Wen-Zhe Liu

Wen-Zhe Liu


Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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9 January 2019 in Frontiers in Plant Science
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Journal Article
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XNxilu ni
xilu ni
MGMeng-Yuan Gui
Meng-Yuan Gui
LTLing-Ling Tan
Ling-Ling Tan
QZQiang Zhu
Qiang Zhu
WLWen-Zhe Liu
Wen-Zhe Liu
CLChangxiao Li
Changxiao Li
Previous studies have shown that waterlogging/ hypoxic conditions induce aerenchyma formation to facilitate gas exchange. Ethylene (ET) and reactive oxygen species (ROS), as regulatory signals, might also be involved in these adaptive responses. However, the interrelationships between these signals have seldom been reported. Herein, we showed that programmed cell death (PCD) was involved in aerenchyma formation in the stem of Helianthus annuus. Lysigenous aerenchyma formation in the stem was induced through waterlogging (WA), ethylene and ROS. Pre-treatment with the NADPH oxidase inhibitor diphenyleneiodonium (DPI) partially suppressed aerenchyma formation in the seedlings after treatment with WA, ET and 3-amino-1, 2, 4-triazole (AT, catalase inhibitor). In addition, pre-treatment with the ethylene perception inhibitor 1-methylcyclopropene (1-MCP) partially suppressed aerenchyma formation induced through WA and ET in the seedlings, but barely inhibited aerenchyma formation induced through ROS. These results revealed that ethylene-mediated ROS signaling plays a role in aerenchyma formation, and there is a causal and interdependent relationship during WA, ET and ROS in PCD, which regulates signal networks in the stem of H. annuus.

5 August 2010 in Plant Biology
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Journal Article
Closed access
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WLWen-Zhe Liu
Wen-Zhe Liu
YZY.-F. Zhou
Y.-F. Zhou
XWX. Wang
X. Wang
ZJZ.-J. Jiao
Z.-J. Jiao

5 September 2017 in Annals of Botany
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Journal Article
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KYKe Yang
Ke Yang
XZXiaojun Zhou
Xiaojun Zhou
YWYueyue Wang
Yueyue Wang
HFHualing Feng
Hualing Feng
XRXiaolong Ren
Xiaolong Ren
WLWen-Zhe Liu
Wen-Zhe Liu
Tapiscia sinensis (Tapisciaceae) is a functional androdioecious species with both male and hermaphroditic individuals, and fruit ripening overlaps with flowering in the hermaphroditic individuals. Pollen vitality was lower in the hermaphrodites than in the males. Anther development requires nutrients, and carbohydrates are the basic nutrients; abnormal carbohydrate metabolism will result in pollen abortion. The aim of this research was to gain insight into the relationship between carbohydrate metabolism and the weakening of the male function of hermaphroditic flowers in T. sinensis. Observation of morphology and microscopic and sub-microscopic structures was carried out. Sugar measurements and quantitative real-time PCR analysis were performed for the genes related to sugar metabolism and transport in the development of anthers in both males and hermaphrodites. The expression pattern of Cell wall invertase 2 (CWI2) and Sucrose transporter 2 (ST2) was explored by in situ hybridization. At the vacuolate microspore (VM) stage, polysaccharides accumulated in the connective tissue of the hermaphroditic anthers, and the levels of total soluble sugar, sucrose and starch in the hermaphroditic anthers were significantly lower than in the male anthers. Most of the hermaphroditic pollen grains were empty, with degradation of the cytoplasm, absence of an intine layer and defective exines. There was a significant differential expression between male and hermaphroditic flowers of several key genes that are involved in sugar metabolism, transport and intine development. CWI2 and ST2 were expressed in the tapetum and microspores. The expression of CWI2 was significantly lower in hermaphrodites than in the males. Fruit ripening overlaps with flowering, leading to a severe reproductive burden on the hermaphroditic individuals. The hermaphroditic flowers regulating carbohydrate metabolism and transport to affect resources are biased towards the female function to ensure reproduction, causing a deficiency in resources for the development of pollen; thus, the pollen viability is lower. This makes it easier for males to invade the hermaphroditic population and form a functional androdioecious breeding system.

7 November 2010 in Protoplasma
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Journal Article
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YZYa-Fu Zhou
Ya-Fu Zhou
WLWen-Zhe Liu
Wen-Zhe Liu

1 August 2014 in Plant Science
Verified
Journal Article
Closed access
YZYa-Fu Zhou
Ya-Fu Zhou
SMShao-Li Mao
Shao-Li Mao
SLSi-Feng Li
Si-Feng Li
XNXi-Lu Ni
Xi-Lu Ni
BLBin Li
Bin Li
WLWen-Zhe Liu
Wen-Zhe Liu

Verified
Journal Article
Open access
PDF file
XZXiao-Jun Zhou
Xiao-Jun Zhou
YWYue-Yue Wang
Yue-Yue Wang
YXYa-Nan Xu
Ya-Nan Xu
Rongshan YanRongshan Yan
Rongshan Yan
Peng ZhaoPeng Zhao
Peng Zhao
WLWen-Zhe Liu
Wen-Zhe Liu
Tapiscia sinensis Oliv (Tapisciaceae) is an endangered species native to China famous for its androdioecious breeding system. However, there is a lack of genomic and transcriptome data on this species. In this study, the Tapiscia sinensis transcriptomes from two types of sex flower buds were sequenced. A total of 97,431,176 clean reads were assembled into 52,169 unigenes with an average length of 1116 bp. Through similarity comparison with known protein databases, 36,662 unigenes (70.27%) were annotated. A total of 10,002 (19.17%) unigenes were assigned to 124 pathways using the Kyoto Encyclopedia of Genes and Genomes (KEGG) pathway database. Additionally, 10,371 simple sequence repeats (SSRs) were identified in 8608 unigenes, with 16,317 pairs of primers designed for applications. 150 pairs of primers were chosen for further validation, and the 68 pairs (45.5%) were able to produce clear polymorphic bands. Six polymorphic SSR markers were used to Bayesian clustering analysis of 51 T. sinensis individuals. This is the first report to provide transcriptome information and to develop large-scale SSR molecular markers for T. sinensis. This study provides a valuable resource for conservation genetics and functional genomics research on T. sinensis for future work.