Efficiency
; Land use
; Metabolism
; Physiology
; Runoff
; Storms
; Urban growth
; Wastewater reclamation
; Stormwaters
; System boundary
; Urban metabolisms
; Wastewater recycling
; Water efficiency
; Water mass balances
; Water-sensitive cities
; Water recycling
; rain
; storm water
; water
; data assimilation
; efficiency measurement
; land use
; mass balance
; performance assessment
; recycling
; runoff
; stormwater
; urban area
; urban development
; urban planning
; wastewater treatment
; Article
; Australia
; city planning
; evapotranspiration
; priority journal
; runoff
; urban area
; waste water recycling
; water conservation
; water flow
; water management
; water metabolism
; water supply
; city
; environmental protection
; hydrology
; procedures
; recycling
; urbanization
; waste water
; water cycle
; Australia
; Melbourne
; Perth [Western Australia]
; Queensland
; Victoria [Australia]
; Western Australia
; Australia
; Cities
; Conservation of Natural Resources
; Hydrology
; Rain
; Recycling
; Urbanization
; Waste Water
; Water Cycle
; Water Supply
School of Chemical Engineering, University of Queensland, St Lucia, Brisbane, Queensland 4072, Australia; Cities Research Institute, Griffith University, Nathan, Brisbane, Queensland 4111, Australia; Alluvium, Fortitude Valley, Brisbane, Queensland 4006, Australia; Cooperative Research Centre for Water Sensitive Cities, Monash University, Victoria, 3800, Australia; Faculty of Arts and Social Sciences, The University of Waikato3240, New Zealand
Recommended Citation:
Renouf M.A.,Kenway S.J.,Lam K.L.,et al. Understanding urban water performance at the city-region scale using an urban water metabolism evaluation framework[J]. Water Research,2018-01-01,137