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An Intelligent and Privacy-Preserving Digital Twin Model for Aging-in-Place

Yongjie Wang, Jonathan Cyril Leung, Ming Chen, Zhiwei Zeng, Benny Toh Hsiang Tan, Yang Qiu, Zhiqi Shen

TL;DR

An unobtrusive sensor system designed for installation in older adults' homes that constructs a digital twin, a virtual representation of events and activities that occurred in the home, to enhance health outcomes could revolutionize elder care by enabling personalized interventions.

Abstract

The population of older adults is steadily increasing, with a strong preference for aging-in-place rather than moving to care facilities. Consequently, supporting this growing demographic has become a significant global challenge. However, facilitating successful aging-in-place is challenging, requiring consideration of multiple factors such as data privacy, health status monitoring, and living environments to improve health outcomes. In this paper, we propose an unobtrusive sensor system designed for installation in older adults' homes. Using data from the sensors, our system constructs a digital twin, a virtual representation of events and activities that occurred in the home. The system uses neural network models and decision rules to capture residents' activities and living environments. This digital twin enables continuous health monitoring by providing actionable insights into residents' well-being. Our system is designed to be low-cost and privacy-preserving, with the aim of providing green and safe monitoring for the health of older adults. We have successfully deployed our system in two homes over a time period of two months, and our findings demonstrate the feasibility and effectiveness of digital twin technology in supporting independent living for older adults. This study highlights that our system could revolutionize elder care by enabling personalized interventions, such as lifestyle adjustments, medical treatments, or modifications to the residential environment, to enhance health outcomes.

An Intelligent and Privacy-Preserving Digital Twin Model for Aging-in-Place

TL;DR

An unobtrusive sensor system designed for installation in older adults' homes that constructs a digital twin, a virtual representation of events and activities that occurred in the home, to enhance health outcomes could revolutionize elder care by enabling personalized interventions.

Abstract

The population of older adults is steadily increasing, with a strong preference for aging-in-place rather than moving to care facilities. Consequently, supporting this growing demographic has become a significant global challenge. However, facilitating successful aging-in-place is challenging, requiring consideration of multiple factors such as data privacy, health status monitoring, and living environments to improve health outcomes. In this paper, we propose an unobtrusive sensor system designed for installation in older adults' homes. Using data from the sensors, our system constructs a digital twin, a virtual representation of events and activities that occurred in the home. The system uses neural network models and decision rules to capture residents' activities and living environments. This digital twin enables continuous health monitoring by providing actionable insights into residents' well-being. Our system is designed to be low-cost and privacy-preserving, with the aim of providing green and safe monitoring for the health of older adults. We have successfully deployed our system in two homes over a time period of two months, and our findings demonstrate the feasibility and effectiveness of digital twin technology in supporting independent living for older adults. This study highlights that our system could revolutionize elder care by enabling personalized interventions, such as lifestyle adjustments, medical treatments, or modifications to the residential environment, to enhance health outcomes.

Paper Structure

This paper contains 19 sections, 7 figures.

Figures (7)

  • Figure 1: The design of sensor modules.
  • Figure 2: The system architecture for data collection.
  • Figure 3: The layout of sensor modules for a 1-bedroom flat. The location of sensor modules can be adjusted based on the flat's layout and room size.
  • Figure 4: The CNN model architecture used for posture recognition. Batch normalization, ReLU activation, max pooling, and dropout operation are adopted after each convolutional layer.
  • Figure 5: The screenshot of our developed mobile application.
  • ...and 2 more figures