Zhang Xiaoyan, Jiang Shengnan, Sun Tingting, Zhi Wenbing, Ding Kairu, Qiao Ziyao, Zhang Hong, Li Ye, Liu Yang
Institute of Chinese Medicine, Shaanxi Academy of Traditional Chinese Medicine (Shaanxi Traditional Chinese Medicine Hospital), Xi'an, China.
College of Life Sciences, Northwest University, Xi'an, China.
Front Pharmacol. 2024 Dec 9;15:1489777. doi: 10.3389/fphar.2024.1489777. eCollection 2024.
Processing methods of traditional Chinese medicinal materials are critical in influencing the active metabolites and pharmacological effects. The fresh processing method effectively prevents the loss and degradation of metabolites, common in traditional drying and softening processes, while also reducing production costs. (AR), a leguminous botanical drug, is widely utilized in clinical practice and functional foods. Therefore, optimizing its the post-harvest processing method is crucial for enhancing production and application.
AR samples were processed using different methods with varying moisture content, including unpretreated samples and those subjected to kneading and sweating treatments. These samples were evaluated for physical appearance and active metabolite content. The entropy weight method, combined with the technique for order preference by similarity to ideal solution (TOPSIS), was employed to optimize the fresh processing method. A comparative study between freshly processed AR (AR-F) and traditionally processed AR (AR-T) assessed active metabolites, pharmacological effects and mechanisms.
The appearance and active metabolites content of AR samples were affected by moisture content, kneading, and sweating treatments. After these treatments, the content of polysaccharides and calycosin-7-O-glucoside increased compared to unpretreated samples at the same moisture level. Entropy weight-TOPSIS analysis showed that the sample with 35% moisture, 100 kneading cycles, and 12 h of sweating had the highest score. Comparative studies revealed that AR-F had significantly higher content of total polysaccharides, total flavonoids, and calycosin-7-O-glucoside compared to AR-T, along with an increased flavonoid glycoside/aglycone ratio. However, no significant differences were observed in the total saponins and their metabolites. Pharmacological studies demonstrated that total flavonoids in AR-F exhibited superior macrophage RAW264.7 activation, compared to AR-T. Furthermore, we confirmed that the enhanced immunomodulatory capacity of AR-F was linked to its ability to stimulate the release of TNF, SRC, ER-α, AKT, HSP90, and Caspase-3 in RAW264.7 cells.
Our study optimized the fresh processing method of AR, and conducted a systematic comparative analysis between fresh and traditional processing samples, providing a basis for post-harvest processing in the AR production areas.
中药材的加工方法对活性代谢产物和药理作用至关重要。鲜加工方法有效防止了传统干燥和软化过程中常见的代谢产物损失和降解,同时还降低了生产成本。广豆根(AR),一种豆科植物药,在临床实践和功能性食品中广泛应用。因此,优化其采收后加工方法对提高产量和应用至关重要。
采用不同含水量的不同方法处理AR样品,包括未预处理样品以及经过揉搓和发汗处理的样品。对这些样品的外观和活性代谢产物含量进行评估。采用熵权法结合逼近理想解排序法(TOPSIS)优化鲜加工方法。对鲜加工广豆根(AR-F)和传统加工广豆根(AR-T)进行比较研究,评估活性代谢产物、药理作用及机制。
广豆根样品的外观和活性代谢产物含量受含水量、揉搓和发汗处理影响。经过这些处理后,与相同含水量的未预处理样品相比,多糖和毛蕊异黄酮葡萄糖苷含量增加。熵权-TOPSIS分析表明,含水量35%、揉搓100次、发汗12小时的样品得分最高。比较研究显示,与AR-T相比,AR-F的总多糖、总黄酮和毛蕊异黄酮葡萄糖苷含量显著更高,黄酮糖苷/苷元比值增加。然而,总皂苷及其代谢产物未观察到显著差异。药理研究表明,与AR-T相比,AR-F中的总黄酮对巨噬细胞RAW264.7的激活作用更强。此外,我们证实AR-F增强的免疫调节能力与其刺激RAW264.7细胞释放TNF、SRC、ER-α、AKT、HSP90和Caspase-3的能力有关。
我们的研究优化了广豆根的鲜加工方法,并对鲜加工和传统加工样品进行了系统的比较分析,为广豆根产区的采收后加工提供了依据。