Catalase Nanocrystals Loaded with Methylene Blue as Oxygen Self-Supplied, Imaging-Guided Platform for Photodynamic Therapy of Hypoxic Tumors

被引:60
作者
Zhou, Renbin [1 ]
Ohulchanskyy, Tymish Y. [1 ]
Xu, Hao [1 ]
Ziniuk, Roman [1 ]
Qu, Junle [1 ]
机构
[1] Shenzhen Univ, Coll Phys & Optoelect Engn, Key Lab Optoelect Devices & Syst, Shenzhen 518060, Peoples R China
基金
中国国家自然科学基金;
关键词
catalase crystal; drug delivery; oxygen self-supply; photodynamic therapy; tumor hypoxia; PROTEIN CRYSTALS; CONTRAST AGENT; NANOPARTICLES; DELIVERY; PHOTOSENSITIZER; NANOLIPOSOMES; GROWTH;
D O I
10.1002/smll.202103569
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Photodynamic therapy (PDT) is a well-known method for cancer therapy in the clinic. However, the inherent hypoxia microenvironment of solid tumors enormously restricts the PDT efficiency. Herein, catalase nanocrystals (CatCry) are introduced as in situ oxygen (O-2)-generating system to relieve tumor hypoxia and enhance PDT efficiency for solid tumors. After loading with photosensitizer methylene blue (MB), a PDT drug platform (CatCry-MB) emerges, allowing for significant increasing PDT efficiency instigated by three factors. First, the high stability and recyclable catalytic activity of CatCry enable a long-term endogenous H2O2 decomposition for continuous O-2 supply for sustained relief of tumor hypoxia. Second, both the produced O-2 and loaded MB are confined within CatCry nanoporous structure, shortening the diffusion distance between O-2 and MB to maximize the production of singlet oxygen (O-1(2)). Third, the MB molecules are uniformly dispersed within CatCry lattice, avoiding MB aggregation and causing more MB molecules be activated to produce more O-1(2). With the three complementary mechanisms, tumor hypoxia is eradicated and the resulted enhancement in PDT efficiency is demonstrated in vitro and in vivo. The proposed approach opens up a new venue for the development of other O-2-dependent tumor treatments, such as chemotherapy, radiotherapy, and immunotherapy.
引用
收藏
页数:13
相关论文
共 60 条
[1]   Design of protein crystals in the development of solid biomaterials [J].
Abe, Satoshi ;
Ueno, Takafumi .
RSC ADVANCES, 2015, 5 (27) :21366-21375
[2]   Cross-linking of protein crystals as an aid in the generation of binary protein-ligand crystal complexes, exemplified by the human PDE10a-papaverine structure [J].
Andersen, Ole Andreas ;
Schoenfeld, Dorian Leo ;
Toogood-Johnson, Ian ;
Felicetti, Brunella ;
Albrecht, Claudia ;
Fryatt, Tara ;
Whittaker, Mark ;
Hallett, David ;
Barker, John .
ACTA CRYSTALLOGRAPHICA SECTION D-STRUCTURAL BIOLOGY, 2009, 65 :872-874
[3]  
Basu SK, 2004, EXPERT OPIN BIOL TH, V4, P301, DOI 10.1517/eobt.4.3.301.27331
[4]   Glutathione and H2O2 consumption promoted photodynamic and chemotherapy based on biodegradable MnO2-Pt@Au25 nanosheets [J].
Bi, Huiting ;
Dai, Yunlu ;
Yang, Piaoping ;
Xu, Jiating ;
Yang, Dan ;
Gai, Shili ;
He, Fei ;
An, Guanghui ;
Zhong, Chongna ;
Lin, Jun .
CHEMICAL ENGINEERING JOURNAL, 2019, 356 :543-553
[5]   H2O2-Activatable and O2-Evolving Nanoparticles for Highly Efficient and Selective Photodynamic Therapy against Hypoxic Tumor Cells [J].
Chen, Huachao ;
Tian, Jiangwei ;
He, Weijiang ;
Guo, Zijian .
JOURNAL OF THE AMERICAN CHEMICAL SOCIETY, 2015, 137 (04) :1539-1547
[6]   Catalase-imprinted Fe3O4/Fe@fibrous SiO2/polydopamine nanoparticles: An integrated nanoplatform of magnetic targeting, magnetic resonance imaging, and dual-mode cancer therapy [J].
Chen, Jinxing ;
Lei, Shan ;
Zeng, Kun ;
Wang, Mozhen ;
Asif, Anila ;
Ge, Xuewu .
NANO RESEARCH, 2017, 10 (07) :2351-2363
[7]   Oxygen-producing catalase-based prodrug nanoparticles overcoming resistance in hypoxia-mediated chemo-photodynamic therapy [J].
Cheng, Xu ;
He, Le ;
Xu, Jiaxi ;
Fang, Qin ;
Yang, Lu ;
Xue, Yanbing ;
Wang, Xin ;
Tang, Rupei .
ACTA BIOMATERIALIA, 2020, 112 :234-249
[8]   Core-shell polymeric nanoparticles co-loaded with photosensitizer and organic dye for photodynamic therapy guided by fluorescence imaging in near and short-wave infrared spectral regions [J].
Chepurna, O. M. ;
Yakovliev, A. ;
Ziniuk, R. ;
Nikolaeva, O. A. ;
Levchenko, S. M. ;
Xu, H. ;
Losytskyy, M. Y. ;
Bricks, J. L. ;
Slominskii, Yu L. ;
Vretik, L. O. ;
Qu, J. ;
Ohulchanskyy, T. Y. .
JOURNAL OF NANOBIOTECHNOLOGY, 2020, 18 (01)
[9]  
Dougherty T., 1992, PHOTODYNAMIC THERAPY, P1
[10]   Enhanced photodynamic therapy for overcoming tumor hypoxia: From microenvironment regulation to photosensitizer innovation [J].
Du, Jianjun ;
Shi, Tiancong ;
Long, Saran ;
Chen, Pengzhong ;
Sun, Wen ;
Fan, Jiangli ;
Peng, Xiaojun .
COORDINATION CHEMISTRY REVIEWS, 2021, 427