Reducing alcohol and/or cocaine-induced reward and toxicity via an epidermal stem cell-based gene delivery platform.
Qingyao KongYuanyuan LiJiping YueXiaoyang WuMing XuPublished in: Molecular psychiatry (2021)
Alcohol use disorder (AUD) is one of the foremost public health problems. Alcohol is also frequently co-abused with cocaine. There is a huge unmet need for the treatment of AUD and/or cocaine co-abuse. We recently demonstrated that skin grafts generated from mouse epidermal stem cells that had been engineered by CRISPR-mediated genome editing could be transplanted onto mice as a gene delivery platform. Here, we show that expression of the glucagon-like peptide-1 (GLP1) gene delivered by epidermal stem cells attenuated development and reinstatement of alcohol-induced drug-taking and seeking as well as voluntary oral alcohol consumption. GLP1 derived from the skin grafts decreased alcohol-induced increase in dopamine levels in the nucleus accumbens. In exploring the potential of this platform in reducing concurrent use of drugs, we developed a novel co-grafting procedure for both modified human butyrylcholinesterase (hBChE)- and GLP1-expressing cells. Epidermal stem cell-derived hBChE and GLP1 reduced acquisition of drug-taking and toxicity induced by alcohol and cocaine co-administration. These results imply that cutaneous gene delivery through skin transplants may add a new option to treat drug abuse and co-abuse.
Keyphrases
- alcohol consumption
- stem cells
- wound healing
- genome editing
- crispr cas
- drug induced
- alcohol use disorder
- public health
- high glucose
- diabetic rats
- mental health
- endothelial cells
- high throughput
- oxidative stress
- prefrontal cortex
- soft tissue
- cell therapy
- induced apoptosis
- poor prognosis
- type diabetes
- adverse drug
- risk assessment
- uric acid
- adipose tissue
- copy number
- climate change
- mesenchymal stem cells
- metabolic syndrome
- transcription factor
- binding protein
- cell death
- cell cycle arrest
- smoking cessation
- pi k akt
- induced pluripotent stem cells
- replacement therapy