Nano-elicitation strategy to improve specialized metabolite pathways in plant cell suspension culture

利用纳米诱导策略改善植物细胞悬浮培养中的特化代谢途径

阅读:1

Abstract

Plant hormone-loaded nanoparticles (NPs) represent a novel class of materials with significant potential in plant cell culture, owing to their unique physico-chemical properties. The utilization of these hormone-loaded NPs as elicitors could enhance the production of bioactive compounds and boost antioxidant enzymatic activity in plant cell suspension cultures. Therefore, this study aimed to synthesize jasmonic acid (JA) loaded Fe(3)O(4) NPs and evaluate their effects on the cell suspension culture of Carthamus tinctorius (safflower). The synthesized material was applied at various concentrations (10, 20, 40 and 80 mg L(-1)) to assess its impact on cell growth, physio-biochemical, antioxidative activities and specialized metabolites (SMs) of C. tinctorius. The results demonstrated that the addition of JA-loaded NPs significantly enhanced the total chlorophyll (70.37%), soluble protein (154.45%) and total phenolic contents (110.64%) of safflower compared to the control. A linear decrease in all reactive oxygen species (ROS) attributes, such as H(2)O(2) (4.65%) and O(2) (-) (22.81%), was observed as the NPs concentration in the culture media was increased to the T2 group (20 mg L(-1)). Maximum chlorogenic acid (CGAs) accumulation (43.76 mg g(-1)) was noted on 72 hours after elicitation, representing a 2.26-fold increase over the control group. Furthermore, amino acid profiling revealed substantial variations in the composition of all detected amino acids following treatment with JA-loaded Fe(3)O(4) NPs. In summary, this strategy demonstrates potential for optimizing the production of antioxidant and bioactive metabolites, thereby offering a viable solution for the industrial scale production of high-quality safflower extracts.

特别声明

1、本页面内容包含部分的内容是基于公开信息的合理引用;引用内容仅为补充信息,不代表本站立场。

2、若认为本页面引用内容涉及侵权,请及时与本站联系,我们将第一时间处理。

3、其他媒体/个人如需使用本页面原创内容,需注明“来源:[生知库]”并获得授权;使用引用内容的,需自行联系原作者获得许可。

4、投稿及合作请联系:info@biocloudy.com。