MOF-derived novel porous Fe3O4@C nanocomposites as smart nanomedical platforms for combined cancer therapy: magnetic-triggered synergistic hyperthermia and chemotherapy.
Zhen XiangYiyao QiYusheng LuZhenrong HuXiao WangWenwen JiaJingzhou HuJian-Song JiWei LuPublished in: Journal of materials chemistry. B (2021)
Multifunctional nanomedical platforms have broad prospects in imaging-guided combination therapy in cancer precision medicine. In this work, metal-organic framework (MOF)-derived novel porous Fe3O4@C nanocomposites were developed as an intelligent cancer nanomedical platform for combined cancer therapy with MRI-guided magnetic-triggered hyperthermia and chemotherapy functions. The magnetic behavior, porous character and good surface modification endowed this smart nanoplatform with favorable biocompatibility, high-efficiency MRI imaging, magnetic-triggered on-demand DOX release function, and synergistic therapy of magnetic hyperthermia and chemotherapy, which proposed an all-in-one platform for cancer therapy. Additionally, in vivo animal experiments verified the significant suppression of malignant tumor growth with negligible side effects, which were attributed to the consecutive 13 day synergistic therapy of magnetic hyperthermia and chemotherapy in one. To be specific, Fe3O4@C-PVP@DOX significantly decreases the volume (2.5 to 0.44 of tumor volume ratio) and weight (0.49 g to 0.10 g) of tumors after magnetic-triggered hyperthermia and chemotherapy treatments. Moreover, no big difference of body weight and associated damage was observed among all major organs. Therefore, owing to its high-efficiency combined therapy of magnetic-triggered hyperthermia and chemotherapy, this smart nanoplatform holds great potential application in the precise treatments of clinical cancer.
Keyphrases
- cancer therapy
- metal organic framework
- molecularly imprinted
- drug delivery
- high efficiency
- locally advanced
- papillary thyroid
- body weight
- combination therapy
- magnetic resonance imaging
- high resolution
- rectal cancer
- high throughput
- stem cells
- radiation therapy
- magnetic resonance
- squamous cell carcinoma
- mass spectrometry
- drug release
- highly efficient
- chemotherapy induced
- weight loss
- squamous cell
- single cell
- climate change
- big data
- human health
- childhood cancer
- gold nanoparticles
- reduced graphene oxide