Authors :
Rishi Reddy Kothinti
Volume/Issue :
Volume 10 - 2025, Issue 2 - February
Google Scholar :
https://tinyurl.com/4setn5nb
Scribd :
https://tinyurl.com/yepscd8v
DOI :
https://doi.org/10.5281/zenodo.14937050
Abstract :
The abstract introduces the era of personalized medicine, which tailors treatment options according to
individual genetic, environmental, and lifestyle factors. AI-driven genomic analysis's contribution is further augmented by
machine learning and computational biology in handling enormous genomic data, identifying genetic mutations, and
predicting treatment responses. This paper emphasizes the need for the optimization provided by AI for personalized
treatment planning, especially concerning patients with rare genetic disorders.
Rare genetic diseases usually include simple gene mutations. They pose a challenge in terms of diagnosis and
treatment because of a scarcity of information on the disease, high costs, and the absence of targeted therapies that
address these conditions. Genetic disorders usually present an acute challenge to diagnostics as these are inefficient and
often delay treatment. AI in genomic analysis is a tool that aids in expediting disease identification and improves drug
investigation and gene therapy design. For AI, this means going beyond just finding genetic variants that determine drug
responses toward effective interventions.
This paper highlights AI applications for rare genetic disorder diagnostics, CRISPR gene-editing optimization, and
applications in precision oncology. IBM Watson for Oncology is an AI-assisted platform that reinforces decision-making
in treatment-by-design approaches. In a nutshell, integrating AI into personalized medicine would provide opportunities
for healthcare workers to rectify a misdiagnosis, speed up treatment commencement, and improve the quality of life for
patients.
Findings support the need for AI-driven genomic analysis to improve traditional practice's limitations. AI
implementing precision medicine presents avenues to better and more available therapies, thus enhancing the quality of
life of those with rare genetic disorders.
Keywords :
Personalized Medicine, AI-Driven Genomic Analysis, Rare Genetic Disorders, Precision Medicine, Genomic-Based Treatment Planni.
References :
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The abstract introduces the era of personalized medicine, which tailors treatment options according to
individual genetic, environmental, and lifestyle factors. AI-driven genomic analysis's contribution is further augmented by
machine learning and computational biology in handling enormous genomic data, identifying genetic mutations, and
predicting treatment responses. This paper emphasizes the need for the optimization provided by AI for personalized
treatment planning, especially concerning patients with rare genetic disorders.
Rare genetic diseases usually include simple gene mutations. They pose a challenge in terms of diagnosis and
treatment because of a scarcity of information on the disease, high costs, and the absence of targeted therapies that
address these conditions. Genetic disorders usually present an acute challenge to diagnostics as these are inefficient and
often delay treatment. AI in genomic analysis is a tool that aids in expediting disease identification and improves drug
investigation and gene therapy design. For AI, this means going beyond just finding genetic variants that determine drug
responses toward effective interventions.
This paper highlights AI applications for rare genetic disorder diagnostics, CRISPR gene-editing optimization, and
applications in precision oncology. IBM Watson for Oncology is an AI-assisted platform that reinforces decision-making
in treatment-by-design approaches. In a nutshell, integrating AI into personalized medicine would provide opportunities
for healthcare workers to rectify a misdiagnosis, speed up treatment commencement, and improve the quality of life for
patients.
Findings support the need for AI-driven genomic analysis to improve traditional practice's limitations. AI
implementing precision medicine presents avenues to better and more available therapies, thus enhancing the quality of
life of those with rare genetic disorders.
Keywords :
Personalized Medicine, AI-Driven Genomic Analysis, Rare Genetic Disorders, Precision Medicine, Genomic-Based Treatment Planni.