Microneedle‐Assisted Transdermal Delivery of 2D Bimetallic Metal–Organic Framework Nanosheet‐Based Cascade Biocatalysts for Enhanced Catalytic Therapy of Melanoma

Current conventional treatments for malignant melanoma still face limitations, especially low therapeutic efficacy and serious side effects, and more effective strategies are urgently needed to develop them. Delivering biocatalysts into tumors to efficiently trigger in situ cascade reactions has sho...

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Veröffentlicht in:Advanced healthcare materials 2023-03, Vol.12 (7), p.e2202474-n/a
Hauptverfasser: Chen, Jiajie, Niu, Huicong, Guan, Lei, Yang, Zhibo, He, Yuzhao, Zhao, Jinjin, Wu, Chengtie, Wang, Yitong, Lin, Kaili, Zhu, Yufang
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container_issue 7
container_start_page e2202474
container_title Advanced healthcare materials
container_volume 12
creator Chen, Jiajie
Niu, Huicong
Guan, Lei
Yang, Zhibo
He, Yuzhao
Zhao, Jinjin
Wu, Chengtie
Wang, Yitong
Lin, Kaili
Zhu, Yufang
description Current conventional treatments for malignant melanoma still face limitations, especially low therapeutic efficacy and serious side effects, and more effective strategies are urgently needed to develop them. Delivering biocatalysts into tumors to efficiently trigger in situ cascade reactions has shown huge potential in producing more therapeutic species or generating stronger tumoricidal effects for augmented tumor therapy. Recently, ultrathin 2D metal–organic framework (MOF) nanosheets have acquired great interest in biocatalysis owing to their large surface areas and abundant accessible active catalytic sites. Herein, an enhanced catalytic therapeutic strategy against melanoma is developed by biocompatible microneedle (MN)‐assisted transdermal delivery of a 2D bimetallic MOF nanosheet‐based cascade biocatalyst (Cu‐TCPP(Fe)@GOD). Profiting from the constructed dissolving MN system, the loaded Cu‐TCPP(Fe)@GOD hybrid nanosheets can be accurately delivered into the melanoma sites through skin barriers, and subsequently, trigger the specific cascade catalytic reactions in response to the acidic tumor microenvironment to effectively generate highly toxic hydroxyl radical (•OH) and deplete glucose nutrient for inducing the death of melanoma cells. The ultimate results prove the high melanoma inhibition effect and biosafety of such therapeutic modality, exhibiting a new and promising strategy to conquer malignant melanoma. A transdermal microneedle system loaded with a 2D bimetallic metal–organic framework nanosheet‐based cascade biocatalyst is developed for enhanced catalytic therapy of malignant melanoma by triggering the in situ cascade catalytic reactions within the tumor microenvironments to effectively generate highly toxic hydroxyl radical (•OH) and deplete glucose nutrient.
doi_str_mv 10.1002/adhm.202202474
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Profiting from the constructed dissolving MN system, the loaded Cu‐TCPP(Fe)@GOD hybrid nanosheets can be accurately delivered into the melanoma sites through skin barriers, and subsequently, trigger the specific cascade catalytic reactions in response to the acidic tumor microenvironment to effectively generate highly toxic hydroxyl radical (•OH) and deplete glucose nutrient for inducing the death of melanoma cells. The ultimate results prove the high melanoma inhibition effect and biosafety of such therapeutic modality, exhibiting a new and promising strategy to conquer malignant melanoma. 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Delivering biocatalysts into tumors to efficiently trigger in situ cascade reactions has shown huge potential in producing more therapeutic species or generating stronger tumoricidal effects for augmented tumor therapy. Recently, ultrathin 2D metal–organic framework (MOF) nanosheets have acquired great interest in biocatalysis owing to their large surface areas and abundant accessible active catalytic sites. Herein, an enhanced catalytic therapeutic strategy against melanoma is developed by biocompatible microneedle (MN)‐assisted transdermal delivery of a 2D bimetallic MOF nanosheet‐based cascade biocatalyst (Cu‐TCPP(Fe)@GOD). Profiting from the constructed dissolving MN system, the loaded Cu‐TCPP(Fe)@GOD hybrid nanosheets can be accurately delivered into the melanoma sites through skin barriers, and subsequently, trigger the specific cascade catalytic reactions in response to the acidic tumor microenvironment to effectively generate highly toxic hydroxyl radical (•OH) and deplete glucose nutrient for inducing the death of melanoma cells. The ultimate results prove the high melanoma inhibition effect and biosafety of such therapeutic modality, exhibiting a new and promising strategy to conquer malignant melanoma. 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Profiting from the constructed dissolving MN system, the loaded Cu‐TCPP(Fe)@GOD hybrid nanosheets can be accurately delivered into the melanoma sites through skin barriers, and subsequently, trigger the specific cascade catalytic reactions in response to the acidic tumor microenvironment to effectively generate highly toxic hydroxyl radical (•OH) and deplete glucose nutrient for inducing the death of melanoma cells. The ultimate results prove the high melanoma inhibition effect and biosafety of such therapeutic modality, exhibiting a new and promising strategy to conquer malignant melanoma. 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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Active sites
Bimetals
Biocatalysts
Biocompatibility
Cascade chemical reactions
cascade reactions
Catalysis
catalytic therapy
Cell death
Copper
Drug delivery
Humans
Hydroxyl radicals
Melanoma
Melanoma - drug therapy
Melanoma, Cutaneous Malignant
Metal-Organic Frameworks
metal–organic framework nanosheets
microneedle delivery
Nanosheets
Needles
Side effects
Skin
Skin cancer
Skin Neoplasms - drug therapy
Tumor Microenvironment
Tumors
title Microneedle‐Assisted Transdermal Delivery of 2D Bimetallic Metal–Organic Framework Nanosheet‐Based Cascade Biocatalysts for Enhanced Catalytic Therapy of Melanoma
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