👤 Moqin Qiu

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245
Articles
207
Name variants
Also published as: An-Chen Qiu, Anqi Qiu, Ao-Wang Qiu, Bintao Qiu, Cai-Xia Qiu, Changchun Qiu, Changyun Qiu, Che Qiu, Chen Qiu, Cheng-Feng Qiu, Chengxiang Qiu, Chengxuan Qiu, Chun Qiu, Chunguang Qiu, Connor Qiu, Cuipeng Qiu, Cunxin Qiu, Dajian Qiu, Dan Qiu, Dan-Dan Qiu, Dehui Qiu, Fang Qiu, Feng Qiu, Fuman Qiu, Fuming Qiu, Gaokun Qiu, Guan-Zhong Qiu, Guang-Ming Qiu, Guo-qiang Qiu, Guosong Qiu, Guowei Qiu, Hai-Hua Qiu, Haifan Qiu, Haihua Qiu, Haijun Qiu, Haitang Qiu, Haizhou Qiu, HanFan Qiu, Hangyuan Qiu, Hao Qiu, Hongfan Qiu, Huafeng Qiu, Huandi Qiu, Hui Qiu, Huiling Qiu, Huirui Qiu, Huisi Qiu, Huizhong Qiu, Jia-Wen Qiu, JianPing Qiu, Jianrong Qiu, Jiaojiao Qiu, Jiaxuan Qiu, Jiayu Qiu, Jie Qiu, Jiechuan Qiu, Jigang Qiu, Jikang Qiu, Jiliang Qiu, Jin Qiu, Jin-Chun Qiu, Jing Qiu, Jing-Jing Qiu, Jingsong Qiu, Jinming Qiu, Jinying Qiu, Ju Qiu, Juan Qiu, Junfeng Qiu, Junhui Qiu, Junjun Qiu, Kai Qiu, Kevin T Qiu, Kunlong Qiu, L G Qiu, Lei Qiu, Lianqun Qiu, Lihua Qiu, Lin Qiu, Ling Qiu, Lingling Qiu, Liru Qiu, Liwen Qiu, Lixin Qiu, Liyan Qiu, Liying Qiu, Longxin Qiu, Lu Qiu, Lugui Qiu, Mei Qiu, Mengsheng Qiu, Miaoyun Qiu, Min Qiu, Ming Qiu, Mingyue Qiu, Minzhi Qiu, Mohan Qiu, Peijin Qiu, Peng Qiu, Ping Qiu, Qi Qiu, Qiang Qiu, Qiangmin Qiu, Qinwei Qiu, Qiwen Qiu, Quan Qiu, Rong Qiu, Ruiying Qiu, Ruolun Qiu, Shang Qiu, Shaowei Qiu, Sheng Qiu, Shengda Qiu, Shi-Lin Qiu, Shifeng Qiu, Shizheng Qiu, Shouji Qiu, Si Qiu, Song-Wang Qiu, Tao Qiu, Tingting Qiu, Tong Qiu, Tongtong Qiu, W M Qiu, Wei Qiao Qiu, Wei Qiu, Wei-Lun Qiu, Weiliu Qiu, Weiqing Qiu, Wenhui Qiu, Wenjuan Qiu, Wenqiao Qiu, Wensheng Qiu, Wu-Xia Qiu, Wuxia Qiu, Xiangmin Qiu, Xianxiu Qiu, Xiaofen Qiu, Xiaohong Qiu, Xiaojian Qiu, Xiaowei Qiu, Xiaoxia Qiu, Xin Qiu, Xingfeng Qiu, Xingyang Qiu, Xinhui Qiu, Xinping Qiu, Xinyao Qiu, Xinyu Qiu, Xinyuan Qiu, Xiong Qiu, Xiuchai Qiu, Xu-sheng Qiu, Xuan Qiu, Xuan-Yu Qiu, Xueli Qiu, Xueping Qiu, Xusheng Qiu, Yan Qiu, Yanping Qiu, Yanqin Qiu, Ye Qiu, Yi Hua Qiu, Yibin Qiu, Yiguo Qiu, Yinfeng Qiu, Ying Qiu, Yingying Qiu, Yining Qiu, Yiqiong Qiu, Yiyun Qiu, Yong Qiu, Yonghui Qiu, Youjia Qiu, Yu Qiu, Yu-Rong Qiu, Yuanwang Qiu, Yubei Qiu, Yue Qiu, Yueping Qiu, Yuexin Qiu, Yumei Qiu, Yunguang Qiu, Yunjie Qiu, Yunping Qiu, Yuntan Qiu, Yupeng Qiu, Yusong Qiu, Yuting Qiu, Yuxiong Qiu, Yuyao Qiu, Yuyue Qiu, Zaixing Qiu, Zerui Qiu, Zeyou Qiu, Zhandong Qiu, Zhaohui Qiu, Zhaojun Qiu, Zhaoping Qiu, Zheng-Qing Qiu, Zhenyu Qiu, Zhihuang Qiu, Zhili Qiu, Zhong-Peng Qiu, Zhongpeng Qiu, Zilong Qiu
articles
Guosong Qiu, John S Hill · 2008 · Journal of cardiovascular pharmacology · added 2026-04-24
The effect of atorvastatin on adenosine triphosphate (ATP)-binding cassette transporter A1 (ABCA1) expression and cholesterol efflux remains controversial. In an effort to clarify this issue, ABCA1 ex Show more
The effect of atorvastatin on adenosine triphosphate (ATP)-binding cassette transporter A1 (ABCA1) expression and cholesterol efflux remains controversial. In an effort to clarify this issue, ABCA1 expression and apolipoprotein AI (apoAI)-mediated cholesterol efflux after atorvastatin treatment were investigated in THP-1 macrophages. Atorvastatin from 2 microM to 40 microM dose-dependently inhibited ABCA1 expression in human monocyte-derived macrophages and phorbol 12-myristate 13-acetate (PMA)-stimulated THP-1 monocytes. ApoAI-mediated cholesterol efflux was reduced in PMA-stimulated THP-1 cells treated with atorvastatin, this effect was abolished with acetylated low-density lipoprotein (LDL) pretreatment. Atorvastatin treatment also dose-dependently reduced liver X receptor alpha (LXRalpha) expression and Rho activation. Rho activation by farnysylpyophosphate (FPP) and lysophosphatidic acid (LPA) did not salvage, but further depressed, the cholesterol efflux and ABCA1 expression in the presence of atorvastatin. Without atorvastatin, Rho activation by mevalonate, FPP, and LPA diminished apoAI-mediated cholesterol efflux, and Rho activation by GTPgammaS also decreased ABCA1 messenger ribonucleic acid (mRNA) by 16%. Furthermore, Rho inhibition by C3 exoenzyme increased ABCA1 mRNA by 48% despite a 17% decrease in apoAI-mediated cholesterol efflux. LXRalpha agonists (T01901317 and 22(R)-hydroxycholesterol) prevented any reductions in cholesterol efflux or ABCA1 expression associated with atorvastatin treatment. Furthermore, Western blot analysis demonstrated the reciprocal inhibition of Rho and LXRalpha. In conclusion, atorvastatin decreases ABCA1 expression in noncholesterol-loaded macrophages in an LXRalpha- but not Rho-dependent pathway; this effect can be compromised after acetylated LDL cholesterol loading. Show less
no PDF DOI: 10.1097/FJC.0b013e318167141f
NR1H3
You Gui Yao, Xiong Qiu, Ming Kun Ma +2 more · 2007 · Journal of digestive diseases · Blackwell Publishing · added 2026-04-24
To investigate the frequency of variants at Xmn I, Msp I sites of apolipoprotein (Apo), A I-CIII-AIV gene cluster, and its relation to cholesterol gallstones in Chinese patients. Restriction fragment Show more
To investigate the frequency of variants at Xmn I, Msp I sites of apolipoprotein (Apo), A I-CIII-AIV gene cluster, and its relation to cholesterol gallstones in Chinese patients. Restriction fragment length polymorphisms (RFLP) at Xmn I, Msp I sites of ApoAI-CIII-AIV gene cluster were studied using a polymerase chain reaction (PCR) in 161 patients with cholesterol gallstones and 94 healthy subjects from a Chinese population in Sichuan Province. In both the cholesterol gallstone group and the healthy control group, X1 and M1 alleles were the major alleles and homozygous X1X1 and M1M1 genotypes were the most frequent. However, the frequency of X2 allele mutation in female patients of the cholesterol gallstones group was significantly higher than that in women in the healthy control group (P<0.05), but no difference was found in the frequency of M2 alleles mutation (P>0.05). The data showed that Xmn I RFLP of ApoAI-CIII-AIV gene cluster is associated to some extent with cholesterol gallstones in female Chinese patients. Show less
no PDF DOI: 10.1111/j.1443-9573.2007.00284.x
APOA4
Jing Li, Zijing J Liu, Yuchun C Pan +6 more · 2007 · Genome biology · BioMed Central · added 2026-04-24
The basic/helix-loop-helix (bHLH) proteins are important components of the transcriptional regulatory network, controlling a variety of biological processes, especially the development of the central Show more
The basic/helix-loop-helix (bHLH) proteins are important components of the transcriptional regulatory network, controlling a variety of biological processes, especially the development of the central nervous system. Until now, reports describing the regulatory network of the bHLH transcription factor (TF) family have been scarce. In order to understand the regulatory mechanisms of bHLH TFs in mouse brain, we inferred their regulatory network from genome-wide gene expression profiles with the module networks method. A regulatory network comprising 15 important bHLH TFs and 153 target genes was constructed. The network was divided into 28 modules based on expression profiles. A regulatory-motif search shows the complexity and diversity of the network. In addition, 26 cooperative bHLH TF pairs were also detected in the network. This cooperation suggests possible physical interactions or genetic regulation between TFs. Interestingly, some TFs in the network regulate more than one module. A novel cross-repression between Neurod6 and Hey2 was identified, which may control various functions in different brain regions. The presence of TF binding sites (TFBSs) in the promoter regions of their target genes validates more than 70% of TF-target gene pairs of the network. Literature mining provides additional support for five modules. More importantly, the regulatory relationships among selected key components are all validated in mutant mice. Our network is reliable and very informative for understanding the role of bHLH TFs in mouse brain development and function. It provides a framework for future experimental analyses. Show less
📄 PDF DOI: 10.1186/gb-2007-8-11-r244
HEY2
Xinhua Lee, Zhongshu Yang, Zhaohui Shao +7 more · 2007 · The Journal of neuroscience : the official journal of the Society for Neuroscience · Society for Neuroscience · added 2026-04-24
Neurons and glia share a mutual dependence in establishing a functional relationship, and none is more evident than the process by which axons control myelination. Here, we identify LRR and Ig domain- Show more
Neurons and glia share a mutual dependence in establishing a functional relationship, and none is more evident than the process by which axons control myelination. Here, we identify LRR and Ig domain-containing, Nogo receptor-interacting protein (LINGO-1) as a potent axonal inhibitor of oligodendrocyte differentiation and myelination that is regulated by nerve growth factor and its cognate receptor TrkA in a dose-dependent manner. Whereas LINGO-1 expressed by oligodendrocyte progenitor cells was previously identified as an inhibitor of differentiation, we demonstrate that axonal expression of LINGO-1 inhibits differentiation with equal potency. Disruption of LINGO-1 on either cell type is sufficient to overcome the inhibitory action and promote differentiation and myelination, independent of axon diameter. Furthermore, these results were recapitulated in transgenic mice overexpressing the full length LINGO-1 under the neuronal promoter synapsin. Myelination was greatly inhibited in the presence of enforced axonal LINGO-1. The implications of these results relate specifically to the development of potential therapeutics targeting extrinsic growth factors that may regulate the axonal expression of modulators of oligodendrocyte development. Show less
no PDF DOI: 10.1523/JNEUROSCI.4175-06.2007
LINGO1
C Y Xiao, J Wang, S Z Zhang +5 more · 2001 · British journal of cancer · added 2026-04-24
Hereditary multiple exostoses (EXT) is an autosomal dominant disease characterized by the formation of cartilage-capped prominences (exostoses) that develop from the juxta-epiphyseal regions of the lo Show more
Hereditary multiple exostoses (EXT) is an autosomal dominant disease characterized by the formation of cartilage-capped prominences (exostoses) that develop from the juxta-epiphyseal regions of the long bones. 3 genes are known to be involved in the formation of exostoses. Among them, EXT1 and EXT2, which encode enzymes that catalyse the biosynthesis of heparan sulfate, an important component of the extracellular matrix, are responsible for over 70% of the EXT cases. A large Chinese family with hereditary multiple exostoses has been analysed and the disease-causing mutation has been found. Blood samples were obtained from 69 family members, including 23 affected individuals. The EXT phenotype was shown to be linked to the EXT2 gene by using 2-point linkage analysis. After polymerase chain reaction (PCR)-single strand conformation polymorphism (SSCP) analysis and DNA sequencing, a previously unreported deletion of a G in exon 3 of EXT2 gene was observed. This deletion co-segregated with the disease phenotype, suggesting that it is the disease-causing mutation in this family. Furthermore, in at least 4 members chondrosarcoma occurred after either an operation or injury of the exostosis and 3 of them died of the malignancy in the family. Whether the operation or injury was responsible for the malignant transformation still needs further study. Show less
📄 PDF DOI: 10.1054/bjoc.2001.1880
EXT1