Research on Nano-based Targeted Delivery Systems for Anti-tumor Drugs

Authors

    Chenxian Liu Macao Polytechnic University, Macao 999078, China

DOI:

https://doi.org/10.18063/jmds.v10i2.863

Keywords:

Nanotechnology, Anti-tumor, Targeted drug delivery

Abstract

Tumor metastasis and recurrence are significant factors leading to patient death, and chemotherapy drugs can cause severe damage to normal cells while killing tumor cells. Therefore, improving the efficacy of chemotherapy drugs and reducing their toxic side effects has become a research hotspot in recent years. Nanotechnology enables efficient targeting of drugs to tumor sites, enhancing the therapeutic effect of anti-tumor drugs. This article reviews the design of nano-based targeted delivery systems for anti-tumor drugs, including nucleic acid aptamers, protein polypeptides, surface modifications, and other nano-carriers and their construction strategies. It introduces various targeting binding systems based on different biomolecules (such as folic acid, hyaluronic acid, sugar chains, etc.) and ligands. This article summarizes the retention behavior of nano-carriers in the body and anticipates future trends in nano-based drug targeting delivery systems.

References

Wu J, 2024, Summary of Chronic Disease Prevention and Control Policies at Home and Abroad. People’s Health Publishing House, 202405: 1244.

Zhao W, Song J, 2025, Efficacy and Safety of Immunotherapy Combined With Targeted Therapy and Chemotherapy in the Third-Line Treatment of Patients With Microsatellite Stable Metastatic Colorectal Cancer. Journal of Military Medical University, 1–10.

Chen J, Wang F, 2025, The Immunotherapy Effect of Targeting Immune Checkpoint B7-H3 on Tumors. Chinese Journal of Biochemistry and Molecular Biology, 1–26.

Zhang M, 2024, Construction of Polyphenol-Based Supramolecular Nanomedicine and Its Application in Tumor Therapy, thesis, Jilin University.

Yang S, 2024, Research and Application of Anti-Tumor Nanomedicine Delivery System. Chemical Industry Press, 202406: 441.

Zhao Y, 2024, Design and Application of a Metal-Carbon Based Nanoenzyme Electrochemical Sensor Based on Catalyzed NADH, thesis, Jilin University.

Nie L, Huang Z, Gong L, 2024, Nanobiomaterials. Chemical Industry Press, 202408: 205.

Qin X, 2024, Research on the Recognition Method of Biomolecular Folding Structure Based on Feature Optimization, thesis, Shanghai Maritime University.

Yao L, 2022, Study on Reconstructing the Glutamic Acid Decarboxylase System of Escherichia coli to Enhance Its γ-Aminobutyric Acid Synthesis Efficiency, thesis, Heilongjiang August 1st Agricultural University.

Ren W, 2016, Research on the Construction of a New Nucleic Acid Aptamer Biosensor for Recognizing DNA, Hg2+ and Pb2+ Based on Enzyme-Promoted Target Cycling, thesis, Southwest University.

Chen F, 2023, Construction of a Molecular Control System Based on DNA Nanotechnology and Its Bionic Application Research, thesis, Hunan University.

Sun Y, Chang Z, Zhang X, et al., 2025, Synthesis, Stability, and Cell Proliferation Inhibition of Nucleic Acid Aptamer Conjugates Containing Ala-Gln Linker. Modern Medicines and Clinic, 40(5): 1143–1150.

Qi L, Huang Q, Gao Q, et al., 2025, Application of Amino Acid-Based Materials in the Field of Gene and Drug Delivery. Acta Polymerica Sinica, 56(1): 1–25.

Luo X, 2024, Study on the Antimicrobial Peptide SR25 and Antioxidant Peptide IY-3 From a New Species of Actinomyces Isolated From Jilin Wild Field, thesis, Jilin University.

Li J, Liu J, 2025, Application of Nanoenzyme-Involved Biomimetic Cascade Catalysis in Biomedicine. Journal of Sichuan Normal University (Natural Science Edition), 48(4): 440–456 + 424.

Xie H, Huang Y, 2025, Research Progress of Fatty Acid Synthase as a Potential Biomarker for Bladder Cancer. Modern Oncology, 1–6.

Dai L, Liu J, Zhou J, et al., 2019, Construction of a Responsive Nanomedicine Delivery System and Its Application in Tumor Therapy. Medical Biomechanics, 34(S1): 27–28.

Yang C, 2016, Construction of a Hyaluronic Acid-Based Stimulus-Responsive Nanogel and Its Application in Targeted Drug Delivery Therapy, thesis, Nanjing University.

Wei J, 2019, Study on Enzyme-Responsive Linear-Dendritic Block Copolymer Based on Dendritic Phenylalanyl-Lysine Dipeptide, thesis, Yunnan Normal University.

Zhang H, 2024, Study on the Activity and Mechanism of Targeted Delivery of PDK Inhibitors and shRNA Dual Therapy by Mesoporous Silicon Nanomaterials to Inhibit Osteosarcoma. Gansu Provincial People’s Hospital, Gansu, 2024-03-01.

Lu S, Yin J, Di B, et al., 2025, Study on the Degradation Characteristics of Polymers in Implants and Their Effects on Drug Release Behavior. Chinese Journal of New Drugs, 34(11): 1185–1198.

Meng R, Lin Y, Yao W, et al., 2025, Research on Smart Peptides for Drug Targeted Delivery and Immune Activation. Acta Polymerica Sinica, 1–12.

Zou N, Kong L, Chang L, et al., 2025, Investigation of the Physicochemical Properties and In Vitro Pharmacodynamics Evaluation of Transferrin-Modified Enzyme-Sensitive Sorafenib and Psoralen Micelles. Chinese Journal of Pharmaceutical Industry, 56(4): 488–499.

Zhou Y, Huang H, Shang C, et al., 2025, Discovery and Characterization of a Fully Human Antibody Conjugate Drug Specifically Targeting MUC18. Central South Pharmacy, 23(6): 1530–1538.

Downloads

Published

2025-06-28