Chromosome Doubling Enhances Biomass and Carotenoid Content in Lycium chinense
文献类型: 外文期刊
第一作者: Zhang, Runan
作者: Zhang, Runan;Rao, Shupei;Wang, Yuchang;Qin, Yingzhi;Chen, Jinhuan;Qin, Ken
作者机构:
关键词: colchicine; polyploid induction; tetraploid; morphological features; nutrient composition; Lycium
期刊名称:PLANTS-BASEL ( 影响因子:4.5; 五年影响因子:4.8 )
ISSN: 2223-7747
年卷期: 2024 年 13 卷 3 期
页码:
收录情况: SCI
摘要: Lycium chinense, a type of medicinal and edible plant, is rich in bioactive compounds beneficial to human health. In order to meet the market requirements for the yield and quality of L. chinense, polyploid induction is usually an effective way to increase plant biomass and improve the content of bioactive components. This study established the most effective tetraploid induction protocol by assessing various preculture durations, colchicine concentrations, and exposure times. The peak tetraploid induction efficacy, 18.2%, was achieved with a 12-day preculture and 24-h exposure to 50 mg L-1 colchicine. Compared to diploids, tetraploids exhibited potentially advantageous characteristics such as larger leaves, more robust stems, and faster growth rates. Physiologically, tetraploids demonstrated increased stomatal size and chloroplast count in stomata but reduced stomatal density. Nutrient analysis revealed a substantial increase in polysaccharides, calcium, iron, and zinc in tetraploid leaves. In addition, seventeen carotenoids were identified in the leaves of L. chinense. Compared to the diploid, lutein, beta-carotene, neoxanthin, violaxanthin, and (E/Z)-phytoene exhibited higher levels in tetraploid strains T39 and T1, with T39 demonstrating a greater accumulation than T1. The findings suggest that the generated tetraploids harbor potential for further exploitation and lay the foundation for the selection and breeding of novel genetic resources of Lycium.
分类号:
- 相关文献
作者其他论文 更多>>
-
Genome-Wide Identification of PYL/RCAR ABA Receptors and Functional Analysis of LbPYL10 in Heat Tolerance in Goji (Lycium barbarum)
作者:Li, Zeyu;Liu, Jiyao;Chen, Yan;He, Wei;Liang, Aihua;Mu, Zixin;Liang, Aihua;Mu, Zixin;Liang, Aihua;Mu, Zixin;Qin, Xiaoya;Qin, Ken
关键词:Lycium barbarum; ABA signaling; PYL/RCAR ABA receptors; genome-wide; heat stress
-
A mutation in LPAR2 activates the miR-939-5p-LPAR2-PI3K/AKT axis to regulate the proliferation and apoptosis of granulosa cells in sheep
作者:Zhang, Runan;Wang, Linjie;Zhang, Runan;Liu, Yufang;Li, Wentao;Wang, Peng;Liu, Ziyi;Chu, Mingxing;Wen, Yuliang;Chu, Mingxing
关键词:Sheep; Litter size; Granulosa cell proliferation; LPAR2; Single-nucleotide polymorphism (SNP)
-
NTRK2 Promotes Sheep Granulosa Cells Proliferation and Reproductive Hormone Secretion and Activates the PI3K/AKT Pathway
作者:Jia, Yuhang;Zhao, Ayong;Jia, Yuhang;Liu, Yufang;Wang, Peng;Liu, Ziyi;Zhang, Runan;Chu, Mingxing
关键词:sheep; granulosa cells proliferation; steroid hormone secretion; NTRK2; PI3K/AKT pathway
-
Localization of S-Locus-Related Self-Incompatibility in Lycium barbarum Based on BSA Analysis
作者:Wang, Cuiping;Wu, Jiali;Shang, Xiaohui;Ma, Haijun;Zhang, Xin;Xu, Wendi;Wang, Cuiping;Gao, Yan;Dai, Guoli;Qin, Ken;Ma, Haijun
关键词:Lycium barbarum; self-incompatibility; S locus; bulked segregant analysis
-
The SLC19A1-AS/miR-1343/WNT11 axis is a novel positive regulatory ceRNA network governing goat granulosa cell proliferation
作者:Zhang, Runan;Zhou, Zuyang;Wang, Peng;He, Xiaoyun;Liu, Yufang;Chu, Mingxing
关键词:Granulosa cell proliferation; Noncoding RNA; Goat
-
Mapping quantitative trait loci associated with self-(in)compatibility in goji berries (Lycium barbarum)
作者:Wang, Cuiping;Shang, Xiaohui;Wu, Jiali;Ma, Haijun;Wei, Zhaojun;Wang, Cuiping;Qin, Ken;Gao, Yan;Dai, Guoli;Ma, Haijun
关键词:Lycium barbarum; Genetic map; Self-incompatibility; Quantitative trait loci; S-factor
-
Genome-wide analysis of the TIFY family in Lycium and the negative regulation of stomatal development by LrJAZ2 gene
作者:Zhao, Jiqing;Li, Aijia;Xu, Meng;Chen, Jinhuan;Zhao, Jiqing;Chen, Jinhuan;Zhao, Jiqing;Chen, Jinhuan;Li, Aijia;Dai, Guoli
关键词:TIFY family; Lycium; Jasmonic acid; LrJAZ2; Stomatal development