sensors and detailed modelling
1.2 Detec:on of water quality events in a chlorinated network and op:miza:on of chlorine usage using generic sensors
1.3 detec:on of water quality anomalies by advanced algorithms using mul:ple specific sensors
Leakage management
2.1 Detec:on and localiza:on of leakages by using generic quality, flow sensors, pressure sensors at mains level and detailed modelling
2.2 Detec:on and localiza:on of leakages by smart meters at household level and heterogeneous data sources
2.3. Detec:on and localiza:on of leakages by smart meters and determina:on of leak growing and leak repair effec:veness by self-‐learning algorithms
2.4 Detec:on and localiza:on of leakages by using AMR (automa:c meter readers) at household level, flow sensors, pressure sensors and algorithms
Energy op:miza:on
3.1 Energy op:miza:on by using district metered areas, pressure and other sensors and detailed modelling
3.2 Energy op:miza:on by pressure sensors, advanced modelling and self-‐learning algorithms
3.3 Energy op:miza:on by using intelligent distributed controllers
Customer interac:on
4.1 Detec:on of water related events by using social media and provision of informa:on to (vulnerable) customers
4.2 Influencing customer behaviour by supplying water usage informa:on trough web and mobile applica:ons
What’s really smart ?
• A water grid becomes really smart having sensors in minimal quantities at strategic points acquiring real-time data combined with available data* enabling a proactive network
• * (internal AND external)