3260 papers • 126 benchmarks • 313 datasets
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A deep neural network that combines a regression subnetwork with a classification subnetwork for solving the NILM problem is proposed and it is shown that modeling attention translates into the network’s ability to correctly detect the turning on or off an appliance and to locate signal sections with high power consumption.
Two transfer learning schemes are proposed, i.e., appliance transfer learning (ATL) and cross-domain transferLearning (CTL), and the conclusion is that the seq2point learning is transferable.
This work presents a causal 1-D convolutional neural network inspired by WaveNet for NILM on low-frequency data and demonstrates that using all four components available in a popular NilM dataset achieves faster convergence and higher performance than state-of-the-art results for the same dataset.
This paper discusses several metrics to assess the generalisation ability of NILM algorithms and demonstrates how these metrics can be utilised to evaluate NilM algorithms by means of two case studies.
Comparability in NILM is drawn attention with a focus on highlighting the considerable differences amongst common energy datasets used to test the performance of algorithms, and a close view on evaluation processes is given.
This research investigates in-depth multi-label NILM systems and suggests a novel framework which enables a cost-effective solution and can be deployed on an embedded device, and thus, privacy can be preserved.
An energy disaggregation approach based on the variational autoencoders framework that accurately generates more complex load profiles, thus improving the power signal reconstruction of multi-state appliances and improves the generalization capabilities of the model across different houses is proposed.
The proposed approach, called ELECTRIcity, utilizes transformer layers to accurately estimate the power signal of domestic appliances by relying entirely on attention mechanisms to extract global dependencies between the aggregate and the domestic appliance signals.
COLD, a transformer-based model specifically designed to address the challenges of disaggregating high-frequency data with multiple simultaneously working devices is proposed, achieving 95% load identification accuracy and 82% disaggregation performance on the test data.
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