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Evaluation of Machine Leaning Algorithms for Streets Traffic Prediction: A Smart Home Use Case
Xinyao Feng1, Ehsan Ahvar2, Gyu Myoung Lee3
1Learning, Data and Robotics Laboratory, ESIEA Graduate Engineering School, 75005 Paris, France.
Sensors (Basel, Switzerland)
|February 28, 2023
Summary
This study optimizes smart home energy use by predicting driver arrival times using machine learning. This allows heating and cooling systems to activate just before residents return, saving energy without sacrificing comfort.
Area of Science:
- Computer Science
- Artificial Intelligence
- Energy Systems
Background:
- Smart homes aim to reduce energy consumption.
- Current methods often focus on in-home behavior prediction.
- Optimizing heating, cooling, and hot water systems is key to energy efficiency.
Purpose of the Study:
- To define a smart home use case for automatic temperature and hot water adjustment.
- To reduce energy consumption in smart homes by optimizing climate control systems.
- To identify the most effective machine learning and neural network (MLNN) algorithms for predicting driver arrival times.
Main Methods:
- A machine learning-based street traffic prediction system is employed.
- Focuses on predicting resident arrival times outside the home.
- Evaluates various MLNN algorithms using Uber's San Francisco dataset and imputation for missing values.
Main Results:
- The developed system accurately predicts driver arrival times.
- Identifies optimal MLNN algorithms for traffic prediction.
- The system can also function as a route recommender.
Conclusions:
- Predicting external resident behavior, like arrival time, is effective for smart home energy reduction.
- Machine learning algorithms can significantly enhance smart home energy management.
- The traffic prediction system offers dual benefits of energy savings and route optimization.
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