Oct 2026· AAPS PharmSciTech· Vol 27· 0 citations· 261 references
Medicine
TL;DR
It is demonstrated that hydrogel-based drug delivery systems decrease tumor dimensions while inhibiting metastasis making them an advanced treatment strategy for BC management.
Abstract
Breast cancer (BC) stands as a major medical concern for women because treatment hurdles include drug resistance combined with treatment failure and severe side effects and the intricate tumor microenvironment (TME). The treatment-resistant breast cancer subtype triple-negative breast cancer (TNBC) exhibits high aggressiveness through its failure to respond to targeted treatment yet maintains substantial metastatic potential. Hydrogels that react to stimuli have recently shown promise as solutions for solving these clinical issues. These hydrogels show response to precise stimuli which include pH, temperature and light and magnetic fields and biological elements including glutathione together with overexpressed enzymes MMP2 and MMP9 that appear within BC tumors. Hydrogel systems that respond to enzymes release drugs precisely at tumors thus minimizing drug side effects and optimizing their therapeutic effects. Hydrogel systems become more effective because of their ability to control drug delivery and combine various treatments when nanomaterials are incorporated as parts of their structure. Hydrogels must have adequate mechanical toughness because it enables them to withstand physical pressure without losing their drug release capabilities throughout the extended treatment period. This review has demonstrated that hydrogel-based drug delivery systems decrease tumor dimensions while inhibiting metastasis making them an advanced treatment strategy for BC management. The novel hydrogel platforms will lead to individualized treatment methods which show substantial promise to enhance breast cancer therapy results.
How hydrogel–nanoparticle systems offer a promising strategy to modulate the tumor microenvironment by enabling targeted drug delivery, controlled release, enhanced tumor penetration, and improved therapeutic efficacy in breast cancer is critically discussed.
Poulami Dutta, Dhruvi Patel, H. Shukla et al.· ACS Applied Nano Materials· 0 citations
This review provides a concise framework for the rational design of programmable, multi-responsive polymeric nanomedicines for TNBC therapy and summarizes recent advances in pH-, redox-, ROS-, hypoxia-, photo- and temperature-responsive polymers.
Adnan Murad Bhayo, Ying Li, Alaa R. Aboushanab et al.· Pharmaceutics· 0 citations
Cancer remains one of the leading causes of death globally, and breast cancer is the most frequently diagnosed cancer in women. Even though surgical excision is the main treatment of solid tumors, recurrence and metastasis to another location postoperatively provide lasting therapeutic challenges. Systemic adverse effe...
Kiran Kainat, Muhammad Saif ur Rahman, M. Shoaib et al.· Polymers· 0 citations
Current cancer treatment still relies largely on stage-specific diagnosis and relatively fixed therapeutic regimens, while diagnostic information, therapeutic intervention, and efficacy feedback are often separated across different time windows. This fragmentation limits the ability to meet the demands of precision and...
Xuan-Ming Mao, Ming-Yu Cui, Lu-Qi Cao et al.· Soft Science· 1 citation
Abstract Breast cancer heterogeneity and its complex tumor microenvironment (TME) are key drivers of therapeutic failure and multidrug resistance (MDR). Drug delivery systems (DDS) provide an important approach, but their clinical translation remains limited by biological variability, formulation complexity, and manufa...
Gui-Wen Liang, Chu-Lin Zhu, Hua-Lin Sun et al.· Drug Design, Development and...· 0 citations
Breast cancer relapse and therapeutic resistance recurrence are mainly due to the presence of breast cancer-associated cancer stem cells (bCSCs), which are inadequately eradicated by conventional chemotherapeutic agents. To mitigate these challenges, we engineered an injectable in situ-forming gelatin hydrogel capable...