Yuying Liao

Yuying Liao


Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

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

Representative Publications

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1 April 2016 in Molecular Biology Reports
Verified
Journal Article
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YLYuying Liao
Yuying Liao
GMGuodong Mo
Guodong Mo
JSJunli Sun
Junli Sun
FWFengying Wei
Fengying Wei
DLDezhong Liao
Dezhong Liao

21 November 2019 in Journal of Biological Engineering
Verified
Journal Article
Open access
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LXLong Xie
Long Xie
JSJuanjuan Sun
Juanjuan Sun
LMLifen Mo
Lifen Mo
TXTianpeng Xu
Tianpeng Xu
QSQaisar Shahzad
Qaisar Shahzad
YLYangqing Lu
Yangqing Lu
Background: The production of transgenic chicken cells holds great promise for several diverse areas, including developmental biology and biomedical research. To this end, site-specific gene integration has been an attractive strategy for generating transgenic chicken cell lines and has been successfully adopted for inserting desired genes and regulating specific gene expression patterns. However, optimization of this method is essential for improving the efficiency of genome modification in this species. Results: Here we compare gene knock-in methods based on homology-independent targeted integration (HITI), homology-directed repair (HDR) and homology mediated end joining (HMEJ) coupled with a clustered regularly interspaced short palindromic repeat associated protein 9 (CRISPR/Cas9) gene editing system in chicken DF-1 cells and primordial germ cells (PGCs). HMEJ was found to be a robust and efficient method for gene knock-in in chicken PGCs. Using this method, we successfully labeled the germ cell specific gene DAZL and the pluripotency-related gene Pou5f3 in chicken PGCs through the insertion of a fluorescent protein in the frame at the 3′ end of the gene, allowing us to track cell migration in the embryonic gonad. HMEJ strategy was also successfully used in Ovalbumin, which accounts for more than 60% of proteins in chicken eggs, suggested its good promise for the mass production of protein with pharmaceutical importance using the chicken oviduct system. Conclusions: Taken together, these results demonstrate that HMEJ efficiently mediates site-specific gene integration in chicken PGCs, which holds great potential for the biopharmaceutical engineering of chicken cells.

24 July 2020 in Frontiers in Veterinary Science
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Journal Article
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YLYing Lu
Ying Lu
XSXueli Su
Xueli Su
CDChen Du
Chen Du
LMLiyuan Mo
Liyuan Mo
PKPurui Ke
Purui Ke
KOKang Ouyang
Kang Ouyang
Porcine epidemic diarrhea virus (PEDV) is one of the major enteric pathogens, causing severe enteric disease, resulting in enormous economic losses. The ORF3 gene encodes an accessory protein which is related to the infectivity and virulence of PEDV. In this study, 33 PEDV positive field samples were collected from Guangxi, from 2017 to 2019, and the genetic diversity of ORF3 was investigated. Thirty-eight strains of ORF3 were obtained, and these were composed of five strains of ORF3 named Guangxi naturally truncated strains that were 293 bp in length, with continuous deletions from 172 to 554 bp. The Guangxi naturally truncated strains encoded a truncated protein of 89 amino acids, which had clustered into a new group referred to as Group 3, and these might be involved in the variations of virulence. Three genotypes (G1-1 subgroup, G1-3 subgroup, and Group 3) existed simultaneously in Guangxi based on the genetic and evolutionary analysis of the ORF3 gene. The sequence information in the current study will hopefully facilitate the establishment of a diagnostic method that can differentiate the PEDV field stains. Continued surveillance will be useful for monitoring PEDV transmission. Differentiation of the ORF3 genes in PEDV field strains can help us to choose an appropriate PEDV vaccine candidate in the future and prevent outbreaks of PED more effectively.

1 January 2019 in Theriogenology
Verified
Journal Article
Closed access
LXLong Xie
Long Xie
ZLZhenping Lu
Zhenping Lu
DCDongyang Chen
Dongyang Chen
MYMengmeng Yang
Mengmeng Yang
YLYuying Liao
Yuying Liao
YLYangqing Lu
Yangqing Lu

8 October 2016 in 3 Biotech
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Journal Article
Open access
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JNJun-Yu Nie
Jun-Yu Nie
XZXiang-Xing Zhu
Xiang-Xing Zhu
BXBing-Kun Xie
Bing-Kun Xie
SNSu-Qun Nong
Su-Qun Nong
QMQing-Yan Ma
Qing-Yan Ma
SLSheng-Sheng Lu
Sheng-Sheng Lu
Somatic cloning, also known as somatic cell nuclear transfer (SCNT), is a promising technology which has been expected to rapidly extend the population of elaborately selected breeding boars with superior production performance. Chinese Guike No. 1 pig breed is a novel swine specialized strain incorporated with the pedigree background of Duroc and Chinese Luchuan pig breeds, thus inherits an excellent production performance. The present study was conducted to establish somatic cloning procedures of adult breeding boars from the Chinese Guike No. 1 specialized strain. Ear skin fibroblasts were first isolated from a three-year-old Chinese Guike No. 1 breeding boar, and following that, used as donor cell to produce nuclear transfer embryos. Such cloned embryos showed full in vitro development and with the blastocyst formation rate of 18.4 % (37/201, three independent replicates). Finally, after transferring of 1187 nuclear transfer derived embryos to four surrogate recipients, six live piglets with normal health and development were produced. The overall cloning efficiency was 0.5 % and the clonal provenance of such SCNT derived piglets was confirmed by DNA microsatellite analysis. All of the cloned piglets were clinically healthy and had a normal weight at 1 month of age. Collectively, the first successful cloning of an adult Chinese Guike No. 1 breeding boar may lay the foundation for future improving the pig production industry.

1 January 2020 in Theriogenology
Verified
Journal Article
Closed access
DCDongyang Chen
Dongyang Chen
MYMengmeng Yang
Mengmeng Yang
LXLong Xie
Long Xie
ZLZhenping Lu
Zhenping Lu
LMLifen Mo
Lifen Mo
YLYangqing Lu
Yangqing Lu