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Your search keyword '"Yu, Liangqian"' showing total 17 results
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17 results on '"Yu, Liangqian"'

5. Cover Image

Author

Zhang, Guofang, primary, Zhou, Jinzhi, additional, Peng, Yan, additional, Tan, Zengdong, additional, Zhang, Yuting, additional, Zhao, Hu, additional, Liu, Dongxu, additional, Liu, Xiao, additional, Li, Long, additional, Yu, Liangqian, additional, Jin, Cheng, additional, Fang, Shuai, additional, Shi, Jiawei, additional, Geng, Zedong, additional, Yang, Shanjing, additional, Chen, Guoxing, additional, Liu, Kede, additional, Yang, Qingyong, additional, Feng, Hui, additional, Guo, Liang, additional, and Yang, Wanneng, additional

Published
2023
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7. High‐throughput phenotyping‐based quantitative trait loci mapping reveals the genetic architecture of the salt stress tolerance of Brassica napus

Author

Zhang, Guofang, primary, Zhou, Jinzhi, additional, Peng, Yan, additional, Tan, Zengdong, additional, Zhang, Yuting, additional, Zhao, Hu, additional, Liu, Dongxu, additional, Liu, Xiao, additional, Li, Long, additional, Yu, Liangqian, additional, Jin, Cheng, additional, Fang, Shuai, additional, Shi, Jiawei, additional, Geng, Zedong, additional, Yang, Shanjing, additional, Chen, Guoxing, additional, Liu, Kede, additional, Yang, Qingyong, additional, Feng, Hui, additional, Guo, Liang, additional, and Yang, Wanneng, additional

Published
2022
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9. High‐throughput phenotyping‐based quantitative trait loci mapping reveals the genetic architecture of the salt stress tolerance of Brassica napus.

Author

Zhang, Guofang, Zhou, Jinzhi, Peng, Yan, Tan, Zengdong, Zhang, Yuting, Zhao, Hu, Liu, Dongxu, Liu, Xiao, Li, Long, Yu, Liangqian, Jin, Cheng, Fang, Shuai, Shi, Jiawei, Geng, Zedong, Yang, Shanjing, Chen, Guoxing, Liu, Kede, Yang, Qingyong, Feng, Hui, and Guo, Liang

Subjects
RAPESEED, STRAINS & stresses (Mechanics), GENE mapping, GENOME-wide association studies, GERMPLASM
Abstract

Salt stress is a major limiting factor that severely affects the survival and growth of crops. It is important to understand the salt stress tolerance ability of Brassica napus and explore the underlying related genetic resources. We used a high‐throughput phenotyping platform to quantify 2111 image‐based traits (i‐traits) of a natural population under three different salt stress conditions and an intervarietal substitution line (ISL) population under nine different stress conditions to monitor and evaluate the salt stress tolerance of B. napus over time. We finally identified 928 high‐quality i‐traits associated with the salt stress tolerance of B. napus. Moreover, we mapped the salt stress‐related loci in the natural population via a genome‐wide association study and performed a linkage analysis associated with the ISL population, respectively. These results revealed 234 candidate genes associated with salt stress response, and two novel candidate genes, BnCKX5 and BnERF3, were experimentally verified to regulate the salt stress tolerance of B. napus. This study demonstrates the feasibility of using high‐throughput phenotyping‐based quantitative trait loci mapping to accurately and comprehensively quantify i‐traits associated with B. napus. The mapped loci could be used for genomics‐assisted breeding to genetically improve the salt stress tolerance of B. napus. [ABSTRACT FROM AUTHOR]

Published
2023
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11. Dendroremediation Potential of Six Quercus Species to Polluted Soil in Historic Copper Mining Sites.

Author

Cao, Yini, Yu, Liangqian, Dang, Ning, Sun, Lixiang, Zhang, Pingxuan, Cao, Jiwu, and Chen, Guangcai

Subjects
COPPER mining, COPPER in soils, SOIL remediation, OAK, COPPER, SOILS
Abstract

Green remediation of severely contaminated soils around mining sites can be achieved using suitable woody plants such as Quercus species, but their phytoremediation potential has not been well evaluated yet. Six Quercus species, which were popular in ecological restoration and landscape application in east China, were selected and evaluated for their phytoremediation potential of metal polluted soil using a pot experiment that lasted for 150 d. The results suggested that Quercus species exhibited high tolerance to multi-metal contamination of Cu (9839 mg · kg−1), Cd (8.5 mg · kg−1), and Zn (562 mg · kg−1) with a tolerance index (TI) ranging from 0.52 to 1.21. Three Quercus (Q. pagoda, Q. acutissima, and Q. nuttallii) showed relatively higher tolerance with TIs of 1.08, 1.09, and 1.21, respectively. Above-ground tissues accounted for most of the total biomass in T1 (mixture of clean and polluted soil, 50%) and T2 (100% polluted soil) treatments for most species. The Cu contents in plant tissues were in the order of root > leaf > stem, whereas Zn exhibited the order of leaf > stem > root, and Cd showed divergent mobility within the Quercus species. All the Quercus species exhibited higher capacity for Zn phytoextraction with translocation factor (TF) over 1 and Cu/Cd phytostabilization with TFs lower than 1. The analytic hierarchy process-entropy weight model indicated that Q. virginiana and Q. acutissima were two excellent species with evident phytoremediation capacity of Cu, Cd, and Zn co-contaminated soil. Taken together, Quercus species showed great potential for phytoremediation of soils severely polluted by Cu, Cd, and Zn around historic mining sites. Application of Quercus species is a green remediation option with low-maintenance cost and prospective economic benefit for phytomanagement of historic mining sites. [ABSTRACT FROM AUTHOR]

Published
2023
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13. BnTIR: an online transcriptome platform for exploring RNA‐seq libraries for oil crop Brassica napus

Author

Liu, Dongxu, primary, Yu, Liangqian, additional, Wei, Lulu, additional, Yu, Pugang, additional, Wang, Jing, additional, Zhao, Hu, additional, Zhang, Yuting, additional, Zhang, Shuntai, additional, Yang, Zhiquan, additional, Chen, Guanqun, additional, Yao, Xuan, additional, Yang, Yanjun, additional, Zhou, Yongming, additional, Wang, Xuemin, additional, Lu, Shaoping, additional, Dai, Cheng, additional, Yang, Qing‐Yong, additional, and Guo, Liang, additional

Published
2021
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14. Genome- and transcriptome-wide association studies provide insights into the genetic basis of natural variation of seed oil content in Brassica napus

Author

Tang, Shan, primary, Zhao, Hu, additional, Lu, Shaoping, additional, Yu, Liangqian, additional, Zhang, Guofang, additional, Zhang, Yuting, additional, Yang, Qing-Yong, additional, Zhou, Yongming, additional, Wang, Xuemin, additional, Ma, Wei, additional, Xie, Weibo, additional, and Guo, Liang, additional

Published
2021
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17. Proteome-wide identification of S-sulfenylated cysteines response to salt stress in Brassica napusroot

Author

Qu, Qian, Wu, Xiaowei, Zhou, Qing, Lu, Shaoping, Yao, Xuan, Guo, Liang, and Yu, Liangqian

Abstract

Reactive oxygen species (ROS) play a key role in a variety of biological processes, such as the perception of abiotic stress, the integration of different environmental signals, and the activation of stress response networks. Salt stress leads to an increased ROS accumulation in plants, disrupting intracellular redox homeostasis, leading to post-translational modifications (PTMs) of specific proteins, and eventually to cause adaptive changes in metabolism. Here, we performed an iodoTMT-based proteomic approach to identify sulfenylated proteins response to salt in B. napusroot. Totally, 1348 sulfenylated sites in 751 proteins were identified and these proteins were widely existed in different cell compartments and processes. Our study revealed that proteins with changed abundance and sulfenylation level in B. napusroot under salt stress were mainly enriched in the biological processes of ion binding, glycolysis, ATP binding, and oxidative stress response. This study displays a landscape of sulfenylated proteins response to salt stress in B. napusroot and provides some theoretical support for further understanding of the molecular mechanisms of redox regulation under salt stress in plants.

Published
2024
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