Piezoelectric Analgesia Blocks Cancer-Induced Bone Pain.
Yifei YinPeiran ZhaoXianyun XuBangguo ZhouJian ChenXingwu JiangYanyan LiuYelin WuWenwen YueHuixiong XuWen-Bo BuPublished in: Advanced materials (Deerfield Beach, Fla.) (2024)
The manipulation of cell surface receptors' activity will open a new frontier for drug development and disease treatment. However, limited by the desensitization of drugs, effective physical intervention strategy remains challenging. Here, the controllable internalization of transient receptor potential vanilloid 1 (TRPV1) on neural cells by local piezoelectric field is reported. Single-cell-level local electric field is construct by synthesizing piezoelectric BiOIO 3 nanosheets (BIONSs). Upon a mild ultrasound of 0.08 W cm -2 , an electric field of 15.29 µV is generated on the surface of BIONSs, further inducing TRPV1 internalization in 5 min. The as-downregulated TRPV1 expression results in the reduction of Ca 2+ signal in a spinal neuron and the inhibition of the activity of wide range dynamic neurons, therefore effectively preventing the transmission of cancer-induced bone pain (CIBP). This strategy not only charts a new course for CIBP alleviation, but also introduces a promising nanotechnology for regulating cell surface receptors, showing significant potential in neuropathological and receptor-related diseases.
Keyphrases
- cell surface
- neuropathic pain
- spinal cord
- pain management
- papillary thyroid
- chronic pain
- high glucose
- single cell
- diabetic rats
- drug induced
- bone mineral density
- poor prognosis
- induced apoptosis
- randomized controlled trial
- squamous cell
- physical activity
- postoperative pain
- binding protein
- quantum dots
- endothelial cells
- gold nanoparticles
- squamous cell carcinoma
- lymph node metastasis
- postmenopausal women
- climate change
- young adults
- signaling pathway
- long non coding rna
- cerebral ischemia