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Research Progress of Thermosensitive Hydrogel in Tumor Therapeutic

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AbstractCompared with traditional tumor therapy strategies, hydrogel as a drug reservoir system can realize on-demand drug release and deep tissue penetration ability. It also exhibits great tumor-site retention to enhance the permeability and retention effect of tumor treatment. This can significantly overcome the drug's resistance and severe side effects. Inorganic/organic composite hydrogel has attracted wide attention due to its combined effects, enhancing therapeutic effects against various kinds of tumors. In situ injectable hydrogel can securely restrict the drugs in the lesion sites without leakage and guarantee better biosafety. Moreover, hydrogel possesses interconnected macropores which can provide enough space for nutrient transport, cellular activity, and cell–cell interactions. Thermal therapy is an effective strategy for tumor therapy due to its minimal invasiveness and high selectivity. Because the location temperature can be precisely controlled and helps avoid the risks of destroying the body's immune system and ablate normal cells, thermal therapy exhibits significant treatment outcomes. Nonetheless, when the cellular temperature reaches approximately 43 °C, it causes long-term cell inactivation. Based on these merits, thermosensitive hydrogel formulation with adaptive functions shows excellent efficacy, unlimited tissue penetration capacity, and few deleterious side effects. Furthermore, the thermosensitive hydrogel has unique physical properties under the external stimuli, which is the ideal drug delivery system for on-demand release in tumor treatment. This article will review the state of the thermosensitive hydrogel in clinic application for cancer therapy.
Springer Science and Business Media LLC
Title: Research Progress of Thermosensitive Hydrogel in Tumor Therapeutic
Description:
AbstractCompared with traditional tumor therapy strategies, hydrogel as a drug reservoir system can realize on-demand drug release and deep tissue penetration ability.
It also exhibits great tumor-site retention to enhance the permeability and retention effect of tumor treatment.
This can significantly overcome the drug's resistance and severe side effects.
Inorganic/organic composite hydrogel has attracted wide attention due to its combined effects, enhancing therapeutic effects against various kinds of tumors.
In situ injectable hydrogel can securely restrict the drugs in the lesion sites without leakage and guarantee better biosafety.
Moreover, hydrogel possesses interconnected macropores which can provide enough space for nutrient transport, cellular activity, and cell–cell interactions.
Thermal therapy is an effective strategy for tumor therapy due to its minimal invasiveness and high selectivity.
Because the location temperature can be precisely controlled and helps avoid the risks of destroying the body's immune system and ablate normal cells, thermal therapy exhibits significant treatment outcomes.
Nonetheless, when the cellular temperature reaches approximately 43 °C, it causes long-term cell inactivation.
Based on these merits, thermosensitive hydrogel formulation with adaptive functions shows excellent efficacy, unlimited tissue penetration capacity, and few deleterious side effects.
Furthermore, the thermosensitive hydrogel has unique physical properties under the external stimuli, which is the ideal drug delivery system for on-demand release in tumor treatment.
This article will review the state of the thermosensitive hydrogel in clinic application for cancer therapy.

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