👤 Hairong Ma

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818
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607
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Also published as: Mengxiao Ma, Mei Ma, H-G Ma, Duan Ma, Ping Ma, Yingjian Ma, Yanfen Ma, Jianzhong Ma, Jian-Xing Ma, L Ma, Zhuang Ma, Yixuan Ma, Shumei Ma, Ningning Ma, Ronald C W Ma, Yirong Ma, Zongwu Ma, Mingxing Ma, Jiannan Ma, Feifan Ma, Chiyuan Ma, Cun-Gen Ma, Loretta Ma, Hui-Han Ma, Siyuan Ma, X L Ma, Chunling Ma, Xiaodong Ma, Yunfeng Ma, Jiahui Ma, Beibei Ma, Lin-Qiang Ma, Li-yun Ma, Jiayin Ma, Li Ma, Xinran Ma, Guiyuan Ma, Yiming Ma, Zhuo Ma, Wenjun Ma, Hongbing Ma, Jizheng Ma, Zhao Ma, Zhenhua Ma, Jianping Ma, Lijing Ma, Shuxian Ma, Yussanne P Ma, Jinhua Ma, Zongjun Ma, Di Ma, David Hui-Kang Ma, Enhui Ma, Haiwei Ma, Shiliang Ma, Lin Ma, Chao Ma, Shailing Ma, Cuicui Ma, Deng-Lei Ma, Xiaoting Ma, Yuyi Ma, Xingting Ma, Chunyan Ma, Weili Ma, Zimeng Ma, C Ma, Yuanzheng Ma, Cungen Ma, Jin Ma, Yongsheng Ma, Xing-Hong Ma, Ronald C Ma, Ji Ma, Wen-Li Ma, Ming Ma, Zheng Ma, Deyi Ma, Xiaosong Ma, Zhixiao Ma, Nana Ma, Ning-Ning Ma, Shuaichen Ma, Yun-Li Ma, Longtu Ma, Mingjian Ma, Xuelin Ma, Yumeng Ma, Karen Ma, Ming-Ming Ma, Fang Ma, Danxu Ma, Yuehong Ma, Meng-Xue Ma, Min Jung Ma, Qinggong Ma, Ming Kun Ma, Xue-Shan Ma, Qingbian Ma, Zhichao Ma, Jinyue Ma, Xuefei Ma, Ran Ma, Hui Ma, Xinxin Ma, Ye-Shuo Ma, Ling Ma, Liying Ma, Yilun Ma, Shaoyong Ma, Ruimin Ma, X-D Ma, Yanning Ma, Si-Yuan Ma, Terence Ping Yuen Ma, Xianhua Ma, Marcella Ma, Hai-Lu Ma, Wenqiang Ma, David Wl Ma, Xiaojing Ma, Baohua Ma, Hongying Ma, Mingfu Ma, Lei Ma, Tiantian Ma, Tongtong Ma, Jiantao Ma, Baoshan Ma, Zhan-feng Ma, Ziyu Ma, Haoteng Ma, Yuanyuan Ma, Rui-Kun Ma, Feifei Ma, Yiwen Ma, Yingying Ma, Guangtian Ma, M Ma, Yongjuan Ma, Yue Ma, Dawei Ma, Xin Ma, Jin Yeul Ma, A Ma, Zhanzhong Ma, Qingyu Ma, Zifeng Ma, Lihui Ma, Jinghong Ma, Mingzhe Ma, Lina Ma, Y Ma, Hongru Ma, Siyu Ma, Zihan Ma, Yina Ma, Lanjing Ma, Lisha Ma, Mingfeng Ma, Shuxia Ma, Qiushi Ma, Dacheng Ma, Qian-Wen Ma, Boxuan Ma, Linjie Ma, Bo Ma, Tianyi Ma, Sisi Ma, Xiao-Lan Ma, Wanli Ma, Yifan Ma, Junbai Ma, Tiancheng Ma, Zhijie Ma, Yuteng Ma, Lou-Yan Ma, Yinghua Ma, Yanan Ma, Jian Ma, Jieqiong Ma, Jiyi Ma, Taotao Ma, Zhanbing Ma, Ze Ma, Kun L Ma, Shirong Ma, Lijiang Ma, Xue Ma, Ranran Ma, Lianghong Ma, L-N Ma, Rentao Ma, Xiaoqin Ma, Meilin Ma, Xuemei Ma, Youzhen Ma, Zhi-Ling Ma, Le Ma, Xiaoling Ma, Xiumin Ma, Tian-Ze Ma, Yiyi Ma, Jiajing Ma, Qun Ma, Baoluo Ma, Jiaying Ma, Wenhao Ma, Xiaobei Ma, Yuejia Ma, Xinyi Ma, Wen Wee Ma, Xi Ma, Siqi Ma, Junqin Ma, Ming-Sheng Ma, Mei-Sheng Ma, Jing-Wei Ma, Danhua Ma, Lijia Ma, Hongrui Ma, Zhanshan Sam Ma, Hai-Zhang Ma, Hongning Ma, Jing-Pan Ma, Huifen Ma, Saiwen Ma, Jianbin Ma, Jianjuan Ma, Weijuan Ma, Jingpan Ma, Mingrui Ma, Ning Ma, Shengchao Ma, Qingjun Ma, Yanping Ma, Chuanxiang Ma, Xiaojuan Ma, Yi Ma, Si-Yu Ma, Weikang Ma, Yun Ma, Xiaoli Ma, Xiaoru Ma, Yun-xia Ma, Fei Ma, Ruicong Ma, Deqiong Ma, Yanhua Ma, Jacey Hongjie Ma, Ruyue Ma, Lijuan Ma, Jianhua Ma, Shiyin Ma, Mingming Ma, Yisha Ma, Yanli Ma, Xiulong Ma, Zhen Ma, Cong Ma, Yunhan Ma, Zihui Ma, Zhong Jie Ma, Yanlin Ma, Wenke Ma, Li-Jing Ma, Jinyan Ma, Li-Li Ma, Wen-Juan Ma, Yujie Ma, Xiao-Dong Ma, Aijun Ma, Xiaoteng Ma, Yanna Ma, Yan Ma, Li Chung Ma, Ruining Ma, Xintong Ma, Jun Ma, Yun-Bao Ma, Jiaolong Ma, Xiaotu Ma, Qiqi Ma, Dong Ma, Ying Ma, Xiang-Yu Ma, Aiguo Ma, Zheng-Quan Ma, Xiaochi Ma, Wei Ma, Chiyu Ma, Wei-Guo Ma, Hao Ma, Long Ma, Shi Ma, Ya-Nan Ma, Chengyi Ma, Xiaolong Ma, Fengyan Ma, Xingzhe Ma, Shiqiang Ma, Junguo Ma, Qingping Ma, J Z Ma, Qianchen Ma, Zeqiang Ma, Hongming Ma, Jingxi Ma, Huijuan Ma, Chenglong Ma, Cindy S Ma, Rong Ma, Shing Yan Ma, Tao Ma, Xueping Ma, Victor W S Ma, Tengfei Ma, Weijie Ma, Feng Ma, Shunfei Ma, Tianpei Ma, Huihui Ma, Yungui Ma, Lifeng Ma, Zimo Ma, Xuepeng Ma, Guozhao Ma, Shuangliang Ma, Hongwei Ma, Shoubao Ma, Qi Ma, Lu-Lu Ma, Jiangang Ma, Junwei Ma, Yangxinrui Ma, Da Ma, Xiao-Nan Ma, Zhanfeng Ma, Haitian Ma, Litian Ma, Caixia Ma, Xiaowen Ma, Chaoying Ma, Yixin Ma, Qilin Ma, Teng Ma, Cui Ma, Shaochun Ma, Xin-Liang Ma, Jianyu Ma, Sijia Ma, P Ma, Jiayi Ma, Wenzhe Ma, Yuedong Ma, Huimin Ma, W Ma, Jianfang Ma, Jimin Ma, Yinrui Ma, Cunying Ma, Xiao-Han Ma, Qinghua Ma, Xiaoguang Ma, Liangkun Ma, Jiaao Ma, Dengke K Ma, Wanlu Ma, Xiaofeng Ma, Wen Ma, Dandan Ma, Xueyou Ma, Binlin Ma, Dongheng Ma, Longfei Ma, Lanqing Ma, Wenjing Ma, Ding Ma, Xiaohui Ma, Xiangyu Ma, Pan Ma, Liwei Ma, Lu Ma, Yuefeng Ma, Cuiru Ma, Edmond S K Ma, Haiting Ma, Junpeng Ma, Xiaojun Ma, HongYan Ma, Shichao Ma, Rulin Ma, Liming Ma, Haijun Ma, Chong Ma, Yuan-Lin Ma, Guochen Ma, Zhonghua Ma, Ao Ma, Hua Hua Ma, Dexuan Ma, X Ma, Chunli Ma, Nichole Ma, Wenbin Ma, Hao-Qin Ma, Sai Ma, Ye-Han Ma, Linlin Ma, Wen-Di Ma, He Ma, Lanyue Ma, Xiao-Jing Ma, Zijian Ma, Wenjian Ma, Lifang Ma, Fengguang Ma, Jingxue Ma, Xiangyi Ma, Yidan Ma, Yanhui Ma, Chunmin Ma, Liping Ma, Yizhuo Ma, Jing Ma, Jiye Ma, Guangyu Ma, Yating Ma, Xiaohong Ma, Jiale Ma, Dalong Ma, Zhao-Liang Ma, Xianyong Ma, Liyun Ma, Mengru Ma, Limei Ma, Xiaolei Ma, Hong Ma, Yuqin Ma, Zhiyu Ma, Hong-Fang Ma, Xian-Hua Ma, Yuhang Ma, Shi-Zhang Ma, Zhuangzhuang Ma, Zhixing Ma, Xiangfei Ma, Jingbo Ma, Runpu Ma, Xiaomeng Ma, Chunhui Ma, Min Ma, Teng-fei Ma, Yong Ma, Ruihong Ma, Rui Ma, Haitao Ma, David W L Ma, Yingping Ma, Yan-Dong Ma, Gang Ma, Yuehui Ma, Yuxuan Ma, Rui-Xia Ma, Xiaosu Ma, Jennie Z Ma, Yilin Ma, Qing Ma, Qianli Ma, Yingjiao Ma, Tianyu Ma, Chunmei Ma, Xing Ma, Zhonglin Ma, Gaoxiang Ma, Noelle Ma, Biao Ma, Lan Ma, Mingyue Ma, Bin Ma, Xiaoxue Ma, Chaolin Ma, Qinan Ma, Ruimian Ma, Yanbo Ma, Jun-Yong Ma, Yifei Ma, Xiucheng Ma, Qun-Hua Ma, Luyang Ma, Lulin Ma, Xiuqing Ma, Xueling Ma, Yizhe Ma, Jia Ma, Yuhao Ma, Yilong Ma, Zhangyan Ma, Yi-tong Ma, Wenqiong Ma, Jilei Ma, Huiping Ma, Yuchen Ma, Xiang Ma, Jinhu Ma, Jinxia Ma, Hongbiao Ma, Jiage Ma, Quan Ma, Xiao Ma, Wandi Ma, Yangmin Ma, Wenzhi Ma, Ronald Ching Wan Ma, Jiaming Ma, Qian Ma, Haoran Ma, Jingchang Ma, Xiaolu Ma, Ka Ying Ma, Shiyi Ma, Jingqun Ma, Mingyu Ma, Tonghui Ma, Dong-Dong Ma, Zhaoru Ma, Lingman Ma, Peng Ma, Shiwei Ma, Dunliang Ma, Mingjun Ma, Liqian Ma, Z Zack Ma, Wenqi Ma, Haiming Ma, Yujia Ma, Z L Ma, Sheng Ma, Chi Ma, Sen-Lin Ma, Zhenzeng Ma, Jideng Ma, Shanshan Ma, Xiao-Feng Ma, Jian-Cang Ma, Hongxia Ma, Liang Ma, Binran Ma, Jianxiong Ma, Yuandi Ma, Jing-lin Ma, Xiong Ma, Xiao-Li Ma, Yanchun Ma, Jingjing Ma, Yanlei Ma, Yuan Ma, Yanyan Ma, Ke Ma, Ruiyang Ma, Yonghua Ma, Yumei Ma, Guowu Ma, Lizhen Ma, Dan Ma, Hongyu Ma, Hemeng Ma, Yuanfang Ma, Qianqian Ma, Linyuan Ma, Xu Ma, Gao-Lei Ma, Yanyun Ma, Yuze Ma, Pei Ma, T Ma, Linqiu Ma, Seong Kwon Ma, Quan-Hong Ma, E L Ma, Jie Ma, Jiaxin Ma, Qichen Ma, Haina Ma, Wansheng Ma, Qianying Ma, Yingze Ma, Limin Ma, Sicheng Ma, Zhixin Ma, Li-Qiu Ma, Qiang Ma, Jiyuan Ma, Gen-shan Ma, Rulan Ma, Junnan Ma, Shanbo Ma, Zhiqiang Ma, Baijing Ma, Jingyuan Ma, Wen-Ji Ma, Qin Ma, Junjie Ma, Yong-Xin Ma, A Zhi Sha Ma, Dae Joong Ma
articles
He-Kun Liu, Si-Zhong Zhang, Zhi-Guang Su +2 more · 2004 · Yi chuan = Hereditas · added 2026-04-24
Using methods of comparative and functional genomics, a new gene coding for apolipoprotein A5 was identified in the vicinity of APOA1/C3/A4 cluster on human chromosome 11q23 by Pennaccio team and Vlie Show more
Using methods of comparative and functional genomics, a new gene coding for apolipoprotein A5 was identified in the vicinity of APOA1/C3/A4 cluster on human chromosome 11q23 by Pennaccio team and Vliet team. The open reading frame of human APOA5 encoded a 366-amino acid protein with high sequence homology to mouse Apoa5 and human APOA4. Mice expressing a human APOA5 transgene showed a decrease in plasma triglyceride concentrations to one-third of those in control mice; conversely, knockout mice lacking Apoa5 had four times as much plasma triglycerides as controls. Single nucleotide polymorphisms (SNPs) in APOA5 (S19W, -1131T>C) and APOA5 haplotype (APOA5*3) were independently associated with high plasma triglyceride levels. These findings indicate that APOA5 is an important determinant of plasma triglyceride levels, a major risk factor for coronary artery disease. Show less
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APOA4
Simin Liu, Yiqing Song, Frank B Hu +4 more · 2004 · Atherosclerosis · Elsevier · added 2026-04-24
Apolipoproteins AI/CIII/AIV play important roles in the metabolism of triglycerides (TG) and high-density lipoprotein (HDL) cholesterol. However, whether genetic variations in the APOA1/C3/A4 gene clu Show more
Apolipoproteins AI/CIII/AIV play important roles in the metabolism of triglycerides (TG) and high-density lipoprotein (HDL) cholesterol. However, whether genetic variations in the APOA1/C3/A4 gene cluster are associated with the risk of myocardial infarction (MI) remains uncertain and prospective data are sparse. In a prospective nested case-control study of 385 incident cases of MI and 373 age- and smoking-matched controls from the Physicians' Health Study, we examined the relationship between 2 common single nucleotide polymorphisms (APOA1 XmnI and APOC3 SstI) in the APOA1/C3/A4 gene cluster and haplotypes defined by these SNPs and risk of incident MI. No significant differences in allele or genotype frequency for the APOA1 XmnI and APOC3 SstI polymorphisms were detected between cases and controls. After adjusting for non-lipid coronary risk factors, the relative risks for incident MI were 1.00 (95% CI 0.68-1.47) for men carrying the X2 allele compared with those homozygous for the X1 allele in the APOA1 XmnI site and 1.07 (95% CI 0.69-1.64) for men carrying the S2 versus those homozygous for the S1 allele in the APOC3 SstI site. Moreover, we did not observe any effect modification by HDL or TG levels for the associations of these APOA1 and APOC3 genotypes with MI risk. There were significant differences in TG levels among men carrying different haplotypes (P=0.01) and men carrying the X1-S2 haplotype had higher levels of TG than those carrying the X2-S1 haplotype (202 mg/dl versus 157 mg/dl, P=0.03); however, haplotype frequencies defined by these two polymorphisms did not differ significantly between cases and controls. In this prospective study of apparently healthy middle-aged US men, carriers of the X1-S2 haplotype in the APOA1 XmnI and APOC3 SstI variants across the APOA1/C3/A4 gene cluster had higher TG levels, but there was no evidence for significant associations between these two common variants or haplotypes defined by them and risk of incident MI in this cohort. Show less
no PDF DOI: 10.1016/j.atherosclerosis.2004.07.002
APOA4
He-Kun Liu, Chun-Ting Wang, Si-Zhong Zhang +9 more · 2004 · Zhonghua yi xue yi chuan xue za zhi = Zhonghua yixue yichuanxue zazhi = Chinese journal of medical genetics · added 2026-04-24
To investigate the single nucleotide polymorphism 4 (SNP4) of the apolipoprotein A5 (APOA5) gene possible association with coronary heart disease(CHD) and its distribution of in Chinese Han population Show more
To investigate the single nucleotide polymorphism 4 (SNP4) of the apolipoprotein A5 (APOA5) gene possible association with coronary heart disease(CHD) and its distribution of in Chinese Han population. APOA5 SNP4 genotyping was performed using polymerase chain reaction and Hae III restriction fragment length polymorphism analysis. APOA5 allelic frequencies of T, C were 0.435, 0.565 and 0.374, 0.626 in CHD group and control group, respectively. There is significant difference in allele and genotype frequencies between CHD group and control group (P<0.05). The levels of plasma high density lipoprotein in CHD patients with CC genotype were higher than those in CHD patients with other genotypes (P<0.01). The frequencies of T allele and C allele in Chinese was significantly different from those in Caucasians (0.374 vs 0.663, 0.626 vs 0.337, P<0.01). The C allele was much more common in Chinese population. The association is found between the Hae III polymorphism and CHD, There is a significant correlation between the CC genotype of the APOA5 and the levels of plasma high density lipoprotein-cholosteal in the CHD group. Show less
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APOA5
Angela K Stoeckman, Lin Ma, Howard C Towle · 2004 · The Journal of biological chemistry · American Society for Biochemistry and Molecular Biology · added 2026-04-24
The expression of genes encoding enzymes involved in de novo triglyceride synthesis (lipogenesis) is transcriptionally induced in the liver in response to increased glucose metabolism. The carbohydrat Show more
The expression of genes encoding enzymes involved in de novo triglyceride synthesis (lipogenesis) is transcriptionally induced in the liver in response to increased glucose metabolism. The carbohydrate response element-binding protein (ChREBP) is a newly identified basic helix-loop-helix/leucine zipper transcription factor proposed to regulate the expression of the glucose-responsive gene pyruvate kinase. This gene contains a carbohydrate response element (ChoRE) consisting of two E box motifs separated by 5 bp that is necessary and sufficient for glucose regulation. We demonstrate that overexpression of ChREBP in primary rat hepatocytes activates other ChoRE-containing promoters in a manner consistent with their ability to respond to glucose. In vitro binding of ChREBP to ChoRE sequences was not detected. Because E box-binding proteins function as obligate dimers, we performed a yeast two-hybrid screen of a mouse liver cDNA library to identify potential heteromeric partners. Mlx (Max-like protein X) was selected as the only basic helix-loop-helix/leucine zipper interaction partner in this screen. When a plasmid expressing either Mlx or ChREBP was cotransfected with a ChoRE-containing reporter plasmid into human embryonic kidney 293 cells, no increase in promoter activity was observed. However, the expression of both proteins dramatically enhanced promoter activity. This activation was observed with reporters containing ChoREs from several different lipogenic enzyme genes. In contrast, reporters containing non-glucose-responsive E box elements were not activated by ChREBP-Mlx expression. In vitro binding of ChREBP to ChoRE-containing oligonucleotides was observed only in the presence of Mlx. ChREBP-Mlx binding discriminated between E box sites that are glucose-responsive and those that are not. We conclude that Mlx is a functional heteromeric partner of ChREBP in regulating the expression of glucose-responsive genes. Show less
no PDF DOI: 10.1074/jbc.M311301200
MLXIPL
Bill X Wu, Gennadiy Moiseyev, Ying Chen +3 more · 2004 · Investigative ophthalmology & visual science · added 2026-04-24
To investigate the expression of RDH10, an all-trans retinol dehydrogenase identified in the retinal pigment epithelium (RPE), in retinal Muller cells. The RDH10 protein levels in mouse eyecups and bo Show more
To investigate the expression of RDH10, an all-trans retinol dehydrogenase identified in the retinal pigment epithelium (RPE), in retinal Muller cells. The RDH10 protein levels in mouse eyecups and bovine tissues were examined by Western blot analysis using a polyclonal antibody against RDH10. The cellular localization in the retina was determined by immunohistochemistry. Expression of RDH10 in rMC-1, a cell line derived from rat Muller cells, was determined by RT-PCR and Western blot analysis. All-trans retinol dehydrogenase activity assays were performed using lysates from rMC-1 cells. The generation of all-trans retinal from tritiated all-trans retinol was analyzed by HPLC. RDH10, retinal G protein-coupled receptor (RGR), and RPE65 all had higher expression levels in the eyecups of BALB/c than in C57Bl/6 mice. In addition to the RPE, RDH10 was also detected at lower levels in the retina and liver. Immunohistochemistry showed that RDH10 was localized in Muller cells in retinal sections. RDH10 was detected in rMC-1 cells, at both the RNA and protein levels. The rat RDH10 cDNA containing the full-length coding region was cloned from rMC-1 cells. The rat RDH10 cDNA encodes a protein of 341 amino acids and shares 99% sequence identity with human, bovine, and mouse RDH10 at the amino acid level. In rMC-1 cells, all-trans retinol dehydrogenase activity was detected in the microsomal fraction. NADP was shown to be the preferred cofactor, which is identical with the cofactor preference of the recombinant RDH10. RDH10 was expressed in retinal Muller cells, in addition to the RPE. RDH10 generates all-trans retinal, which is the substrate for the photoisomerase RGR in Muller cells. Show less
no PDF DOI: 10.1167/iovs.03-1302
RMC1
Masayoshi Yamaguchi, Hiroyuki Misawa, Zhong Jie Ma · 2003 · Journal of cellular biochemistry · Wiley · added 2026-04-24
The binding activity of a novel regucalcin gene promoter region-related protein (RGPR-p117) to the TTGGC sequence of the rat regucalcin gene promoter region was investigated. The expression of RGPR-p1 Show more
The binding activity of a novel regucalcin gene promoter region-related protein (RGPR-p117) to the TTGGC sequence of the rat regucalcin gene promoter region was investigated. The expression of RGPR-p117 mRNA was seen in the liver tissues of male and female rats. The sexual difference of this expression was not found. Liver RGPR-p117 mRNA expression was not changed with increasing age (1-50 weeks old), and its expression was not altered by fasting or refeeding. Nuclear factor I-A1 (NF1-A1) has been identified to be a transcription factor in stimulating the rat regucalcin gene promoter activity (Misawa and Yamaguchi [2002a] J Cell Biochem 84:795-802]. Recombinant nuclear factor I-A1 (NF1-A1) and RGPR-p117 proteins were used gel mobility shift assay. RGPR-p117 could not bind to TTGGC motif of the sequence between -525 and -504, which has been defined as a functional promoter element II-b. NF1-A1 was specifically bound to the II-b oligonucleotide. Moreover, RGPR-p117 was not bound to the II-b oligonucleotide in the presence of NF1-A1 or rat liver nuclear protein. The binding of NF1-A1 to the II-b oligonucleotide was not altered in the presence of RGPR-p117. This study demonstrates that RGPR-p117 mRNA, is expressed stably for physiologic change in rat liver, and that recombinant the protein does not directly bind to the TTGGC motif in rat regucalcin gene promoter. Show less
no PDF DOI: 10.1002/jcb.10437
SEC16B
G Wang, A Ma, C M Chow +4 more · 2000 · Molecular and cellular biology · added 2026-04-24
Heterochromatin represents a cytologically visible state of heritable gene repression. In the yeast, Schizosaccharomyces pombe, the swi6 gene encodes a heterochromatin protein 1 (HP1)-like chromodomai Show more
Heterochromatin represents a cytologically visible state of heritable gene repression. In the yeast, Schizosaccharomyces pombe, the swi6 gene encodes a heterochromatin protein 1 (HP1)-like chromodomain protein that localizes to heterochromatin domains, including the centromeres, telomeres, and the donor mating-type loci, and is involved in silencing at these loci. We identify here the functional domains of swi6p and demonstrate that the chromodomain from a mammalian HP1-like protein, M31, can functionally replace that of swi6p, showing that chromodomain function is conserved from yeasts to humans. Site-directed mutagenesis, based on a modeled three-dimensional structure of the swi6p chromodomain, shows that the hydrophobic amino acids which lie in the core of the structure are critical for biological function. Gel filtration, gel overlay experiments, and mass spectroscopy show that HP1 proteins can self-associate, and we suggest that it is as oligomers that HP1 proteins are incorporated into heterochromatin complexes that silence gene activity. Show less
no PDF DOI: 10.1128/MCB.20.18.6970-6983.2000
CBX1
S Li, E L Ma, S J Wu · 1988 · Scientia Sinica. Series B, Chemical, biological, agricultural, medical & earth sciences · added 2026-04-24
Nuclei from the normal mouse liver were partially digested with micrococcal nuclease, followed by DNA extraction, agarose gel electrophoresis and dot blot hybridization with 32P-labeled cDNA probes of Show more
Nuclei from the normal mouse liver were partially digested with micrococcal nuclease, followed by DNA extraction, agarose gel electrophoresis and dot blot hybridization with 32P-labeled cDNA probes of CPS1 and ACT complex. It was clearly shown that the CPS1 genes were distributed on the monomer, dimer. and trimer of nucleosomes, while the genes coding for ACT complex were distributed on the condensed oligonucleosomes. An opposite manner of distribution of CPS1 and ACT complex genes was, however, noted in the case of ascites hepatoma cells, in which the specific activity of ACT was 13 times higher than that in the normal liver, while that of CPS1 was remarkably reduced. Similar patterns of change in mRNA level of CPS1 and ACT complex were observed in the normal mouse liver and ascites hepatoma cells, indicating a close relationship between chromatin structure and gene expression of these enzymes. Show less
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CPS1