Abstract
Manufacturing companies are subjected to peak-load-dependent energy prices/tariffs, and are faced with high costs for the peak consumption utilised. Complex interactions between HVAC control management, manufacturing schedules, required facility conditions and thermal energy flows in and around the building are difficult to analyse, thus little knowledge exists regarding the interactions between machine, building and HVAC level thermal energy flows. This study utilised simulation for the analysis of thermal energy flows in and around a manufacturing facility, with machine learning adopted for the prediction of spikes in energy consumption based upon weather conditions, occupancy and manufacturing schedules, thus identifying potential energy inefficiencies.
The asynchronous optimisation of manufacturing and HVAC schedules allowed for a 15.1% reduction in peak energy demand whilst maintaining levels of manufacturing productivity, and the provision of a more energy efficient management methodology within a manufacturing facility. The resulting model was able to predict energy consumption with an accuracy of 96.5%, and accurately identify patterns in energy profiles.
Such a methodology holds the potential to allow for peak consumption reduction and can provide companies with an incentive to monitor and reduce their energy consumption patterns.
The asynchronous optimisation of manufacturing and HVAC schedules allowed for a 15.1% reduction in peak energy demand whilst maintaining levels of manufacturing productivity, and the provision of a more energy efficient management methodology within a manufacturing facility. The resulting model was able to predict energy consumption with an accuracy of 96.5%, and accurately identify patterns in energy profiles.
Such a methodology holds the potential to allow for peak consumption reduction and can provide companies with an incentive to monitor and reduce their energy consumption patterns.
Original language | English |
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Article number | 120436 |
Number of pages | 9 |
Journal | Energy |
Volume | 227 |
Early online date | 5 Apr 2021 |
DOIs | |
Publication status | Published - 15 Jul 2021 |
Keywords
- energy modelling
- manufacturing energy analysis
- energy prediction
- peak shaving