Touming Liu

Dr. Touming Liu

Institute of Bast Fiber Crops, Chinese Academy of Agricultural Sciences, Changsha 410205, China

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

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

Representative Publications

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1 September 2020 in Molecular Plant
Verified
Journal Article
Closed access
XSXiudong Sun
Xiudong Sun
SZSiyuan Zhu
Siyuan Zhu
NLNingyang Li
Ningyang Li
YCYi Cheng
Yi Cheng
JZJing Zhao
Jing Zhao
Touming LiuTouming Liu
Touming Liu

3 June 2021 in Planta
Verified
Journal Article
Closed access
PDF file
QHQiaoyun He
Qiaoyun He
ZZZheng Zeng
Zheng Zeng
FLFu Li
Fu Li
RHRenyan Huang
Renyan Huang
YWYanzhou Wang
Yanzhou Wang
Touming LiuTouming Liu
Touming Liu

1 April 2020 in iScience
Verified
Journal Article
Open access
JZJianping Zhang
Jianping Zhang
YQYanni Qi
Yanni Qi
LWLimin Wang
Limin Wang
LWLili Wang
Lili Wang
XYXingchu Yan
Xingchu Yan
Touming LiuTouming Liu
Touming Liu
Flax has been cultivated for its oil and fiber for thousands of years. However, it remains unclear how the modifications of agronomic traits occurred on the genetic level during flax cultivation. In this study, we conducted genome-wide variation analyses on multiple accessions of oil-use, fiber-use, landraces, and pale flax to identify the genomic variations during flax cultivation. Our findings indicate that, during flax domestication, genes relevant to flowering, dehiscence, oil production, and plant architecture were preferentially selected. Furthermore, regardless of origins, the improvement of the modern oil-use flax preceded that of the fiber-use flax, although the dual selection on oil-use and fiber-use characteristics might have occurred in the early flax domestication. We also found that the expansion of MYB46/MYB83 genes may have contributed to the unique secondary cell wall biosynthesis in flax and the directional selections on MYB46/MYB83 may have shaped the morphological profile of the current oil-use and fiber-use flax.

16 May 2021 in The Plant Journal
Verified
Journal Article
Closed access
PDF file
YWYanzhou Wang
Yanzhou Wang
FLFu Li
Fu Li
QHQiaoyun He
Qiaoyun He
ZBZhigui Bao
Zhigui Bao
ZZZheng Zeng
Zheng Zeng
Touming LiuTouming Liu
Touming Liu

Verified
Journal Article
Open access
PDF file
SMShiyong Mei
Shiyong Mei
Touming LiuTouming Liu
Touming Liu
ZWZhiwei Wang
Zhiwei Wang
Radish cytoplasmic male sterility (CMS) has been widely used for breeding in Raphanus and Brassica genera. However, the detailed regulation network of the male sterility remains to be determined. Our previous work has shown that the abnormalities in a CMS radish appeared shortly after the tetrad stage when microspores were malformed and the tapetal cells grew abnormally large. In this work, histological analysis shows that anthers are at the tetrad stage when the radish buds are about 1.5 mm in length. Furthermore, a high throughput RNA sequencing technology was employed to characterize the transcriptome of radish buds with length about 1.5 mm from two CMS lines possessing the CMS-inducing orf138 gene and corresponding near-isogenic maintainer lines. A total of 67,140 unigenes were functionally annotated. Functional terms for these genes are significantly enriched in 55 Gene Ontology (GO) groups and 323 Kyoto Encyclopedia of Genes and Genomes (KEGG) pathways. The transcriptome detected transcripts for 72 out of a total of 79 protein genes encoded in the chloroplast genome from radish. In contrast, the radish mitochondrial genome contains 34 protein genes, but only 16 protein transcripts were detected from the transcriptome. The transcriptome comparison between CMS and near-isogenic maintainer lines revealed 539 differentially expressed genes (DEGs), indicating that the false positive rate for comparative transcriptome profiling was clearly decreased using two groups of CMS/maintainer lines with different nuclear background. The level of 127 transcripts was increased and 412 transcripts were decreased in the CMS lines. No change in levels of transcripts except CMS-inducing orf138 was identified from the mitochondrial and chloroplast genomes. Some DEGs which would be associated with the CMS, encoding MYB and bHLH transcription factors, pentatricopeptide repeat (PPR) proteins, heat shock transcription factors (HSFs) and heat shock proteins (HSPs), are discussed. The transcriptome dataset and comparative analysis will provide an important resource for further understanding anther development, the CMS mechanism and to improve molecular breeding in radish.

15 November 2017 in DNA Research
Verified
Journal Article
Open access
PDF file
CLChan Liu
Chan Liu
LZLiangbin Zeng
Liangbin Zeng
SZSiyuan Zhu
Siyuan Zhu
LWLingqing Wu
Lingqing Wu
YWYanzhou Wang
Yanzhou Wang
Touming LiuTouming Liu
Touming Liu
Plentiful bast fiber, a high crude protein content, and vigorous vegetative growth make ramie a popular fiber and forage crop. Here, we report the draft genome of ramie, along with a genomic comparison and evolutionary analysis. The draft genome contained a sequence of approximately 335.6 Mb with 42,463 predicted genes. A high-density genetic map with 4,338 single nucleotide polymorphisms (SNPs) was developed and used to anchor the genome sequence, thus, creating an integrated genetic and physical map containing a 58.2-Mb genome sequence and 4,304 molecular markers. A genomic comparison identified 1,075 unique gene families in ramie, containing 4,082 genes. Among these unique genes, five were cellulose synthase genes that were specifically expressed in stem bark, and 3 encoded a WAT1-related protein, suggesting that they are probably related to high bast fiber yield. An evolutionary analysis detected 106 positively selected genes, 22 of which were related to nitrogen metabolism, indicating that they are probably responsible for the crude protein content and vegetative growth of domesticated varieties. This study is the first to characterize the genome and develop a high-density genetic map of ramie and provides a basis for the genetic and molecular study of this crop.