Related Experiment Videos
Decision tree and reinforcement learning for contextual electricity consumption forecasting in buildings
Daniel Ramos1, Pedro Faria1, Pedro Campos2
1GECAD - Research Group on Intelligent Engineering and Computing for Advanced Innovation and Development, Polytechnic of Porto, Portugal.
Abstract:
A promising opportunity to optimize energy control and storage is the use of prediction. Several forecasting algorithms from the artificial intelligence area like the Neural Networks or from the machine learning field as K-Nearest Neighbors and XGBoost are recommended for prediction tasks involving the estimation of energy patterns ahead of time. Additionally, it is recommended to apply wisely the forecasting algorithm relying on unique contexts that define different target periods. The method in this paper targets the prediction of consumptions of a building scheduled for all periods of five minutes of a week:•with the support of K-Nearest Neighbors and Neural Networks•a decision tree identifies unique contexts according to rules that rely on all the patterns with energy and sensors data of a building for periods of five minutes•a Multiarmed Bandit algorithm gifted with reinforcement learning capabilities selects the algorithm more convenient for prediction tasks.The results and conclusions indicate that identification of contexts through decision rules results in higher confidence bounds while evaluating the most effective forecasting algorithm. The SMAPE forecasting errors obtained in the third context were 3.54% with KNN and 4.79% with ANN. The obtained SMAPE forecasting errors in the fourth context were 4.91% with KNN and 4.54% with ANN.
Related Concept Videos
Energy and Power Signals
Electrical Energy
Energy Budgets and Reproductive Strategies
Electrical Power
Reinforcement Schedules
Once a behavior is learned,...
Heating and Cooling Curves
For instance, the addition of heat raises the temperature of a solid; the amount of heat absorbed depends on the heat capacity of the solid (q = mcsolidΔT). According to thermochemistry, the relation between the amount of heat absorbed or released by a substance, q, and its...