UTSpeaks: Our fragile cities (part two) Professor Stuart White – 30 November 2011
Jan 12, 2015
UTSpeaks: Our fragile cities (part two)Professor Stuart White – 30 November 2011
UTSpeaks: Our Fragile Cities THINK.CHANGE.DO
INSTITUTE FOR SUSTAINABLE FUTURES
Stuart WhiteInstitute for Sustainable FuturesWednesday 30th November 2011
Introduction
Fragile Cities
Creating Resilient Cities
Healthy communities, capable of ‘bouncing back’ from adverse situations by actively influencing and preparing
for economic, social and environmental change.
Source: stakeholderforum.org
Economy
Ecology
Society
Environment
Society
Economy
QUALITY RESEARCH FOR GOVERNMENT, INDUSTRY AND COMMUNITY CLIENTS
Research areas> Cities and buildings
> Corporate sustainability
> Energy and climate change
> International development
> Local government
> Natural resources and ecosystems
> Resource futures
> Social dimensions of sustainability
> Transport
> Water and sanitation
Approaches• Community participation and engagement
• Economic assessment and analysis
• Futures studies
• Learning, communications and training
• Modelling and analysis
• Monitoring and evaluation
• Organisational change
• Policy analysis and development
• Tools and frameworks
• Transdisciplinary research
FOSTERING PUBLIC DEBATE
FOSTERING PUBLIC DEBATE
http://phosphorusfutures.net/
http://wwviews.org.au/
http://www.isf.uts.edu.au
http://igrid.net.au/
FOSTERING PUBLIC DEBATE
ISF REPORTS
ISF REPORTS
Energy
http://webarchive.nationalarchives.gov.uk/+/http://www.hm-treasury.gov.uk/media/0/3/Slides_for_Launch.pdf
• Objective – move towards low emission future• 3 year project - $8m• 5 universities and CSIRO• Multi-disciplinary• Use of Intelligent Grid to enable distributed energy
Intelligent Grid
Peak Load Management
What is Distributed Energy?
Energy Efficiency
Distributed Generation
Cogeneration
Interruptible loads
Efficient motors & chillers
Efficient Lighting
Efficient showerheads
Efficiency Retrofits
Power factor correction
Gas Chillers
Ice Storage
Electric to Gas Hot Water
Standby Generation
Time of Use tariiffs
Biomass Generation
Small Gas Generation
Solar Photovoltaics
Behaviour change
Battery Storage / EVs
Network Investment: >$45 Billion by 2015- Bigger (and sooner) than National Broadband Network
-
500
1,000
1,500
2,000
2,500
3,000
3,500
4,000
2006 2007 2008 2009 2010 2011 2012 2013 2014 2015
$mNetwork Capital Expenditure (>$9b p.a.)
NSW
Qld (draft)
Vic (prop.)
WA
SA (draft)
2009
Description and Cost Of Distributed Energy(D-CODE Model)
Description and Cost Of Distributed Energy(D-CODE Model)
> Plug-in hybrid electric vehicles> Grid-to-Vehicle (G2V) and Vehicle-to-
Grid (V2G)> Charging methods are important> Storage can support the grid
Electric Vehicles
Water
Focus on building infrastructure
Focus on analysis & management
Focus on reducingvulnerability
Focus on increasing resilience
Building a climate proof urban water system
Fostering distributed
urban water systems
Adaptive management
of climate uncertainty
Managing the risks of climate change
Four generations of infrastructure
Level of water/ energy/ materials use per capita
Level of development
Level of water/ energy/ materials use per capita
Waste
Food
Community GardensGreen Roof, Vancouver
Transport
Transport is as much a health and social issue as an environmental issue, or a technical issue
The solutions to our transport crisis are within our grasp, and within our financial means
Integrated Resource Planning for Transport
• Define the service needs – for example, reduced traffic (vehicle kilometres travelled), reduced greenhouse gas emissions
• Define the options to meet the needs (rail, bus, service improvement, car share, road pricing, parking pricing, active transport – walking and cycling, education)
• Determine the lowest cost options to meet the needs
• Include all externalities (pollution, health, accidents, urban amenity)
Community
Three ideals for effective community engagement
The path less traveled
Further information
http://www.isf.uts.edu.au