15 Oct 2015

The residential sector represents some 30% of global electricity consumption but the underlying composition and drivers are still only poorly understood. The drivers are many, varied, and complex, including local climate, household demographics, household behaviour, building stock and the type and number of appliances.

Journal article

The CRC for Low Carbon Living produced a series of snapshots at the end of 2015 highlighting its achievements in enabling a carbon built environment sector, specifically in the areas of:Once in a generation capacity buildingTransforming industry Products and systems for future buildings and citiesEvidence base for policy, planning and design innovations

Other text
18 Oct 2016

In the context of reducing household greenhouse gas emissions, in-home energy feedback displays have been trialled as a mechanism to assist households to monitor and change energyuse behaviour. As we move towards technologyrich zero-energy homes, the challenge of managing energy use and electricity generation systems will increase and a new role for in-home feedback displays may emerge.

Journal article
22 Nov 2016

Purpose / Context - Many developed countries experience late afternoon or evening electricity peaks. In summer peak demand regions, these peaks are most likely the results of residential air conditioning demand.

Conference paper
14 Jan 2016

In the future there will be an increased uptake of solar and battery systems in the residential sector, driven by falling battery costs and increasing electricity tariffs. The increased uptake means we need new methods to forecast electricity demand when considering these technologies.
This paper has achieved this goal using a two stage model.

Conference paper
23 Nov 2018

Research activities previously performed on shorter simulation timeframe had shown that building-integrated photovoltaic/thermal double-skin façade (BIPV/T-DSF) could maintain a comfort temperature within a building, by adopting a fan-assisted ventilated air cavity in summer, and a non-ventilated air cavity during winter in order to reduce overheating phenomena in the air cavity and consequentl

Conference paper
05 Aug 2016

The energy benefits of increased code compliance have generally been viewed through the lens of energy savings – kWh and therms. Peak demand reduction as an additional benefit of increased code compliance is a comparatively unexplored area – despite a general acknowledgement that there are electric demand savings (kW) associated with increased energy code compliance.

Conference paper
06 Jan 2018

This paper explores potential future implications of climate change on building energy expenditures around the globe. Increasing expenditures result from increased electricity use for cooling, and are offset to varying degrees, depending on the region, by decreased energy consumption for heating.

Journal article
01 Oct 2005

Ensuring that distribution capacity is available to meet South Australia’s few days of extreme peak electricity demand each year, plus the rate at which that peak demand is continuing to grow, leads to a necessity for on-going and increased investment in the State’s distribution network.

Strategy
28 Jun 2019

Highlights
Energy demand focused conceptual modelling framework to tackle the Energy Revolution.
Evolution of building-user behaviour is given specific attention in scenario planning.
Residential heat demand is evaluated using a hybrid dynamic simulation/stock model.
Electricity demand is synthesised using a statistical Hidden-Markov Model.

Journal article