Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery

Abstract High positive charge‐induced toxicity, easy lysosomal degradation of nucleic acid drugs, and poor lesion sites targeting are major problems faced in the development of gene carriers. Herein, we proposed the concept of self‐escape non‐cationic gene carriers for targeted delivery and treatmen...

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Main Authors: Ming‐Xuan Liu, Li Xu, Jia‐Yi Jiang, Hai‐Chen Dong, Peng‐Fei Zhu, Lei Cao, Jing Chen, Xiao‐Ling Zhang
Format: Article
Language:English
Published: Wiley 2023-09-01
Series:Bioengineering & Translational Medicine
Subjects:
Online Access:https://doi.org/10.1002/btm2.10558
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author Ming‐Xuan Liu
Li Xu
Jia‐Yi Jiang
Hai‐Chen Dong
Peng‐Fei Zhu
Lei Cao
Jing Chen
Xiao‐Ling Zhang
author_facet Ming‐Xuan Liu
Li Xu
Jia‐Yi Jiang
Hai‐Chen Dong
Peng‐Fei Zhu
Lei Cao
Jing Chen
Xiao‐Ling Zhang
author_sort Ming‐Xuan Liu
collection DOAJ
description Abstract High positive charge‐induced toxicity, easy lysosomal degradation of nucleic acid drugs, and poor lesion sites targeting are major problems faced in the development of gene carriers. Herein, we proposed the concept of self‐escape non‐cationic gene carriers for targeted delivery and treatment of photocontrolled hepatocellular carcinoma (HCC) with sufficient lysosome escape and multiple response capacities. Functional DNA was bound to the surface of biotin‐PEG2000‐modified graphitic carbon nitride (Bio‐PEG‐CN) nanosheets to form non‐cationic nanocomplexes Bio‐PEG‐CN/DNA. These nanocomposites could actively target HCC tissue. Once these nanocomplexes were taken up by tumor cells, the accumulated reactive oxygen species (ROS) generated by Bio‐PEG‐CN under LED irradiation would disrupt the lysosome structure, thereby facilitating nanocomposites escape. Due to the acidic microenvironment and lipase in the HCC tissue, the reversible release of DNA could be promoted to complete the transfection process. Meanwhile, the fluorescence signal of Bio‐PEG‐CN could be monitored in real time by fluorescence imaging technology to investigate the transfection process and mechanism. In vitro and in vivo results further demonstrated that these nanocomplexes could remarkably upregulate the expression of tumor suppressor protein P53, increased tumor sensitivity to ROS generated by nanocarriers, and realized effective gene therapy for HCC via loading P53 gene.
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spelling doaj.art-ba0cadd6463d4f369f8ca9f0b449d3ed2023-09-08T13:29:53ZengWileyBioengineering & Translational Medicine2380-67612023-09-0185n/an/a10.1002/btm2.10558Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene deliveryMing‐Xuan Liu0Li Xu1Jia‐Yi Jiang2Hai‐Chen Dong3Peng‐Fei Zhu4Lei Cao5Jing Chen6Xiao‐Ling Zhang7School of Pharmacy Nantong University Nantong ChinaInstitute of Translational Medicine, Medical College Yangzhou University Yangzhou Jiangsu P. R. ChinaSchool of Pharmacy Nantong University Nantong ChinaSchool of Pharmacy Nantong University Nantong ChinaSchool of Pharmacy Nantong University Nantong ChinaSchool of Pharmacy Nantong University Nantong ChinaInstitute of Translational Medicine, Medical College Yangzhou University Yangzhou Jiangsu P. R. ChinaSchool of Pharmacy Nantong University Nantong ChinaAbstract High positive charge‐induced toxicity, easy lysosomal degradation of nucleic acid drugs, and poor lesion sites targeting are major problems faced in the development of gene carriers. Herein, we proposed the concept of self‐escape non‐cationic gene carriers for targeted delivery and treatment of photocontrolled hepatocellular carcinoma (HCC) with sufficient lysosome escape and multiple response capacities. Functional DNA was bound to the surface of biotin‐PEG2000‐modified graphitic carbon nitride (Bio‐PEG‐CN) nanosheets to form non‐cationic nanocomplexes Bio‐PEG‐CN/DNA. These nanocomposites could actively target HCC tissue. Once these nanocomplexes were taken up by tumor cells, the accumulated reactive oxygen species (ROS) generated by Bio‐PEG‐CN under LED irradiation would disrupt the lysosome structure, thereby facilitating nanocomposites escape. Due to the acidic microenvironment and lipase in the HCC tissue, the reversible release of DNA could be promoted to complete the transfection process. Meanwhile, the fluorescence signal of Bio‐PEG‐CN could be monitored in real time by fluorescence imaging technology to investigate the transfection process and mechanism. In vitro and in vivo results further demonstrated that these nanocomplexes could remarkably upregulate the expression of tumor suppressor protein P53, increased tumor sensitivity to ROS generated by nanocarriers, and realized effective gene therapy for HCC via loading P53 gene.https://doi.org/10.1002/btm2.10558CN‐based nanosheetsgene deliverygene therapylight controllednon‐cationic carrier
spellingShingle Ming‐Xuan Liu
Li Xu
Jia‐Yi Jiang
Hai‐Chen Dong
Peng‐Fei Zhu
Lei Cao
Jing Chen
Xiao‐Ling Zhang
Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
Bioengineering & Translational Medicine
CN‐based nanosheets
gene delivery
gene therapy
light controlled
non‐cationic carrier
title Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
title_full Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
title_fullStr Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
title_full_unstemmed Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
title_short Light controlled self‐escape capability of non‐cationic carbon nitride‐based nanosheets in lysosomes for  hepatocellular carcinoma targeting stimulus‐responsive gene delivery
title_sort light controlled self escape capability of non cationic carbon nitride based nanosheets in lysosomes for hepatocellular carcinoma targeting stimulus responsive gene delivery
topic CN‐based nanosheets
gene delivery
gene therapy
light controlled
non‐cationic carrier
url https://doi.org/10.1002/btm2.10558
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