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Enhancing Computational Biology-Based Genomic Data Processing Using Quantum Computing: A Case Study of Federal University, Lokoja, Kogi State

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  • NGN 5000

Background of the Study
The field of computational biology has experienced exponential growth due to advances in genomic sequencing technologies, leading to the generation of massive datasets. Processing and analyzing these data efficiently remain a significant challenge, particularly when dealing with complex genomic architectures. Quantum computing, an emerging technology that leverages the principles of quantum mechanics, promises to revolutionize data processing by performing computations at unprecedented speeds. At Federal University, Lokoja, researchers are exploring the integration of quantum computing into genomic data processing workflows. This innovative approach aims to overcome the limitations of classical computing methods by providing a platform capable of handling high-dimensional genomic datasets with increased efficiency and accuracy (Ibrahim, 2023). Quantum algorithms, such as quantum annealing and variational quantum eigensolvers, are being investigated for their potential to optimize complex problems in genomics, including sequence alignment, variant calling, and network analysis. The integration of quantum computing into existing bioinformatics pipelines could dramatically reduce computational time and resource consumption, enabling more rapid and precise genomic analyses (Salihu, 2024). Furthermore, the study examines the scalability of quantum computing solutions and their ability to adapt to the rapidly evolving landscape of genomic research. By developing a hybrid computational framework that combines classical and quantum approaches, the project seeks to create a robust system for genomic data processing. Such a system is expected to enhance the accuracy of genomic annotations, improve the detection of genetic variants, and facilitate the discovery of novel biomarkers for disease diagnosis and treatment. The interdisciplinary collaboration between computer scientists, quantum physicists, and bioinformaticians at Federal University, Lokoja, underscores the transformative potential of this research, which could set new benchmarks in computational genomics (Olawale, 2025).

Statement of the Problem
Despite the remarkable advancements in genomic sequencing, the processing and analysis of genomic data continue to be hampered by the limitations of classical computational approaches. At Federal University, Lokoja, Kogi State, traditional bioinformatics pipelines are increasingly challenged by the scale and complexity of genomic datasets. These limitations manifest in long processing times, high energy consumption, and reduced accuracy in tasks such as sequence alignment and variant detection. The current computational frameworks struggle to efficiently handle the large-scale optimization problems inherent in genomic data analysis, leading to delays in research outputs and suboptimal utilization of data (Chukwu, 2023). Additionally, the inability of classical computing methods to address the exponential growth in data complexity poses a significant obstacle to rapid scientific progress. Quantum computing offers a potential solution by exploiting quantum mechanical phenomena to perform parallel computations, yet its application in genomic data processing remains largely theoretical and underexplored. The absence of a practical, hybrid computational model that integrates quantum computing with existing bioinformatics workflows exacerbates these challenges. There is a pressing need to develop and implement a quantum-enhanced computational framework that can efficiently process high-throughput genomic data. This study aims to bridge this gap by designing a hybrid system that leverages the computational power of quantum algorithms while maintaining the robustness of classical methods. Addressing these challenges is critical for accelerating genomic research and improving the accuracy of biological data interpretation, ultimately contributing to advancements in personalized medicine and biotechnology (Okeke, 2024).

Objectives of the Study

  1. To develop a hybrid computational framework integrating quantum and classical computing for genomic data processing.

  2. To evaluate the performance of quantum algorithms in optimizing key genomic analysis tasks.

  3. To assess the scalability and efficiency of the proposed system in processing large genomic datasets.

Research Questions

  1. How can quantum computing be integrated into existing genomic data processing pipelines?

  2. What improvements in processing speed and accuracy can be achieved using quantum algorithms?

  3. How scalable is the hybrid computational framework for large-scale genomic data analysis?

Significance of the Study
This study is significant as it pioneers the integration of quantum computing into genomic data processing, addressing the limitations of classical computational methods. By developing a hybrid framework, the research aims to enhance processing speeds, improve analytical accuracy, and reduce energy consumption. The findings will contribute to the next generation of computational biology tools, paving the way for rapid advancements in genomics and personalized medicine (Ibrahim, 2023).

Scope and Limitations of the Study
The study is limited to the design, implementation, and evaluation of a hybrid quantum-classical computational framework for genomic data processing at Federal University, Lokoja, Kogi State. It focuses exclusively on genomic datasets and does not extend to other types of biological data.

Definitions of Terms

  • Quantum Computing: A computing paradigm based on quantum mechanics that performs parallel computations using quantum bits.

  • Hybrid Computational Framework: A system that integrates both classical and quantum computing methods to enhance data processing.

  • Sequence Alignment: The process of arranging sequences of DNA to identify regions of similarity.





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