Constructing and Evaluating Digital Twins: An Intelligent Framework for DT Development
This work addresses the problem of enhancing DT accuracy and utility for researchers and industries needing reliable simulations, though it appears incremental by building on existing DT concepts with a novel methodology.
The paper tackles the challenge of constructing accurate Digital Twins (DTs) for simulating complex systems by introducing an intelligent framework that integrates deep learning-based policy gradient techniques to tune parameters, resulting in DTs that accurately mirror physical reality and provide a reliable platform for algorithm evaluation.
The development of Digital Twins (DTs) represents a transformative advance for simulating and optimizing complex systems in a controlled digital space. Despite their potential, the challenge of constructing DTs that accurately replicate and predict the dynamics of real-world systems remains substantial. This paper introduces an intelligent framework for the construction and evaluation of DTs, specifically designed to enhance the accuracy and utility of DTs in testing algorithmic performance. We propose a novel construction methodology that integrates deep learning-based policy gradient techniques to dynamically tune the DT parameters, ensuring high fidelity in the digital replication of physical systems. Moreover, the Mean STate Error (MSTE) is proposed as a robust metric for evaluating the performance of algorithms within these digital space. The efficacy of our framework is demonstrated through extensive simulations that show our DT not only accurately mirrors the physical reality but also provides a reliable platform for algorithm evaluation. This work lays a foundation for future research into DT technologies, highlighting pathways for both theoretical enhancements and practical implementations in various industries.