What is it about?

The study systematically reviews the integration of artificial intelligence (AI) in life sciences, focusing on emerging trends in AI-driven research. The methodology involved a PRISMA 2020-informed systematic qualitative review across four scientific databases: Scopus, Web of Science Core Collection, PubMed, and IEEE Xplore. Boolean search strings were adapted for each database to ensure comprehensive and reproducible literature coverage. The research applied a hybrid inductive-deductive thematic synthesis to extract and group data into higher-level themes. The study identified machine learning and deep learning approaches as pivotal in redefining experimental design and predictive modeling in genomics, drug discovery, and precision medicine. Evidence mapping and conceptual synthesis were used to identify future research trajectories in AI-enabled life sciences. The research highlighted the importance of explainable AI and responsible data governance as essential components of future AI frameworks.

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Why is it important?

This study is important as it positions artificial intelligence (AI) as a transformative force in the life sciences, moving beyond traditional analytical roles to become a central driver of future innovation. By addressing the challenges of high-dimensional and continuously generated biological data, AI is set to revolutionize how biological knowledge is discovered, validated, and translated into real-world applications. The research highlights the significance of AI in fostering digitally integrated, data-centric, and adaptive research ecosystems, which are crucial for advancing fields such as genomics, drug discovery, and precision medicine. The study underscores the need for responsible AI deployment, considering ethical governance and system interoperability, to ensure trust and sustainability in biological innovation. Key Takeaways: 1. Redefining Experimental Design: The research underscores that machine learning and deep learning approaches are crucial in redefining experimental design and predictive modeling across various life sciences domains, including genomics and environmental biology. 2. Intelligent Data Integration: AI is expected to enable seamless integration across biological scales, from molecular to ecosystem dynamics, through intelligent data fusion and automated hypothesis generation, thereby accelerating the pace of discovery. 3. Addressing Challenges: The study identifies key challenges in AI deployment, such as data quality and interpretability, and emphasizes the importance of developing frameworks like explainable AI and hybrid data-knowledge models to build trust and ensure reproducibility.

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This page is a summary of: How Artificial Intelligence is Shaping Life Sciences: Systematic Qualitative Review with a Future-oriented Analytical Framework, Premier Journal of Biomedical Science, March 2026, Premier Science,
DOI: 10.70389/pjbs.100015.
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