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Self-Assembling Proteins for Design of Anticancer Nanodrugs
Qianli Zou1, Rui Chang1, Xuehai Yan1,2
1State Key Laboratory of Biochemical Engineering, Institute of Process Engineering, Chinese Academy of Sciences, Beijing, 100190, P. R. China.
Chemistry, an Asian Journal
|March 10, 2020
Summary
Protein self-assembly offers a powerful strategy for creating advanced anticancer nanodrugs. This review details protein self-assembly in nanodrug fabrication, regulation, and diverse therapeutic applications for precision cancer treatment.
Area of Science:
- Biomaterials Science
- Nanotechnology
- Oncology
Background:
- Proteins are versatile biological building blocks for nanomaterial construction.
- Protein-based nanomaterials offer excellent bioactivity and biocompatibility.
- Self-assembly of proteins is a key strategy for developing nanodrugs.
Purpose of the Study:
- To comprehensively review the role of protein self-assembly in anticancer nanodrug development.
- To discuss supramolecular strategies, building blocks, and molecular interactions in protein self-assembly for nanodrugs.
- To highlight applications, including precision cancer therapy and theranostics.
Main Methods:
- Review of supramolecular strategies and building blocks for protein self-assembly.
- Analysis of molecular interactions governing protein self-assembly and nanodrug properties.
- Discussion of therapeutic applications and manipulation of interactions for targeted delivery.
Main Results:
- Protein self-assembly enables the fabrication and regulation of effective anticancer nanodrugs.
- Diverse applications include chemotherapy, radiotherapy, photodynamic/photothermal therapy, and gene therapy.
- Manipulation of molecular interactions is crucial for cancer-specific responses and theranostics.
Conclusions:
- Protein self-assembly is a promising approach for designing highly efficient nanodrugs for precision anticancer therapy.
- Understanding molecular interactions is key to optimizing therapeutic activity.
- Addressing challenges in construction is vital for advancing clinical translation and nanomedicine.
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