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Advances in intelligent systems and computing

Quantum Machine Learning: A Review and Current Status

Nimish Mishra, Manik Kapil, H R Rakesh, Amit Kumar Anand, Nilima Mishra, Aakash Warke, Soumya Sarkar, Sanchayan Dutta, Sabhyata Gupta, Aditya Prasad Dash, Rakshit Mandish Gharat, Yagnik Chatterjee, Shuvarati Roy, Shivam Raj, Valay Kumar Jain, Shreeram Bagaria, Smit Chaudhary, Vishwanath Singh, Rituparna Maji, Priyanka Dalei, Bikash K. Behera, Sabyasachi Mukhopadhyay, Prasanta Kumar Panigrahi

Published Sep 18, 2020• 80 citations
Publisher
DOI
10.1007/978-981-15-5619-7_8

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Quantum Machine Learning (QML) is an interdisciplinary field combining Quantum Computing (QC) and Machine Learning (ML). It has gained increased attention due to advances in near-term hardware implementations of quantum devices. The use of QML has proven to result in a significant improvement in performance and computational speed. Consequently, QML has become an effective technique for data processing and classification. Researchers have recently proposed various QML solutions in the medical image analysis field to gain an advantage of quantum supremacy. The main objective of this work is to present a holistic review of current leading-edge published works in the quantum medical image analysis field with a focus on supervised learning using artificial neural networks. A comparative study is used to pinpoint the potential of existing techniques, the most promising techniques, and the future of research in this area.
QML, short for quantum machine learning, is experiencing rapid growth as it combines the power of quantum computers with machine learning methods to enhance pattern identification and prediction. QML has demonstrated significant promise in biomedical research, since it has been used for the analysis of massive data sets from diverse sources, such as proteomics, genomics, and medical imaging. This chapter gives a broad overview of QML’s present status in biomedical applications, including both the theoretical underpinnings of the language and real-world implementations. First, we go over the fundamental ideas of quantum computing and machine learning, such as quantum gates, quantum circuits, and traditional machine learning techniques. The main difficulties in applying QML to biomedical applications are then discussed, including handling noisy quantum hardware and creating effective quantum algorithms for large, complicated data sets. We also go over some of the most exciting directions for this field’s research, such as the use of QML for illness diagnostics, personalized medicine, and drug development. In conclusion, we offer an array of case examples that demonstrate QML’s potential for use in biomedical research. These case studies address a variety of subjects, such as identifying protein-ligand binding affinities and using medical picture analysis to diagnose cancer. All things considered, this chapter offers a thorough review of QML’s current status in biomedical research, stressing both its promise and the obstacles that must be removed in order to fully realize it.