B16F10 Cell Membrane-Based Nanovesicles for Melanoma Therapy Are Superior to Hyaluronic Acid-Modified Nanocarriers.
Yanyan LiShuyao RuanJingwen GuoZehui HeQing XiaTong WuZhi WangZhe LiHongmei HuQian JingXuefeng HouYuanzhi HeBeibei ZhangNianping FengYongtai ZhangPublished in: Molecular pharmaceutics (2022)
Some cancer cell membrane (CCM)-derived nanovesicles show strong homing effects and are used for targeted cancer therapy. By co-constructing the B16F10 cell membrane with a PEGylated phospholipid membrane, a new nanocarrier with a composite nanocrown structure was developed, which can evade immune recognition and actively target homologous melanoma. The nanocrowns have an encapsulation efficiency of more than 90% for paclitaxel and showed no significant difference ( p > 0.05) from the PEGylated phospholipid membrane vesicles. Compared with the hyaluronic acid-modified PEGylated phospholipid membrane vesicles, the biomimetic nanocrowns enhanced the escape of nanovesicles from reticuloendothelial cells in vitro and extended the circulation time in vivo; moreover, the nanocrowns showed superior melanoma-targeted drug delivery capability and improved anticancer effects of paclitaxel as demonstrated by the inhibition of B16F10 cell proliferation and induction of apoptosis by interfering with microtubule formation. In contrast, the modification of hyaluronic acid did not increase the targeting capacity or antitumor effects of the nanocrowns, confirming that the superior targeting capacity was mediated by the exposed homologous CCMs rather than by hyaluronic acid. Our results demonstrate the potential of using biomimetic nanocrowns for active melanoma-targeted therapy.
Keyphrases
- hyaluronic acid
- cancer therapy
- drug delivery
- cell cycle arrest
- cell proliferation
- skin cancer
- drug release
- fatty acid
- induced apoptosis
- cell death
- endoplasmic reticulum stress
- magnetic resonance
- pi k akt
- basal cell carcinoma
- stem cells
- computed tomography
- squamous cell carcinoma
- cell cycle
- signaling pathway
- tissue engineering
- climate change
- risk assessment
- chemotherapy induced
- replacement therapy