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Comparative Analysis for Human Protein Function Prediction through Machine Learning Techniques and Performance Enhancement Using Quantum Machine Learning (QML)

Author(s): Sunny Sharma*, Sandeep Sood, Palwinder Singh and Anil Kumar

Pp: 112-132 (21)

DOI: 10.2174/9798898813215126010010

* (Excluding Mailing and Handling)

Abstract

The technology is evolving quickly, and the immense and complex protein sequence databases are growing every day. To extract information from these huge masses of data, we require sophisticated computational approaches, such as Quantum Machine Learning (QML), which could be rapidly applied for the benefit of humanity. The HPFP (Human-Protein-Function-Prediction) is a crucial study used for the discovery of disease diagnosis, medicines, and crop hybridization. These days, lots of computational approaches are available for HPFP, yet many do not deliver reliable findings rapidly. This research study performed the experiment for HPFP by extracting the dataset from the HPRD (Human-Protein-Reference-Database), the SDFs (Sequence-Derived-Features) from protein sequence are extracted through the proposed HP-SDFES, as well as from some other web-servers. This study utilizes an RF (Random Forest) Machine Learning (ML) classifier for HPFP by extracting SDFs from HPF (Human-Protein-Sequence) and achieved 74.91% accuracy for individual protein class prediction. With improved SDF extractions and in conjunction with input configurations, the prediction accuracy enhances and ranges from 98% to 100% under ideal conditions. This study identifies that RF is the better classifier for HPFP rather than any other ML classifier, and this methodology can be applied similarly to other allied studies for the advancement of humanity, which is also the key finding of this research study. Further, to increase the prediction process speed, the QML approach has been used on RF. Quantum computing improves RF by accelerating feature selection, entropy computations, and decision tree splits. The obtained final result has been compared with the existing benchmarks.


Keywords: Decision tree, Human protein function (HPF), HPRD, Hybrid quantum-classical models, Mutation prediction, Prediction accuracy, Protein function prediction (PFP), Protein-protein interaction (PPI), Random forest classifier, Quantum feature map, Quantum kernel, Quantum machine learning (QML), SDF, ZZFeatureMap.