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Transferable Belief Model on Quantum Circuits

Created by
  • Haebom

Author

Qianli Zhou, Hao Luo, Lipeng Pan, Yong Deng, Eloi Bosse

Outline

This paper implements the Transferable Belief Model (TBM) on quantum circuits, demonstrating that it offers a more concise and efficient alternative to Bayesian approaches within the framework of quantum computing. TBM, a semantic interpretation of Dempster-Shafer theory that enables reasoning and decision-making in uncertain and incomplete environments, offers a unique semantics for handling uncertain testimony. Despite the inherent computational complexity, we propose a novel belief transfer approach that leverages the unique characteristics of quantum computing, offering a new perspective on the fundamental information representation of quantum AI models. This suggests that belief functions are more appropriate than Bayesian approaches for handling uncertainty in quantum circuits.

Takeaways, Limitations

Takeaways:
We propose that TBM is a more efficient and concise way to handle uncertainty than Bayesian approaches in a quantum computing environment.
We propose several novel belief transfer approaches that leverage the properties of quantum computing.
This paper provides a new perspective on the fundamental information representation of quantum AI models, suggesting that belief functions are better suited to handling uncertainty.
Limitations:
Further experimental validation of the practical efficiency and performance of the novel belief transfer approach presented in this paper is needed.
Further analysis is needed to determine whether the computational complexity problem of TBM is fully resolved in a quantum computing environment.
Further research is needed to determine the generality of the proposed approach and its applicability to various quantum algorithms and applications.
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