Guidance on Implementing Renewable Energy Systems in Australian Homes
The purpose of this paper is to examine several real house cases as renewable energy resources are installed. It is an empirical study, based on first principles applied to measured data. In the first case presented, a PV solar system has been installed and a hybrid vehicle purchased. Battery storag...
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doaj-370ee4293e304be3be9411351acc0a472021-05-31T23:20:09ZengMDPI AGEnergies1996-10732021-05-01142666266610.3390/en14092666Guidance on Implementing Renewable Energy Systems in Australian HomesPeter Horan0Mark B. Luther1Hong Xian Li2School of Architecture and Built Environment, Deakin University, Geelong, VIC 3220, AustraliaSchool of Architecture and Built Environment, Deakin University, Geelong, VIC 3220, AustraliaSchool of Architecture and Built Environment, Deakin University, Geelong, VIC 3220, AustraliaThe purpose of this paper is to examine several real house cases as renewable energy resources are installed. It is an empirical study, based on first principles applied to measured data. In the first case presented, a PV solar system has been installed and a hybrid vehicle purchased. Battery storage is being considered. Smart Meter data (provided in Victoria, Australia) measures the electrical energy flowing to and from the grid in each half hour. Missing is the story about what the house is generating and what its energy requirements are through each half hour interval. We apply actual (on site) solar PV data to this study, resolving the unknown energy flows. Analysing energy flow has revealed that there are five fundamental quantities which determine performance, namely energy load, energy import, energy harvesting, energy export and energy storage. As a function of PV size these quantities depend on four parameters, easily derivable from the Smart Meter data, namely the house load, the night-time house load (no PV generation), the rating of the solar PV system and the tariffs charged. This reveals most of the information for providing advice on PV array size and whether to install a battery. An important discovery is that a battery, no matter what size, needs a PV system large enough to charge it during the winter months. The analysis is extended to two more houses located within 5 km for which detailed solar data is unavailable.https://www.mdpi.com/1996-1073/14/9/2666solar PVbatterycostsCO<sub>2</sub> emissionselectric vehicle |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Peter Horan Mark B. Luther Hong Xian Li |
spellingShingle |
Peter Horan Mark B. Luther Hong Xian Li Guidance on Implementing Renewable Energy Systems in Australian Homes Energies solar PV battery costs CO<sub>2</sub> emissions electric vehicle |
author_facet |
Peter Horan Mark B. Luther Hong Xian Li |
author_sort |
Peter Horan |
title |
Guidance on Implementing Renewable Energy Systems in Australian Homes |
title_short |
Guidance on Implementing Renewable Energy Systems in Australian Homes |
title_full |
Guidance on Implementing Renewable Energy Systems in Australian Homes |
title_fullStr |
Guidance on Implementing Renewable Energy Systems in Australian Homes |
title_full_unstemmed |
Guidance on Implementing Renewable Energy Systems in Australian Homes |
title_sort |
guidance on implementing renewable energy systems in australian homes |
publisher |
MDPI AG |
series |
Energies |
issn |
1996-1073 |
publishDate |
2021-05-01 |
description |
The purpose of this paper is to examine several real house cases as renewable energy resources are installed. It is an empirical study, based on first principles applied to measured data. In the first case presented, a PV solar system has been installed and a hybrid vehicle purchased. Battery storage is being considered. Smart Meter data (provided in Victoria, Australia) measures the electrical energy flowing to and from the grid in each half hour. Missing is the story about what the house is generating and what its energy requirements are through each half hour interval. We apply actual (on site) solar PV data to this study, resolving the unknown energy flows. Analysing energy flow has revealed that there are five fundamental quantities which determine performance, namely energy load, energy import, energy harvesting, energy export and energy storage. As a function of PV size these quantities depend on four parameters, easily derivable from the Smart Meter data, namely the house load, the night-time house load (no PV generation), the rating of the solar PV system and the tariffs charged. This reveals most of the information for providing advice on PV array size and whether to install a battery. An important discovery is that a battery, no matter what size, needs a PV system large enough to charge it during the winter months. The analysis is extended to two more houses located within 5 km for which detailed solar data is unavailable. |
topic |
solar PV battery costs CO<sub>2</sub> emissions electric vehicle |
url |
https://www.mdpi.com/1996-1073/14/9/2666 |
work_keys_str_mv |
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