Hybrid quantum neural networks for computer-aided sex diagnosis in forensic and physical anthropology

Q1 Medicine
Asel Sagingalieva , Luca Lusnig , Fabio Cavalli , Alexey Melnikov
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引用次数: 0

Abstract

The determination of sex from skeletal remains is essential for forensic science and the reconstruction of demographic patterns in ancient communities. This study aims to develop and evaluate hybrid deep-quantum neural network architectures to improve the accuracy and robustness of sex estimation from calvarium shape data. Deep learning has reached new heights in a number of scientific fields, while quantum techniques have the potential to process data in unique ways, offering benefits such as parallel processing and superposition. In the study, we investigate how an integration of deep learning and quantum computing will optimize sex estimation based on the shape complexity of calvarium, specifically through the algorithm based on Fast Fourier Transform of calvarium shapes. In previous studies with the same data, the highest achieved accuracy was 82.25%, utilizing classical machine learning and neural networks, such as Multilayer Perceptron. To improve the performance, we used four different neural network models: the classical Multilayer Perceptron and Convolutional Neural Network, along with Hybrid Quantum Classical Neural Networks, including Hybrid Quantum Classical Convolutional Networks on the morphological variations of the curve representing the sagittal profile of the calvarium. All the models outperformed the experts and improved the previous findings, achieving over 82.4% accuracy. Furthermore, the experiments on stability and accuracy over small datasets showed that one of proposed hybrid networks outperforms classical analogue on a small amount of data. The final performance of the hybrid models is better than the classical results and the best result achieved is 87.4%. We also launched the best hybrid model on the QPU, and the achieved accuracy of 90.71% is comparable to the classical simulation at 92.14%. Our research benefited significantly from new tools for analyzing quantum variational algorithms, which are inaccessible to classical methods, enabling us to reach higher results. This study not only demonstrates success in solving the specific task but also opens new possibilities for the application of quantum technologies in anthropology.
用于法医和体质人类学计算机辅助性别诊断的混合量子神经网络
从骨骼遗骸中确定性别对法医科学和古代社区人口结构的重建至关重要。本研究旨在开发和评估混合深度量子神经网络架构,以提高从颅骨形状数据估计性别的准确性和鲁棒性。深度学习在许多科学领域达到了新的高度,而量子技术有可能以独特的方式处理数据,提供并行处理和叠加等优势。在这项研究中,我们研究了深度学习和量子计算的集成如何优化基于颅骨形状复杂性的性别估计,特别是通过基于颅骨形状快速傅里叶变换的算法。在之前使用相同数据的研究中,利用经典机器学习和神经网络(如Multilayer Perceptron),最高达到的准确率为82.25%。为了提高性能,我们使用了四种不同的神经网络模型:经典多层感知器和卷积神经网络,以及混合量子经典神经网络,包括混合量子经典卷积网络,用于表征颅骨矢状面轮廓曲线的形态变化。所有模型都优于专家,并改进了先前的发现,准确率超过82.4%。此外,在小数据集上的稳定性和准确性实验表明,所提出的混合网络在小数据集上的性能优于经典模拟。混合模型的最终性能优于经典模型,最佳结果为87.4%。我们还在QPU上推出了最佳混合模型,达到90.71%的准确率与经典模拟的92.14%相当。我们的研究显著受益于分析量子变分算法的新工具,这是经典方法无法实现的,使我们能够达到更高的结果。这项研究不仅证明了解决具体任务的成功,而且为量子技术在人类学中的应用开辟了新的可能性。
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来源期刊
Informatics in Medicine Unlocked
Informatics in Medicine Unlocked Medicine-Health Informatics
CiteScore
9.50
自引率
0.00%
发文量
282
审稿时长
39 days
期刊介绍: Informatics in Medicine Unlocked (IMU) is an international gold open access journal covering a broad spectrum of topics within medical informatics, including (but not limited to) papers focusing on imaging, pathology, teledermatology, public health, ophthalmological, nursing and translational medicine informatics. The full papers that are published in the journal are accessible to all who visit the website.
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