Integrated Copper Nanomaterials‐Decorated Microsphere Photothermal Platform for Comprehensive Melanoma Treatment

Author:

Zhang Xinyi12,Zhang Mengya13,Cui Hengqing4,Zhang Tinglin13,Zhang Zhuanzhuan12,Li Jingzhu5,Zhou Jingsheng16,Jiang Xianghe16,Liu Chenchen12,Gao Jie13ORCID

Affiliation:

1. Changhai Clinical Research Unit The First Affiliated Hospital of Naval Medical University Shanghai 200433 China

2. Institute of Translational Medicine Shanghai University Shanghai 200444 China

3. Shanghai Key Laboratory of Nautical Medicine and Translation of Drugs and Medical Devices Shanghai 200433 China

4. Tongji Hospital, School of Medicine Tongji University Shanghai 200092 China

5. Department of Burn Surgery The First Affiliated Hospital of Naval Medical University Shanghai 200433 China

6. College of Life Science Mudanjiang Medical University Mudanjiang 157011 China

Abstract

Patients who undergo resection for melanoma face challenges, such as delayed healing and radiation dermatitis. Moreover, incomplete tumor resection is a key factor contributing to poor prognosis and increased recurrence rates. However, a therapeutic platform that can effectively prevent tumor recurrence and promote wound healing remains a challenge. Hence, a pioneering approach is presented using melanoma‐derived cancer cell membrane (CM) as a tumor antigen to encapsulate copper (Cu)‐based metal‐organic framework (MOF) nanomaterials to fabricate nanomaterials termed MOF@CM. Then MOF@CM is adsorbed onto polydopamine (PDA)‐modified poly lactic‐co‐glycolic acid (PLGA) porous microspheres (PLGA/PDA) to develop the copper nanomaterials‐decorated microspheres termed PLGA/PDA‐CCM (PLGA/PDA loaded with CM‐coated MOF). It exerts homologous tumor targeting and photothermal effects, inducing immunogenic cell death. Simultaneously, the sustained release of MOF@CM shows enhanced antigen presentation in dendritic cells (DCs) with the help of CpG, and induces DC maturation and activated immune responses, acting as an effective vaccine to prevent tumor recurrence. The platform harnesses the combined advantages of the local thermal effect and the presence of a Cu‐based MOF, which endow antibacterial properties and stimulate angiogenesis, thereby facilitating wound healing and mitigating radiation dermatitis. This integrated microsphere treatment platform represents a promising strategy for addressing melanoma.

Funder

National Natural Science Foundation of China

Publisher

Wiley

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