This Masters project has involved detailed thermal analysis of a unique
renewable energies building. A TRNSYS model of this building has been
developed and validated by real measurements and has shown to be capable of accurately predicting room temperatures and total heat gain from a solar-thermal roofing system. Supporting experiments were conducted experimentally and numerically. An experimental solar thermal testing unit constructed for the purpose of validating the solar-thermal roof concept. This experimental apparatus has been used to evaluate the effect of various operating procedures on the total heat gain from the system under a range of meteorological conditions. The validated thermal building model is used to conduct long-term simulations to provide a measure of year-round thermal performance of the building and estimated gains from renewable energy systems. Similar techniques are used to assist in the design and optimisation of a new transportable sustainable building concept in association with StoneWood Homes. It was found that a 4.5kW BIVP/T system could
supply the small building with 100% of the yearly electrical energy and space heating requirements.
Identifer | oai:union.ndltd.org:canterbury.ac.nz/oai:ir.canterbury.ac.nz:10092/11079 |
Date | January 2015 |
Creators | McDowell, Alastair Kieran Joel |
Publisher | University of Canterbury. Electrical & Computer Engineering |
Source Sets | University of Canterbury |
Language | English |
Detected Language | English |
Type | Electronic thesis or dissertation, Text |
Rights | Copyright Alastair Kieran Joel McDowell, http://library.canterbury.ac.nz/thesis/etheses_copyright.shtml |
Relation | NZCU |
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