4.3 Review

Design strategies and evolving role of biomaterial assisted treatment of osteosarcoma

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DOI: 10.1016/j.msec.2021.111875

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Osteosarcoma; Bone cancer; Drug delivery; Stimuli responsive; Targeted therapy; Hyperthermia

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Osteosarcoma, the most commonly diagnosed form of bone cancer, is typically treated with a combination of surgery, chemotherapy, and radiotherapy. Biomaterials play a crucial role in delivering therapeutic agents for treating osteosarcoma, with lipid-based carriers, polymeric systems, and carbon-based materials showing high efficiency and potential in cancer treatment. Researchers are exploring unconventional therapies using biomaterials, including targeted therapy, nanotherapy, gene therapy, and photothermal treatments, to improve osteosarcoma therapy outcomes.
Osteosarcoma is the most commonly diagnosed form of bone cancer. It is characterized by a high risk of developing lung metastasis as the disease progresses. Standard treatment includes combination of surgical intervention, chemotherapy and radiotherapy. However, the non-specificity of potent chemotherapeutic agents often leads to major side effects. In this review, we discuss the role of various classes of biomaterials, including both organic as well as inorganic in realizing the local and systemic delivery of therapeutic agents like drugs, radioisotopes and even gene silencing agents to treat osteosarcoma. Biomaterial assisted unconventional therapies such as targeted therapy, nanotherapy, magnetic hyperthermia, gene therapy, photothermal and photodynamic therapies are also being explored. A wide variety of biomaterials including lipids, carbon-based materials, polymers, silica, bioactive glass, hydroxyapatite and metals are designed as delivery systems with the desired loading efficiency, release profile, and on-demand delivery. Among others, liposomal carriers have attracted a great deal of attention due to their capability to encapsulate both hydrophobic and hydrophilic drugs. Polymeric systems have high drug loading efficiency and stability and can even be tailored to achieve desired size and physiochemical properties. Carbon-based systems can also be seen as an upcoming class of therapeutics with great potential in treating different types of cancer. Inorganic materials like silica nanoparticles have high drug payload owing to their mesoporous structure. On the other hand, ceramic materials like bioactive glass and hydroxyapatite not only act as excellent delivery vectors but also participate in osteo-regeneration activity. These multifunctional biomaterials are also being investigated for their theranostic abilities to monitor cancer ablation. This review systematically discusses the vast landscape of biomaterials along with their challenges and respective opportunities for osteosarcoma therapy.

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