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Study of intelligent home environment system based on big data and improved k-means algorithm
Shaopeng Yu1, Chenyu Liu2, Mingmei Li2
1School of Information and Intelligent Engineering, Tianjin Renai College, Tianjin, China. globely@163.com.
Scientific Reports
|February 17, 2025
Summary
This study introduces an embedded system for smart home environmental control, enhancing real-time monitoring and adaptation. The system utilizes advanced algorithms for optimal comfort parameters, ensuring efficient operation and user satisfaction.
Area of Science:
- Embedded Systems
- Environmental Monitoring
- Artificial Intelligence
Background:
- Traditional home environment monitoring systems suffer from low acquisition frequency and poor real-time performance.
- Existing systems often lack adaptive capabilities and feedback mechanisms for optimal user comfort.
- The STC12C5A MCU-based embedded operating system addresses these limitations in smart home technology.
Purpose of the Study:
- To develop an embedded system for real-time monitoring and control of the home environment.
- To improve system performance by addressing issues of low acquisition frequency, poor real-time response, and lack of adaptation.
- To achieve efficient collaboration and stable operation between hardware and software components.
Main Methods:
- Utilized an embedded operating system based on the STC12C5A MCU.
- Implemented a Kalman filter and an improved k-means algorithm for big data analysis.
- Employed a BP neural network for processing environmental data.
- Designed an independent monitoring mechanism and feedback adjustment system.
Main Results:
- The system demonstrated high acquisition accuracy and fast response speeds.
- Achieved good reliability performance, indicating robust operation.
- Showcased effective real-time and adaptive capabilities for environmental control.
- Successfully identified optimal living environment parameters for user comfort.
Conclusions:
- The developed embedded system effectively enhances real-time monitoring and control of home environments.
- The integration of Kalman filter, k-means, and BP neural network provides accurate and adaptive environmental parameter optimization.
- The system's independent monitoring and feedback mechanisms ensure stable and efficient operation, leading to improved user comfort and satisfaction.
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