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Stream/Area:
-
Subject:
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Paper ID:
IJSREM65622
Volume:
10 |
6 |
Jun 2026
Pages:
1-6
Publication Frequency:
Monthly (12 issues per year)
License:International Journal of Scientific Research in Engineering and Management follows the Creative Commons Attribution 4.0 (CC BY 4.0) License, allowing free use and distribution with proper attribution.
Department of Biotechnology, School of Life Sciencnes
Nehru Arts and Science College
Department of Biotechnology, School of Life Sciencnes
Nehru Arts and Science College
One major way healthcare is being radically transformed by innovative, data-driven solutions is through the merging of biotechnology and artificial intelligence (AI). Genomics proteomics medical imaging and other biotechnologies generate large-scale biological and clinical datasets which often surpass the limit of conventional analytical methods. Because of this, the need for advanced computational methods has increased dramatically. AI-augmented biotechnologies employ various methods such as machine learning, deep learning, natural language processing and generative AI to analyze complex data that result in better clinical decision-making and open the door to precision medicine. These AI-enabled solutions help with patient stratification, disease risk estimation, pharmacogenomics as well as personalized therapy planning, and at the same time, enhancing the speed of drug discovery via identification of targets and virtual screening. Also, AI is furthering the healthcare advancements through its combination with synthetic biology, regenerative medicine, and digital therapeutics. Some of the new AI tools like digital twins, AI-powered bioinformatics, and lab-on-a-chip diagnostics not only enable better prediction but also support personalized care delivery. Yet, challenges such as data inconsistency, model interpretability, regulations, and algorithm bias still restrict the widespread clinical use of AI technologies. Discoveries in AI that can be explained, support to privacy-enhancing approaches, and healthcare system integration are the ones expected to promote AI transparency and availability. That is why, using AI, biotechnology platforms are revolutionizing both biomedical research and healthcare fields, leading to a future of medicines that are predictive preventive personalized, and participatory.
KEYWORDS
Integration of artificial intelligence into biotechnology is one of the principal elements redefining the healthcare sector drastically, it's not just about interpreting highly complex biological data but also about invigorating the corporate drive-in biomedicine. AI powered biotechnological ecosystems are deeply dependent upon the deployment of sophisticated computer-based approaches alongside multi-omics technologies, clinical information systems, medical imaging, and digital health platforms to usher a radical change in diagnosis, therapy, and prevention of diseases. For example, one might consider genomics, precision medicine, drug discovery, synthetic biology, regenerative medicine, infectious disease surveillance, and digital therapeutics as areas most visibly influenced by AI, such that collectively, they cover nearly the entire spectrum of healthcare. In addition, digital twins, generative AI, AI-powered bioinformatics platforms, smart diagnostics, and the IoMT-enabled healthcare systems have further reinforced the position of these technologies in delivering highly precise and much awaited healthcare to individuals. Yet, despite these drastically enhanced margins, some heavy problems remain in the forefront. Issues like data quality, interoperability, model explainability, privacy safeguards, fairness of algorithms, regulatory adherence, and clinical validation among others continue to affect the credibility and willingness to embrace AI-based health systems. One can imagine that through interdisciplinary collaboration of biotechnologists doctor’s computer scientists, policymakers, and regulators, the world can come up with remedies for these constraints. Creation of explainable AI models, federated learning setups, and robust ethical governance mechanisms will be pivotal to earning trust, upholding accountability, and enabling the equitable distribution of technological benefits. In the future, we should see the platforms based on AI and biotechnology integrated with each other transforming into smart, interlinked healthcare environments that can monitor the patients continuously, carry out predictive analyses, do research independently, and provide customized treatment. This is the direction where the technology is still advancing, and at the same time, these platforms will come to represent the main figure in precision medicine and the improvement of healthcare on a global scale. Over and beyond that, the perfect combination of AI and biotechnology can usher in a completely new age of healthcare innovation that is both sustainable, and patient-centered and driven by data.
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Publication Date
6/28/2026
Peer Review Type
Double-Blind Peer Review
Review Rounds: 2
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