Harnessing transcription factor-driven ROS for synergistic multimodal lung cancer treatment.
Ye ZhouSimeng WangJiahua GuoChenghao LiMengjun SuiZekun ZengHui DangQingqing GuJian ZhuYangyang ChengPeng HouPublished in: Journal of controlled release : official journal of the Controlled Release Society (2024)
Multimodal treatment of cancer is an unstoppable revolution in clinical application. However, designing a platform that integrates therapeutic modalities with different pharmacokinetic characteristics remains a great challenge. Herein, we designed a universal lipid nanoplatform equipping a ROS-cleavable docetaxel prodrug (DTX-L-DTX) and an NF-E2-related factor 2 (NRF2) inhibitor (clobetasol propionate, CP). This simply fabricated nanomedicine enables superior synergistic molecularly targeted/chemo/radio therapy for lung cancer cascade by a transcription factor-driven ROS self-sustainable motion. Chemotherapy is launched via ROS-triggered DTX release. Subsequently, CP inhibits the expression of NRF2 target genes, resulting in efficient targeted therapy, meanwhile inducing sustained ROS generation which in turn facilitates chemotherapy by overcoming ROS consumption during the DTX release process. Finally, the introduction of radiotherapy further amplifies ROS, offering continuous mutual feedback to amplify the ultimate treatment performance. This strategy is conceptually and operationally simple, providing solutions to challenges in clinical cancer treatment and beyond.
Keyphrases
- cell death
- dna damage
- cancer therapy
- reactive oxygen species
- transcription factor
- locally advanced
- oxidative stress
- poor prognosis
- photodynamic therapy
- combination therapy
- pain management
- gene expression
- dna methylation
- high resolution
- binding protein
- drug release
- chronic pain
- deep learning
- inflammatory response
- radiation induced
- smoking cessation
- big data