Showing results for: [ Built Environment and Design ]
Lidar point data, images, digital elevation models and related data collected for the Norfolk Island Water Resource Assessment project.
Norfolk Island Water Resource Assessment - Lidar data acquisition - Published 17 Feb 2020
Land surface temperature (LST) maps, and urban heat island (UHI) maps, for Australian capital cities, calculated over summer 2018-19.
Legacy data - Land surface temperature and urban heat island estimates for Australian urban centres - Published 25 Sep 2019
Blower door testing results carried out on 129 of dwellings. In addition, an inspection of the house was undertaken to assess the quality of the installation of the insulation. Results of these inspec... moretions are included. General house characteristics are also recorded.less
DOI: House Energy Efficiency Insp - - Published 04 Apr 2019
Land surface temperature (LST) maps, and urban heat island (UHI) maps, for Australian urban centres, calculated over summer 2015/16. Generated as part of an investigation into changes in urban greensp... moreace.less
Where should all the trees go? Investigating the impact of tree canopy cover on socio-economic status and wellbeing in LGA’s - Calculation of land surface temperature and urban heat island - Published 16 Oct 2017
Contains a model for estimating the cost-effectiveness of rainwater tanks in South East Queensland (SEQ) covering the regions of Brisbane, Moreton Bay, Sunshine Coast, Ipswich and the Gold Coast. Thi... mores model runs in the @RISK software package (an application for Microsoft Excel), which uses Monte Carlo simulation to generate a probability distribution of the cost-effectiveness and to undertake sensitivity analysis.
The input variables draw upon recent research in the Urban Water Security Research Alliance which provided data about variables of cost and yield for rainwater tanks in the region. Input variables include:
Capital costs (rainwater tank, the pump, laying of a concrete slab for the tank to rest upon as well as plumbing and installation of both the tank and the pump);
Annual costs (operating costs such as energy use for the pump, maintenance costs such as desludging as well as replacement cycles for pumps and tanks over the period of analysis);
Yield variables (household demand and end use, connected roof area, rainfall pattern as well as the effect of up-scaling from a single rainwater tank to consider the yield of a large number of tanks).
For full details of the model, and references for the data sources used, please refer to: Hall, M. R. (2013). Review of Rainwater Tank Cost-effectiveness in South East Queensland. Urban Water Security Research Alliance Technical Report No. 105.less
1006.2 SEQ Life Cycle Analysis - Cost-effectiveness analysis - Published 01 Aug 2016
The Water and Energy Supply and Consumption (WESC) data standard has been developed by CSIRO to support a common represention of data for supply and consumption of water and energy and its delivery vi... morea standardised OGC services.
The information model allows for data to be delivered in a consistent format and is the basis for the exchange format (XML schemas) for encoding datasets.less
AURIN Lens 6/2 - WESC Information modelling - Published 31 May 2016
Vocabularies for describing properties relating to water and energy supply and consumption expressed using Simple Knowledge Organisation Language (SKOS) and RDF. This set of vocabularies include land ... moreuse definitions, commodities, notions of supply and consumption for water and energy (gas and electricity). The SKOS/RDF representation of these vocabularies have been produced by CSIRO and is currently managed and updated by CSIRO. Content has been taken from the urban research group within CSIRO as well as the Australian Valuation Property Classification Codes work (http://www.dtpli.vic.gov.au/property-and-land-titles/valuation/council-valuations/revaluation-2014). This set of vocabulary definitions form supporting components for the WESC data standard (http://wescml.org).less
AURIN Lens 6/2 - WESC Vocabularies - Published 27 Apr 2016
Polygon shapefile of catchment boundaries for stormwater harvesting schemes in Salisbury, South Australia
1006.12 MARSUO Task 1 Public Health - Catchment hazard identification - Published 03 Oct 2014
This collection contains a US EPA Stormwater Management Model (SWMM), calibrated and validated for ten catchments with varying degrees of urbanisation in south east Queensland (SEQ). The catchments we... morere calibrated against hourly streamflow data from 2009 to 2012. The catchments modelled are:
Tingalpa Creek at Sheldon;
Upper Yaun Creek at Coomera;
Scrubby Creek at Karawatha Forest;
Blunder Creek (Daintree Crescent) at Forest Lake;
Stable Swamp Creek at Sunnybank;
Oxley Creek at Heathwood;
Pimpama River at Kingsholme;
Blunder Creek at Carolina Parade;
Sheepstation Creek at Parkinson;
Blunder Creek at Durack.less
1006.2 SEQ Stormwater/MAR Feasibility - Catchment modelling - Published 25 Mar 2013
Hydrology data collected over south-east Queensland between 2009 and 2012 as part of the Stormwater Harvesting and Eco-Hydrology project of the Urban Water Security Research Alliance. Contains: rainf... moreall; river level and flow; water quality (dissolved oxygen, electroconductivity, pH, turbidity, water temperature). Not all measurements cover the entire date range.
Collection sites include; Blunder Creek, Forest Lake and Durack; Sheepstation Creek, Parkinson; Stable Swamp Creek, Sunnybank and Rocklea; Oxley Creek, Heathwood; Tingalpa Creek, Sheldon; Scrubby Creek, Karawatha Forest; Pimpana River, Kingsholme; Yaun Creek, Upper Coomera. A KML file is included with further information regarding the sites.less
1006.2 SEQ Stormwater/MAR Feasibility - Hydrology and streamflow - Published 10 Dec 2012