Fang Leyao, Shen Junxi, Wu Yi, Tan Zhoujin
School of Traditional Chinese Medicine, Hunan University of Chinese Medicine, Hanpu Science and Education Park, Yuelu District, Changsha, Hunan 410208 People's Republic of China.
3 Biotech. 2025 Jan;15(1):6. doi: 10.1007/s13205-024-04180-7. Epub 2024 Dec 12.
Adenine is frequently utilized as a model medication for chronic renal disease. Adenine can affect organs other than the kidneys, including the heart and the intestine. The liver is a vital organ involved in the in vivo metabolism of adenine. Adenine may negatively impact liver function. Research indicated that adenine caused dysbiosis of the gut microbiota in mice. Investigations into the gut-liver axis have demonstrated a substantial association between drug-induced hepatic dysfunction and gut microbiota. Consequently, we delivered distinct dosages of adenine via gavage to mice to examine the correlation between adenine-induced liver impairment and gut microbiota dysbiosis. Mice were treated with low-dose adenine suspension (NLA), medium-dose adenine suspension (NMA), high-dose adenine suspension (NHA), and sterile water (NC) as a control. The results indicated that mice in the NLA, NMA, and NHA groups had decreased body weight and a reduction in liver index. Subsequent to adenine administration, the concentrations of AST, ALT, and LDH increased, whereas SDH levels decreased. As doses increased, liver function impairment and hepatic energy metabolism abnormalities aggravated. Adenine also damaged the colonic architecture in mice. Moreover, adenine modified the makeup and structure of the gut mucosal microbiota, enhancing specific bacterial genera and influencing the microbiota's energy metabolism-related functions. The results of our research established a correlation among certain bacteria, liver function injury, and hepatic energy metabolism. The gut mucosal microbiota was involved in adenine-induced liver injury and hepatic energy metabolism. These results can offer novel insights into the role of gut microbiota in drug-induced liver injury and provide specific guidelines for the modeling and therapeutic application of adenine.
腺嘌呤常被用作慢性肾病的模型药物。腺嘌呤会影响肾脏以外的器官,包括心脏和肠道。肝脏是参与腺嘌呤体内代谢的重要器官。腺嘌呤可能会对肝功能产生负面影响。研究表明,腺嘌呤会导致小鼠肠道微生物群失调。对肠-肝轴的研究表明,药物性肝损伤与肠道微生物群之间存在密切关联。因此,我们通过灌胃给小鼠施用不同剂量的腺嘌呤,以研究腺嘌呤诱导的肝损伤与肠道微生物群失调之间的相关性。将小鼠分为低剂量腺嘌呤悬液组(NLA)、中剂量腺嘌呤悬液组(NMA)、高剂量腺嘌呤悬液组(NHA),并以无菌水(NC)作为对照。结果表明,NLA、NMA和NHA组的小鼠体重下降,肝脏指数降低。给予腺嘌呤后,AST、ALT和LDH的浓度升高,而SDH水平降低。随着剂量增加,肝功能损伤和肝脏能量代谢异常加剧。腺嘌呤还破坏了小鼠的结肠结构。此外,腺嘌呤改变了肠道黏膜微生物群的组成和结构,增加了特定细菌属的数量,并影响了微生物群与能量代谢相关的功能。我们的研究结果确定了某些细菌、肝功能损伤和肝脏能量代谢之间的相关性。肠道黏膜微生物群参与了腺嘌呤诱导的肝损伤和肝脏能量代谢。这些结果可为肠道微生物群在药物性肝损伤中的作用提供新的见解,并为腺嘌呤的建模和治疗应用提供具体指导。