Baosheng Liao

Dr. Baosheng Liao


Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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25 May 2015 in The Plant Journal
Verified
Journal Article
Closed access
PDF file
ZXZhichao Xu
Zhichao Xu
RPReuben Peters
Reuben Peters
JWJason Weirather
Jason Weirather
HLHongmei Luo
Hongmei Luo
BLBaosheng Liao
Baosheng Liao
SCShilin Chen
Shilin Chen

5 October 2017 in GigaScience
Verified
Journal Article
Open access
PDF file
JXJiang Xu
Jiang Xu
YCYang Chu
Yang Chu
BLBaosheng Liao
Baosheng Liao
SXShuiming Xiao
Shuiming Xiao
QYQinggang Yin
Qinggang Yin
SCShilin Chen
Shilin Chen
Ginseng, which contains ginsenosides as bioactive compounds, has been regarded as an important traditional medicine for several millennia. However, the genetic background of ginseng remains poorly understood, partly because of the plant's large and complex genome composition. We report the entire genome sequence of Panax ginseng using next-generation sequencing. The 3.5-Gb nucleotide sequence contains more than 60% repeats and encodes 42 006 predicted genes. Twenty-two transcriptome datasets and mass spectrometry images of ginseng roots were adopted to precisely quantify the functional genes. Thirty-one genes were identified to be involved in the mevalonic acid pathway. Eight of these genes were annotated as 3-hydroxy-3-methylglutaryl-CoA reductases, which displayed diverse structures and expression characteristics. A total of 225 UDP-glycosyltransferases (UGTs) were identified, and these UGTs accounted for one of the largest gene families of ginseng. Tandem repeats contributed to the duplication and divergence of UGTs. Molecular modeling of UGTs in the 71st, 74th, and 94th families revealed a regiospecific conserved motif located at the N-terminus. Molecular docking predicted that this motif captures ginsenoside precursors. The ginseng genome represents a valuable resource for understanding and improving the breeding, cultivation, and synthesis biology of this key herb.

11 August 2017 in Molecules
Verified
Journal Article
Open access
PDF file
XSXiaofeng Shen
Xiaofeng Shen
MWMingli Wu
Mingli Wu
BLBaosheng Liao
Baosheng Liao
ZLZhixiang Liu
Zhixiang Liu
RBRui Bai
Rui Bai
SCShilin Chen
Shilin Chen
The complete chloroplast genome of Artemisia annua (Asteraceae), the primary source of artemisinin, was sequenced and analyzed. The A. annua cp genome is 150,995 bp, and harbors a pair of inverted repeat regions (IRa and IRb), of 24,850 bp each that separate large (LSC, 82,988 bp) and small (SSC, 18,267 bp) single-copy regions. Our annotation revealed that the A. annua cp genome contains 113 genes and 18 duplicated genes. The gene order in the SSC region of A. annua is inverted; this fact is consistent with the sequences of chloroplast genomes from three other Artemisia species. Fifteen (15) forward and seventeen (17) inverted repeats were detected in the genome. The existence of rich SSR loci in the genome suggests opportunities for future population genetics work on this anti-malarial medicinal plant. In A. annua cpDNA, the rps19 gene was found in the LSC region rather than the IR region, and the rps19 pseudogene was absent in the IR region. Sequence divergence analysis of five Asteraceae species indicated that the most highly divergent regions were found in the intergenic spacers, and that the differences between A. annua and A. fukudo were very slight. A phylogenetic analysis revealed a sister relationship between A. annua and A. fukudo. This study identified the unique characteristics of the A. annua cp genome. These results offer valuable information for future research on Artemisia species identification and for the selective breeding of A. annua with high pharmaceutical efficacy.

7 January 2016 in Scientific Reports
Verified
Journal Article
Open access
JHJianping Han
Jianping Han
XPXiaohui Pang
Xiaohui Pang
BLBaosheng Liao
Baosheng Liao
HYHui Yao
Hui Yao
JSJingyuan Song
Jingyuan Song
SCShilin Chen
Shilin Chen
Adulterant herbal materials are a threat to consumer safety. In this study, we used DNA barcoding to investigate the proportions and varieties of adulterant species in traditional Chinese medicine (TCM) markets. We used a DNA barcode database of TCM (TCMD) that was established by our group to investigate 1436 samples representing 295 medicinal species from 7 primary TCM markets in China. The results indicate that ITS2 barcodes could be generated for most of the samples (87.7%) using a standard protocol. Of the 1260 samples, approximately 4.2% were identified as adulterants. The adulterant focused on medicinal species such as Ginseng Radix et Rhizoma (Renshen), Radix Rubi Parvifolii (Maomeigen), Dalbergiae odoriferae Lignum (Jiangxiang), Acori Tatarinowii Rhizoma (Shichangpu), Inulae Flos (Xuanfuhua), Lonicerae Japonicae Flos (Jinyinhua), Acanthopanacis Cortex (Wujiapi) and Bupleuri Radix (Chaihu). The survey revealed that adulterant species are present in the Chinese market and these adulterants pose a risk to consumer health. Thus, regulatory measures should be adopted immediately. We suggest that a traceable platform based on DNA barcode sequences be established for TCM market supervision.

1 June 2022 in Molecular Plant
Verified
Journal Article
Closed access
BLBaosheng Liao
Baosheng Liao
XSXiaofeng Shen
Xiaofeng Shen
LXLi Xiang
Li Xiang
SGShuai Guo
Shuai Guo
SCShiyu Chen
Shiyu Chen
SCShilin Chen
Shilin Chen

1 November 2013 in Gene
Verified
Journal Article
Closed access
XCXiaochen Chen
Xiaochen Chen
BLBaosheng Liao
Baosheng Liao
JSJingyuan Song
Jingyuan Song
XPXiaohui Pang
Xiaohui Pang
JHJianping Han
Jianping Han
SCShilin Chen
Shilin Chen