Review of Polymer Drug Therapy for Cancer Driven by Artificial Intelligence

This review systematically evaluates the interdisciplinary convergence of artificial intelligence (AI) and polymer science in cancer therapy. Beyond mere description, we provide an integrated framework spanning synthetic optimization, biocompatibility prediction, and the design of tumor microenvironment (TME)-responsive carriers. We highlight how AI algorithms (ML, DL, and RNNs) transform traditional trial-and-error methods into a data-driven paradigm, enabling precise spatiotemporal drug release and individualized pharmacokinetic modeling. Crucially, this work addresses the critical gap between computational modeling and clinical realization by providing a balanced critical analysis of current bottlenecks, including the "small data" challenge, publication bias, and regulatory hurdles. We conclude with a roadmap for AI-guided precision oncology, shifting the focus from predictive accuracy to mechanistic interpretability and prospective in vivo validation.

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Publication Details

Journal
Polymers
Published
2026-03-11
DOI
https://doi.org/10.3390/polym18060677
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
0.00
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article

Review of Polymer Drug Therapy for Cancer Driven by Artificial Intelligence

Yuanlv Ye, Jie Zheng
Polymers
Machine Learning in Materials Science
article

Review of Polymer Drug Therapy for Cancer Driven by Artificial Intelligence

Yuanlv Ye, Jie Zheng
article en

Abstract

This review systematically evaluates the interdisciplinary convergence of artificial intelligence (AI) and polymer science in cancer therapy. Beyond mere description, we provide an integrated framework spanning synthetic optimization, biocompatibility prediction, and the design of tumor microenvironment (TME)-responsive carriers. We highlight how AI algorithms (ML, DL, and RNNs) transform traditional trial-and-error methods into a data-driven paradigm, enabling precise spatiotemporal drug release and individualized pharmacokinetic modeling. Crucially, this work addresses the critical gap between computational modeling and clinical realization by providing a balanced critical analysis of current bottlenecks, including the "small data" challenge, publication bias, and regulatory hurdles. We conclude with a roadmap for AI-guided precision oncology, shifting the focus from predictive accuracy to mechanistic interpretability and prospective in vivo validation.

PolymersVol. 18(6)
Ministry of Ecology and Environment (CN), China Electronic Product Reliability and Environmental Test Institute (CN), Nuclear and Radiation Safety Center (CN), Lanzhou City University (CN), Lanzhou University (CN)
Openalex Percentile: Top 27%
Machine Learning in Materials Science
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