2.Potential treatment of COVID-19 by inhibitors of human dihydroorotate dehydrogenase.
Protein & Cell 2020;11(10):699-702
Animals
;
Betacoronavirus
;
Coronavirus Infections
;
drug therapy
;
Drug Discovery
;
Drug Evaluation, Preclinical
;
Enzyme Inhibitors
;
therapeutic use
;
Humans
;
Mice
;
Molecular Structure
;
Orthomyxoviridae Infections
;
drug therapy
;
Oseltamivir
;
therapeutic use
;
Oxidoreductases
;
antagonists & inhibitors
;
Pandemics
;
Pneumonia, Viral
;
drug therapy
;
Pyrimidines
;
biosynthesis
3.Mouse-adapted SARS-CoV-2 replicates efficiently in the upper and lower respiratory tract of BALB/c and C57BL/6J mice.
Jinliang WANG ; Lei SHUAI ; Chong WANG ; Renqiang LIU ; Xijun HE ; Xianfeng ZHANG ; Ziruo SUN ; Dan SHAN ; Jinying GE ; Xijun WANG ; Ronghong HUA ; Gongxun ZHONG ; Zhiyuan WEN ; Zhigao BU
Protein & Cell 2020;11(10):776-782
Adaptation, Physiological
;
Adenosine Monophosphate
;
administration & dosage
;
analogs & derivatives
;
pharmacology
;
therapeutic use
;
Administration, Intranasal
;
Alanine
;
administration & dosage
;
analogs & derivatives
;
pharmacology
;
therapeutic use
;
Animals
;
Betacoronavirus
;
genetics
;
physiology
;
Chlorocebus aethiops
;
Coronavirus Infections
;
drug therapy
;
virology
;
Disease Models, Animal
;
Female
;
Host Specificity
;
genetics
;
Lung
;
pathology
;
virology
;
Male
;
Mice
;
Mice, Inbred BALB C
;
Mice, Inbred C57BL
;
Mutation, Missense
;
Nasal Mucosa
;
virology
;
Pandemics
;
Pneumonia, Viral
;
drug therapy
;
virology
;
RNA, Viral
;
administration & dosage
;
genetics
;
Turbinates
;
virology
;
Vero Cells
;
Viral Load
;
Virus Replication
4.Single-cell analysis reveals bronchoalveolar epithelial dysfunction in COVID-19 patients.
Jiangping HE ; Shuijiang CAI ; Huijian FENG ; Baomei CAI ; Lihui LIN ; Yuanbang MAI ; Yinqiang FAN ; Airu ZHU ; Huang HUANG ; Junjie SHI ; Dingxin LI ; Yuanjie WEI ; Yueping LI ; Yingying ZHAO ; Yuejun PAN ; He LIU ; Xiaoneng MO ; Xi HE ; Shangtao CAO ; FengYu HU ; Jincun ZHAO ; Jie WANG ; Nanshan ZHONG ; Xinwen CHEN ; Xilong DENG ; Jiekai CHEN
Protein & Cell 2020;11(9):680-687
5.ALKBH1 deficiency leads to loss of homeostasis in human diploid somatic cells.
Hongyu LI ; Zeming WU ; Xiaoqian LIU ; Sheng ZHANG ; Qianzhao JI ; Xiaoyu JIANG ; Zunpeng LIU ; Si WANG ; Jing QU ; Weiqi ZHANG ; Moshi SONG ; Eli SONG ; Guang-Hui LIU
Protein & Cell 2020;11(9):688-695
6.Recapitulation of SARS-CoV-2 infection and cholangiocyte damage with human liver ductal organoids.
Bing ZHAO ; Chao NI ; Ran GAO ; Yuyan WANG ; Li YANG ; Jinsong WEI ; Ting LV ; Jianqing LIANG ; Qisheng ZHANG ; Wei XU ; Youhua XIE ; Xiaoyue WANG ; Zhenghong YUAN ; Junbo LIANG ; Rong ZHANG ; Xinhua LIN
Protein & Cell 2020;11(10):771-775
Betacoronavirus
;
isolation & purification
;
pathogenicity
;
Bile Acids and Salts
;
metabolism
;
Bile Ducts, Intrahepatic
;
pathology
;
virology
;
Cell Culture Techniques
;
Coronavirus Infections
;
complications
;
pathology
;
Cytokine Release Syndrome
;
etiology
;
physiopathology
;
Cytopathogenic Effect, Viral
;
Epithelial Cells
;
enzymology
;
pathology
;
virology
;
Humans
;
Hyperbilirubinemia
;
etiology
;
Liver
;
pathology
;
Organoids
;
pathology
;
virology
;
Pandemics
;
Peptidyl-Dipeptidase A
;
analysis
;
Pneumonia, Viral
;
complications
;
pathology
;
Receptors, Virus
;
analysis
;
Serine Endopeptidases
;
analysis
;
Viral Load
8.Pioneer of burn medicine in China: Professor Li Ao and "Li Ao spirit".
Yaling LIAO ; Quaming ZOU ; Jiang GU
Protein & Cell 2020;11(9):621-623
9.Correction to: Core transcriptional signatures of phase change in the migratory locust.
Pengcheng YANG ; Li HOU ; Xianhui WANG ; Le KANG
Protein & Cell 2020;11(9):696-697
In the original publication the photo of the gregarious adult locust in Fig. 1A is incorrect. The correct photo of adult migratory locust is provided in this correction.
10.Correction of β-thalassemia mutant by base editor in human embryos.
Puping LIANG ; Chenhui DING ; Hongwei SUN ; Xiaowei XIE ; Yanwen XU ; Xiya ZHANG ; Ying SUN ; Yuanyan XIONG ; Wenbin MA ; Yongxiang LIU ; Yali WANG ; Jianpei FANG ; Dan LIU ; Zhou SONGYANG ; Canquan ZHOU ; Junjiu HUANG
Protein & Cell 2017;8(11):811-822
β-Thalassemia is a global health issue, caused by mutations in the HBB gene. Among these mutations, HBB -28 (A>G) mutations is one of the three most common mutations in China and Southeast Asia patients with β-thalassemia. Correcting this mutation in human embryos may prevent the disease being passed onto future generations and cure anemia. Here we report the first study using base editor (BE) system to correct disease mutant in human embryos. Firstly, we produced a 293T cell line with an exogenous HBB -28 (A>G) mutant fragment for gRNAs and targeting efficiency evaluation. Then we collected primary skin fibroblast cells from a β-thalassemia patient with HBB -28 (A>G) homozygous mutation. Data showed that base editor could precisely correct HBB -28 (A>G) mutation in the patient's primary cells. To model homozygous mutation disease embryos, we constructed nuclear transfer embryos by fusing the lymphocyte or skin fibroblast cells with enucleated in vitro matured (IVM) oocytes. Notably, the gene correction efficiency was over 23.0% in these embryos by base editor. Although these embryos were still mosaic, the percentage of repaired blastomeres was over 20.0%. In addition, we found that base editor variants, with narrowed deamination window, could promote G-to-A conversion at HBB -28 site precisely in human embryos. Collectively, this study demonstrated the feasibility of curing genetic disease in human somatic cells and embryos by base editor system.
APOBEC-1 Deaminase
;
genetics
;
metabolism
;
Base Sequence
;
Blastomeres
;
cytology
;
metabolism
;
CRISPR-Cas Systems
;
Embryo, Mammalian
;
metabolism
;
pathology
;
Female
;
Fibroblasts
;
metabolism
;
pathology
;
Gene Editing
;
methods
;
Gene Expression
;
HEK293 Cells
;
Heterozygote
;
Homozygote
;
Humans
;
Point Mutation
;
Primary Cell Culture
;
Promoter Regions, Genetic
;
Sequence Analysis, DNA
;
beta-Globins
;
genetics
;
metabolism
;
beta-Thalassemia
;
genetics
;
metabolism
;
pathology
;
therapy