Energy Monitoring for Renewable Energy System Using Machine
Learning Algorithms

Muthu   Eshwaran   Ramachandran; Ramya   Ranjit   Singh; Gurukarthik   Babu   Balachandran; Devie   Paramasivam   Mohan; Prince   Winston   David; Meenakshi      Anantharaman; Nirmala      Ganesan

doi:10.2174/0123520965258879231011182850

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Abstract

Background: Consumption of electricity always varies based on demand. The load cluster pattern aims at categorizing periodical changes over a specific time. Predicting the electric load was the initial goal of this study. Additionally, the outcomes of the load prediction were utilized as data for categorizing electrical loads using a descriptive-analytical method.

Objective: The study has dealt with a matching of load-side electric demand with the electric supply. To ensure dependable power-generating stability, it is vital to anticipate and categorize loads. Thus, the research presented here has focused on electrical load forecasting and classification.

Methods: Alternative algorithms, including Naive Bayes, decision tree, and support vector machine classifier, were employed to address the cluster pattern. The data used for this research presentation was collected from the D Block of the Kamaraj College of Engineering and Technology, K. Vellakulam, India, every 15 minutes. Multiple unsuitable loaded circumstances were ignored during the pre-processing of the dataset. Additionally, other algorithms, like Naive Bayes, decision tree, and support vector machine, were used to categorize the raw data. The processing of data was done by a feature selection approach.

Results: The performance was predicted by comparing the entire machine learning algorithms. Out of the machine learning techniques, an accuracy of 4.2% for Academic Block 4, a precision of 33% for Boys Hostel, a recall score of 4.7% for Academic Block 4, and an F1 score of 5.3% for Academic Block 4, were obtained.

Conclusion: In the study, the decision tree algorithm has shown promising performance than the other machine learning techniques used.

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DOI https://dx.doi.org/10.2174/0123520965258879231011182850	Print ISSN 2352-0965
Publisher Name Bentham Science Publisher	Online ISSN 2352-0973

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