Reynolds of Aquamatix at Smart Homes 2013 Cambridge

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Future city? CIR Smart Homes & Cleanpower 2013 www.hvm-uk.com

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http://www.hvm-uk.com/smarthomes http://www.hvm-uk.com/smartgrids

Transcript of Reynolds of Aquamatix at Smart Homes 2013 Cambridge

Page 1: Reynolds of Aquamatix at Smart Homes 2013 Cambridge

Future  city?  CIR Smart Homes & Cleanpower 2013 www.hvm-uk.com  

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$3.6bn  of  $100bn  -­‐  $400bn  IFC;  SWAN  2012  

–  but  s.ll  the  same  old  pipes!  

Ohio  Jul      2013  London  Feb      2013  

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Connec.ng  the  water  industry  to  an  Internet  of  Things?  

Integra.on  of  M2M  and  White  Space  to  create  smart  water  systems.  

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1854  –  the  1st  big  data  app  in  water  •  John  Snow,  grandfather  of  drinking  water  

•  Broad  street  cholera  outbreak  

•  Iden.fied  importance  of  primary  sanita.on  and  link  to  health.  

•  Led  to  Sewerage  system  and  wastewater  networks  

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New  technology  ||  New  possibili.es  

1851  

2013  34th  America’s  Cup  

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The  world  is  changing  rapidly...  

6  

SCADA  -­‐  Hierarchical  -­‐  Proprietary  -­‐  Bespoke  

Networks  -­‐  Interconnected  -­‐  Mul.-­‐vendor  -­‐  Standardised  

•  Distribu.on  networks  

•  Supply-­‐chains  •  Specialist  Service  

providers  •  Customers  

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Integra.ng  separate  data  resources  

SCADA  Real-­‐.me  opera.onal  control  and  automa.on  

Business  Systems  Enterprise  asset  management  

People  Unstructured  data  (knowledge  assets)  

Pinsent  Masons:  Wet  Wednesday,  26  June  2013   7  Copyright  ©  2013  Aquama.x  Limited.  All  

rights  reserved.  

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Standards  –  a  key  enabler  8  Global  Standards  7  Na.onal      Standards  6  Company      Policy  

5  Business  logic  Op.    Rules  

3  Syntax      Unicode  2  Network    TCP,  XMPP,  MQTT  1  Connec.on    IP/Modbus  

4  Seman.cs  Meaning  of  data  

NIST  SGiP  

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 Applica.ons  Framework  

Enterprise  IntegraBon  

Decision-­‐  support  systems  

S  Sensors  

A  

Actuator  Models  

CommunicaBon  Protocols  

Performance  Metrics,  KPIs  

VisualisaBon  

GIS  Customer  

Real-­‐Bme  control  

LEGACY  

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Powered  by  Standard      Apps  

SaaS    -­‐  SCADA  as  a  service  

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WaterWorX  IOT  Stack  

WaterWorX  NoSQL  Graph    DB  

WaterWorX  TOOLS  

SWIM  SemanBc  Interoperability  Model  

Apps  

WaterWorX  SaaS  model  

Copyright  ©  2013  Aquama.x  Limited.  All  rights  reserved.  

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Apps:    

Demand  curve  

 Energy  Tariff  

Pump  curve  

               System  Curve  

F  P  

F  P  

Pump  schedule  

L  

E  

E  

• Pumping  energy  management  

• 3%  of  UK  energy  demand  

• Lowest  cost/risk  scheduling  • Performance  benchmarking  

• Demand  response  

• Integrated                                                          tools  

12  Copyright  ©  2013  Aquama.x  Limited.  All  rights  reserved.  

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A   B  

C  

L  

D  

L   L  

L  

I   Interoperable  Variables  

L  Local  Variables  

Interoperability  

Condi.on-­‐based  Maintenance  

Hydraulic  Model   Flow  &  pressure  sensors  

Pump  controllers  

Copyright  ©  2013  Aquama.x  Limited.  All  rights  reserved.  

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Wireless  Communica.ons  networks  •  GSM  –  Requires  medium  power  – Designed  for  high  data-­‐rates  –  Too  costly  for  ubiquitous  sensors  –   High  frequency  =  poor  range/penetra.on  –  Congested  when  scaling  – Asynchrounous  

•  Whitespace  (Weightless)  – Ultra-­‐low  power,  5yr  bakery  –  Low-­‐frequency  470mHz  =  2-­‐5km  range  +  good  penetra.on  

–  Low-­‐cost,  1/20th  GSM  cost  –  Scalable  –  100,000  nodes  

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Why  IoT  in  water?  •  Improved  energy  efficiency  •  Efficient  deployment  of  labour  •  Predic.ve  asset  health  &  condi.on  monitoring  •  Extend  asset  life  and  func.on  •  Fewer  failures  =  higher  availability  (measurable)  •  Improved  service  standards  •  Water  quality  monitoring  –  safety  &  security