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Quantum neural network-based approach for optimizing road network selection

Haohua Zheng, Heying Li, Jianchen Zhang, Guangxia Wang, Guo Jianzhong, Jiayao Wang

Published Feb 27, 2025• 2 citations
Publisher

Abstract

With advancements in neural networks, intelligent road network selection methods have become a key research area. However, the expanding scale of road networks has led to concerns regarding model training efficiency and resource consumption. Quantum neural networks, leveraging their unique properties of superposition and entanglement, present remarkable advantages for handling large-scale, complex, and nonlinear data. We propose a novel framework for road network selection based on quantum neural networks. We design a comprehensive feature set that accounts for various factors, including terrain, settlements, and surrounding density. Our study delves into the impact of feature encoding methods and circuit structures on the performance of quantum neural networks in road selection. It evaluates the proposed model’s performance across different scales, regions, and data volumes. The results demonstrate the feasibility and effectiveness of our approach when compared to existing classical neural network models, offering a promising solution for large-scale road network selection.

DOI
10.1080/10106049.2025.2471108

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With advancements in neural networks, intelligent road network selection methods have become a key research area. However, the expanding scale of road networks has led to concerns regarding model training efficiency and resource consumption. Quantum neural networks, leveraging their unique properties of superposition and entanglement, present remarkable advantages for handling large-scale, complex, and nonlinear data. We propose a novel framework for road network selection based on quantum neural networks. We design a comprehensive feature set that accounts for various factors, including terrain, settlements, and surrounding density. Our study delves into the impact of feature encoding methods and circuit structures on the performance of quantum neural networks in road selection. It evaluates the proposed model’s performance across different scales, regions, and data volumes. The results demonstrate the feasibility and effectiveness of our approach when compared to existing classical neural network models, offering a promising solution for large-scale road network selection.
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Quantum Adaptive Neural Network Model represents a novel approach to neural network architecture leveraging quantum phenomena to enhance expressiveness and computational efficiency. Traditional neural networks often struggle with limitations in handling complex data and achieving optimal performance. This research proposes a quantum-enhanced neural network model, employing quantum machine learning techniques to overcome these limitations. The core mechanism centers around mimicking neural network behavior using quantum simulations, with subsequent optimization driven by quantum algorithms. This work aims to demonstrate a significant improvement in model accuracy and potentially accelerate training times, offering a compelling advancement in the field of artificial intelligence. We explore the potential of quantum-enhanced neural networks to address challenges inherent in large-scale data processing and complex pattern recognition.
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