👤 Yao Sun

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1096
Articles
753
Name variants
Also published as: Aijun Sun, Aina Sun, Aiping Sun, Aiqin Sun, Aiyun Sun, Albert Y Sun, Alfred Xuyang Sun, Anqiang Sun, Ao Sun, Aochuan Sun, Baisheng Sun, Bao-Liang Sun, Baoli Sun, Bei Sun, Beibei Sun, Belinda L Sun, Benjamin B Sun, Bin Sun, Bing Sun, Bingfa Sun, Binggui Sun, Bo Sun, Bo-Qian Sun, Bolu Sun, Boxing Sun, Boxuan Sun, Boyun Sun, C Sun, Caihong Sun, Cailu Sun, Caiyun Sun, Caroline Sun, Chang Sun, Chang-Hao Sun, Changbao Sun, Changbin Sun, Changfu Sun, Changgang Sun, Changqing Sun, Changshan Sun, Chao Sun, Chen Sun, Cheng Sun, Chengkai Sun, Chenglu Sun, Chengxi Sun, Chenliang Sun, Chenming Sun, Chenxu Sun, Chenyu Sun, Chi-Kuang Sun, Chuanyao Sun, Chuanzheng Sun, Chun Sun, Chun-Lei Sun, Chunbin Sun, Chung-Huan Sun, Chunlan Sun, Chunli Sun, Chunmeng Sun, Cong Sun, Cuihua Sun, D Sun, DaTong Sun, Dage Sun, Dandan Sun, Daqing Sun, Dating Sun, Daxiao Sun, Dazhong Sun, De Sun, Deyu Sun, Di Sun, Di-Yang Sun, Dian-Jun Sun, DianJian-Yi Sun, Dianjianyi Sun, Ding-Ping Sun, Dongdong Sun, Donglei Sun, Donglin Sun, Dongmei Sun, Dongming Sun, Dongqing Sun, Dongxiao Sun, Dongxue Sun, Dusang Sun, Dylan Sun, Emily W Sun, F Sun, F Y Sun, F-H Sun, Fan Sun, Fang Sun, Fangfang Sun, Fanghui Sun, Fei Sun, Feiyi Sun, Feng Sun, Feng-Yuan Sun, Fengjiao Sun, Fengjie Sun, Fengping Sun, Fengyun Sun, Fenyong Sun, Fuju Sun, Fusheng Sun, Fuyun Sun, Gao Sun, Gaoyuan Sun, Ge Sun, Gengrun Sun, Gengyun Sun, Genmin Sun, Guanchao Sun, Guang Sun, Guanghui Sun, Guangli Sun, Guangqing Sun, Guangtao Sun, Guangyan Sun, Guangyong Sun, Guangyun Sun, Gui-Ju Sun, Gui-Zhi Sun, Guibo Sun, Guirong Sun, Guiying Sun, Guodong Sun, Guogen Sun, Guoping Sun, Guotao Sun, Guotong Sun, Guozhe Sun, H Sun, H Sunny Sun, H W Sun, H Y Sun, H-Y Sun, Haichuan Sun, Haidan Sun, Haijun Sun, Haimin Sun, Haipeng Sun, Hairong Sun, Hairui Sun, Haixi Sun, Haixuan Sun, Haiyan Sun, Haiyue Sun, Handong Sun, Hang Sun, Hanxing Sun, Hanxue Sun, Hao Sun, Haoyang Sun, Haoyu Sun, He Sun, Hefen Sun, Heyang Sun, Hong Sun, Hong-Tao Sun, Hong-Xia Sun, Hong-Xu Sun, Hongbin Sun, Hongjian Sun, Hongli Sun, Honglin Sun, Hongmei Sun, Hongmiao Sun, Hongtao Sun, Hongwei Sun, Hongyan Sun, Hongying Sun, Houyi Sun, Hsin-Yun Sun, Hu Sun, Hu-Nan Sun, Hua Sun, Huaiqing Sun, Hualin Sun, Huan Sun, Huaxin Sun, Hui Sun, Hui-Li Sun, Huichuan Sun, Huihui Sun, Huijun Sun, Huiling Sun, Huimeng Sun, Huimin Sun, Huiru Sun, Hung-Yu Sun, J X Sun, J-X Sun, Ji-Jun Sun, Jia Sun, Jia-Hui Sun, Jia-Jie Sun, Jia-Qi Sun, Jia-Xiang Sun, Jiaao Sun, Jiabao Sun, Jiachen Sun, Jiacheng Sun, Jiahong Sun, Jiajie Sun, Jialu Sun, Jiameng Sun, Jiamin Sun, Jian Hong Sun, Jian Sun, Jian-Song Sun, Jianbo Sun, Jianfang Sun, Jiangli Sun, Jiangling Sun, Jiangming Sun, Jiangnan Sun, Jianhua Sun, Jianjian Sun, Jianmin Sun, Jianqi Sun, Jianqiang Sun, Jianqin Sun, Jianqiu Sun, Jianyang Sun, Jianyuan Sun, Jiaqi Sun, Jiaqian Sun, Jiatong Sun, Jiawei Sun, Jiayang Sun, Jiayi Sun, Jiayu Sun, Jie Sun, Jie-Yu Sun, Jiehuan Sun, Jielin Sun, Jiewei Sun, Jijia Sun, Jin Sun, Jin-Hua Sun, Jin-Peng Sun, Jing Sun, Jing-Chao Sun, Jing-Yi Sun, Jingchuan Sun, Jingchun Sun, Jingfeng Sun, Jinghui Sun, Jingwei Sun, Jingyan Sun, Jingyu Sun, Jinpeng Sun, Jinsheng Sun, Jitong Sun, Jiusheng Sun, Jonathan Sun, Jong-Mu Sun, Jun Sun, Jun-Hong Sun, Jun-Jun Sun, Jun-Li Sun, Junjun Sun, Junming Sun, Junyi Sun, Junyuan Sun, Kai SUN, Kan Sun, Kangjun Sun, Kangyun Sun, Ke Sun, KeYang Sun, Kejian Sun, Kewang Sun, Kexin Sun, Kun Sun, L R Sun, L Sun, Lanlan Sun, Le Sun, Lei Sun, Li Sun, Li-Juan Sun, Li-Ping Sun, Liang Sun, Liangdan Sun, Liangliang Sun, Libin Sun, Lichun Sun, Lida Sun, Lidan Sun, Lihan Sun, Lihong Sun, Lihua Sun, Lili Sun, Limin Sun, Lin Sun, Lin-Bing Sun, Linchong Sun, Ling Sun, Ling V Sun, Ling-Yue Sun, Lingwei Sun, Lingyao Sun, Lingyun Sun, Linlin Sun, Linshan Sun, Linyong Sun, Liqiang Sun, Liwei Sun, Lixian Sun, Liya Sun, Liying Sun, Lizhe Sun, Lizhi Sun, Lizhou Sun, Longci Sun, Lu Sun, Luguo Sun, Lulu Sun, Luming Sun, Luyang Sun, Man Sun, Manqing Sun, Manyu Sun, Mao Sun, Mei Sun, Meige Sun, Meiling Sun, Meng Sun, Mengfan Sun, Menghong Sun, Mengmeng Sun, Mengmin Sun, Mengyi Sun, Miao Sun, Miaomiao Sun, Min Sun, Ming Sun, Ming-Ze Sun, Mingjie Sun, Mingju Sun, Mingjuan Sun, Mingjun Sun, Mingkuan Sun, Minglei Sun, Mingliang Sun, Mingwei Sun, Minling Sun, Minxuan Sun, Minzeng Sun, Mizhu Sun, Na Sun, Naiyuan Sun, Nan Sun, Ni Sun, Ning Sun, Ningyang Sun, Ningyuan Sun, Olivia Sun, P Sun, Pan Sun, Patrick Sun, Peijie Sun, Peiyang Sun, Peng Sun, Pengfei Sun, Pengqing Sun, Pengyu Sun, Peter Sun, Ping Sun, Ping-Hui Sun, Ping-Ping Sun, Pingping Sun, Q Sun, Qi Sun, Qi-Long Sun, Qi-Xiang Sun, Qi-Ying Sun, Qi-hong Sun, Qian Sun, Qian-Qian Sun, Qianqian Sun, Qiao Sun, Qiao Yang Sun, Qiaoyi Sun, Qihang Sun, Qilin Sun, Qiman Sun, Qiming Sun, Qin Sun, Qing Sun, Qing-Yuan Sun, Qingan Sun, Qingjia Sun, Qingqing Sun, Qingrong Sun, Qingxiang Sun, Qingyu Sun, Qinli Sun, Qinqin Sun, Qinxue Sun, Qinyuan Sun, Qiong Sun, Qiqing Sun, Qiu Sun, Qiushi Sun, Qiying Sun, Quan Sun, Quancai Sun, Ramon C Sun, Ran Sun, Ravi W Sun, Renhua Sun, Renjuan Sun, Renqiang Sun, Roger Sun, Rong Sun, Rong-Qi Sun, Rongkuan Sun, Rongli Sun, Rongxin Sun, Rui Sun, Rui-Ping Sun, Ruijie Sun, Ruijun Sun, Ruiqiang Sun, Ruixuan Sun, Runlu Sun, Ruohan Sun, Ruonan Sun, Ruoyuan Sun, Ruxin Sun, Sanmiao Sun, Seunghan Sun, Shang-Xing Sun, Shao-Wei Sun, Shao-Yang Sun, Shaowu Sun, Shaoyang Sun, Shasha Sun, Shenfei Sun, Sheng-Nan Sun, Shengnan Sun, Shenyu Sun, Shi-Yong Sun, Shi-Yu Sun, Shibo Sun, Shifang Sun, Shihao Sun, Shiqi Sun, Shisheng Sun, Shixue Sun, Shiying Sun, Shouguo Sun, Shouyuan Sun, Shu Sun, Shu-han Sun, Shuaijie Sun, Shuaiqi Sun, Shuang Sun, Shuchen Sun, Shukai Sun, Shuna Sun, Shuo Sun, Shutao Sun, Shuyi Sun, Si Sun, Si-Jia Sun, Siduo Sun, Sifan Sun, Silei Sun, Silong Sun, Siman Sun, Siyu Sun, Song-Tao Sun, Songtao Sun, Sunny Z Sun, T Sun, Tao Sun, Taolei Sun, Taoli Sun, Taotao Sun, Teng Sun, Tengyang Sun, Tiantian Sun, Tianyu Sun, Ting Sun, Tingyue Sun, Tong Sun, Tongyu Sun, Vincent Sun, W Sun, W-J Sun, Wancheng Sun, Wanjun Sun, Wanying Sun, Wei Sun, Wei-Chih Sun, Wei-Chun Sun, Weibing Sun, Weiliang Sun, Weiqiang Sun, Weiwei Sun, Weixia Sun, Wen Sun, Wen-Qin Sun, Wenchao Sun, Wenjie Sun, Wenjing Sun, Wenjun Sun, Wenqiang Sun, Wensheng Sun, Wenxian Sun, Wenxiang Sun, Wenyan Sun, Wenye Sun, Wenyue Sun, William Sun, Wu Sun, Wu-Sheng Sun, Wui Sun, Wuxiang Sun, X L Sun, X-J Sun, Xi Sun, Xi-Ming Sun, Xi-Zhe Sun, Xia Sun, Xialin Sun, Xianbang Sun, Xianchao Sun, Xianding Sun, Xiang Ming Sun, Xiang Sun, Xiangwei Sun, Xiangxue Sun, Xiangyu Sun, Xiao Fan Sun, Xiao Sun, Xiao-Feng Sun, Xiao-Long Sun, Xiao-Meng Sun, Xiao-Yi Sun, Xiao-Ying Sun, XiaoMei Sun, Xiaobo Sun, Xiaochuan Sun, Xiaodong Sun, Xiaoguang Sun, Xiaohan Sun, Xiaohui Sun, Xiaojing Sun, Xiaojuan Sun, Xiaoke Sun, Xiaoli Sun, Xiaolu Sun, Xiaomin Sun, Xiaonan Sun, Xiaoning Sun, Xiaotian Sun, Xiaotong Sun, Xiaowei Sun, Xiaoxian Sun, Xiaoyan Sun, Xiaoying Sun, Xiaozhi Sun, Xin Sun, Xinchen Sun, Xing Sun, Xing-Hong Sun, Xinghuai Sun, Xinglin Sun, Xinyue Sun, Xiong-Lin Sun, Xipeng Sun, Xiu-Lan Sun, Xiu-Min Sun, Xiujie Sun, Xiuxia Sun, Xiuyuan Sun, Xu Sun, Xu-Ying Sun, Xuan Sun, Xuankai Sun, Xudong Sun, Xue-Guo Sun, Xuehui Sun, Xuejun Sun, Xuemei Sun, Xuepeng Sun, Xuerong Sun, Xuesu Sun, Xuewu Sun, Xueyi Sun, Xuezhao Sun, Xufang Sun, Xuling Sun, Xun Sun, Y J Sun, Y Sun, Y T Sun, Y-Z Sun, Ya-Meng Sun, Ya-Nan Sun, Ya-Qin Sun, Ya-Wen Sun, Yadong Sun, Yajie Sun, Yalan Sun, Yan Sun, Yan V Sun, Yan-Xiang Sun, Yan-Yun Sun, Yanan Sun, Yanfu Sun, Yang Sun, Yangbai Sun, Yangcheng Sun, Yanhua Sun, Yanjie Sun, Yanjun Sun, Yanning Sun, Yanqi Sun, Yanqin Sun, Yanting Sun, Yaoyao Sun, Yaping Sun, Yating Sun, Yaxi Sun, Yaxuan Sun, Yaxue Sun, Yaxun Sun, Ye Sun, Ye-Huan Sun, Yeying Sun, Yi E Sun, Yi Sun, Yi-Shan Sun, Yi-hong Sun, Yibo Sun, Yichang Sun, Yidan Sun, Yiguo Sun, Yihang Sun, Yihua Sun, Yijun Sun, Yin-Biao Sun, Ying Sun, Ying-Pu Sun, Yingchuan Sun, Yinggang Sun, Yingjie Sun, Yingli Sun, Yinglu Sun, Yingni Sun, Yingpu Sun, Yingxian Sun, Yingying Sun, Yinhua Sun, Yini Sun, Yinjia Sun, Yiran Sun, Yisuo Sun, Yitang Sun, Yixi Sun, Yixuan Sun, Yiyang Sun, Yiyuan Sun, Yize Sun, Yizhou Sun, Yizhuo Sun, Yong Sun, Yong-Tao Sun, Yongchang Sun, Yonghu Sun, Yongkun Sun, Yongqiao Sun, Yongxin Sun, Yu Ling Sun, Yu Sun, Yu-Ting Sun, Yu-hao Sun, Yuan Sun, Yuanhong Sun, Yuanyuan Sun, Yubo Sun, Yue Sun, Yuefeng Sun, Yueming Sun, Yuezhang Sun, Yufang Sun, Yuhang Sun, Yuhao Sun, Yuhong Sun, Yujia Sun, Yujie Sun, Yujin Sun, Yulian Sun, Yulin Sun, Yun Sun, Yunchuang Sun, Yuning Sun, Yunyi Sun, Yunzhang Sun, Yupeng Sun, Yuqi Sun, Yuqing Sun, Yuting Sun, Yutong Sun, Yuxiang Sun, Yuyao Sun, Yuying Sun, Z Sun, Zanzong Sun, Zeren Sun, Zeyu Sun, Zhanhang Sun, Zhaoyuan Sun, Zhe Sun, Zhen Sun, Zheng Sun, Zhengxi Sun, Zhenliang Sun, Zhennan Sun, Zhenqiang Sun, Zhenshan Sun, Zhenxiao Sun, Zhenzhen Sun, Zhifu Sun, Zhiguo Sun, Zhiwei Sun, Zhiyuan Sun, Zhonghe Sun, Zhonghua Sun, Zhongjie Sun, Zhongshi Sun, Zhongwu Sun, Zhongyuan Sun, Zhou Sun, Zhouna Sun, Zhouyi Sun, Zicheng Sun, Zikejimu Sun, Zirui Sun, Zixue Sun, Zongguo Sun, Zongqiong Sun, Zongyi Sun, Zuoli Sun
articles
Yan Sun, Jiajun Shi, Sizhong Zhang +6 more · 2005 · Neuroscience letters · Elsevier · added 2026-04-24
In order to clarify the relationship of apolipoprotein CIII (APOC3) polymorphism and sporadic Alzheimer's disease (AD) in Chinese, 165 sporadic AD patients and 174 age-matched elderly individuals were Show more
In order to clarify the relationship of apolipoprotein CIII (APOC3) polymorphism and sporadic Alzheimer's disease (AD) in Chinese, 165 sporadic AD patients and 174 age-matched elderly individuals were genotyped for the APOC3 SstI and apolipoprotein E (APOE) HhaI polymorphisms. As the result, the APOC3 3017G allele was found to be associated with AD in APOE epsilon4 allele noncarriers (chi2=4.433, P=0.035), and the risk estimate of allele C versus G resulted in an OR of 1.56 (95% CI: 1.03-2.37), although in total no significant differences of allelic or genotypic frequencies between patients and controls were found. Assessment of interaction between APOE epsilon4 and APOC3 3017G status presented an adjusted odds ratio of 0.62 (95% CI: 0.37-1.03) with a borderline significant P-value (P=0.066). Therefore, we conclude that the rare APOC3 G allele may offer some protection against the development of sporadic AD in APOE epsilon4 noncarriers in Chinese. Show less
no PDF DOI: 10.1016/j.neulet.2005.01.038
APOC3
Chunlan Sun, Takashi Yamato, Emiko Kondo +3 more · 2005 · Journal of neuro-oncology · Springer · added 2026-04-24
We analyzed mutation of the APC, AXIN1, and GSK3genes in 14 pituitary adenomas with abnormal nuclear accumulations of CTNNB1. These tumors did not harbor mutation of the CTNNB1 gene. The genes analyze Show more
We analyzed mutation of the APC, AXIN1, and GSK3genes in 14 pituitary adenomas with abnormal nuclear accumulations of CTNNB1. These tumors did not harbor mutation of the CTNNB1 gene. The genes analyzed encode proteins associated with ubiquitin-mediated degradation of CTNNB1. Although the regions encoding functional domains of these protein products were analyzed, no significant genetic alterations were found. Furthermore, the antibody for the C-terminus of APC detected normal expression of the APC protein in these pituitary adenomas. Our present results imply that an unknown mechanism(s) accelerates the accumulation of CTNNB1 that plays an important role in the pathogenesis of human pituitary adenomas. However, the possibility that mutation of regions outside of our survey or epigenetic mechanism play an important role cannot be excluded. Show less
no PDF DOI: 10.1007/s11060-004-4597-3
AXIN1
Kazumi Ogawa, Chunlan Sun, Akira Horii · 2005 · Oncology reports · added 2026-04-24
Mutations of RAS, RAF, and PTEN, all important members of the RAS/MAPK and PI3K/AKT cascades, are reported in a variety of human tumors, including melanomas and endometrial cancer. In endometrial canc Show more
Mutations of RAS, RAF, and PTEN, all important members of the RAS/MAPK and PI3K/AKT cascades, are reported in a variety of human tumors, including melanomas and endometrial cancer. In endometrial cancer, mutually exclusive mutations of PTEN and KRAS have been reported. On the other hand, mutation of BRAF is highly frequent, and mutually exclusive mutations of BRAF and NRAS have also been reported in melanomas. In this study, we elucidated the involvement of the up-regulation of RAS/MAPK and PI3K/AKT cascades in the pathogenesis of endometrial cancer and melanoma by analyzing the genes and molecules in these cascades. Twelve cell lines, six melanoma and six endometrial cancer, were analyzed; 4 (67%) of the 6 melanomas had gene mutations in the RAS/MAPK cascade, and a decrease or loss of PTEN expression was also observed. These results suggested that simultaneous up-regulations in these two cascades play important roles in carcinogenesis of melanocytes. However, no activation of AKT by phosphorylation was observed. On the other hand, 4 (67%) of the 6 endometrial cancer cell lines had mutually exclusive up-regulations in these cascades. However, two cell lines with up-regulation of the PI3K/AKT cascade also had up-regulation in the RAS/MAPK cascade induced by inactivation of DUSP6. These results suggest that simultaneous up-regulation of RAS/MAPK and PI3K/AKT cascades are crucial events in the pathogenesis of melanocytes, whereas up-regulation of either the RAS/MAPK or PI3K/AKT cascade is crucial for the majority of endometrial cancers. Show less
no PDF
DUSP6
Wen-li Xie, Wen-ling Liu, Da-Yi Hu +6 more · 2005 · Zhonghua yi xue za zhi · added 2026-04-24
To explore the disease-causing gene mutation in Chinese with hypertrophic cardiomyopathy (HCM). The peripheral venous blood samples were collected from 5 HCM families without consanguinity, including Show more
To explore the disease-causing gene mutation in Chinese with hypertrophic cardiomyopathy (HCM). The peripheral venous blood samples were collected from 5 HCM families without consanguinity, including 5 probands, 2 males and 3 females, 28 sporadic HCM patients, 18 males and 10 females, and 80 healthy controls. The exons in the functional regions of cardiac myosin-binding protein C (MYBPC3) were amplified with PCR and the amplified products were sequenced. A frame shift mutation-Arg346fs mutation in exon 13, the first mutation identified in Chinese-was discovered in one family with HCM. However, the members of the same HCM family with the Arg346fs mutation showed differences in phenotype and prognosis. Cardiac myosin-binding protein C (MYBPC3) may be one of the main disease-causing genes. The heterogeneity of phenotype suggests that multiple factors may be involved in the pathogenesis. Show less
no PDF
MYBPC3
Patrick Tso, William Sun, Min Liu · 2004 · American journal of physiology. Gastrointestinal and liver physiology · added 2026-04-24
The focus of this article is to review evidence that apolipoprotein A-IV (apo A-IV) acts as a satiety factor. Additionally, information regarding the general involvement of apo A-IV in the regulation Show more
The focus of this article is to review evidence that apolipoprotein A-IV (apo A-IV) acts as a satiety factor. Additionally, information regarding the general involvement of apo A-IV in the regulation of food intake and body weight is stated. Apo A-IV is a glycoprotein synthesized by the human intestine. In rodents, both the small intestine and liver secrete apo A-IV, but the small intestine is the major organ responsible for circulating apo A-IV. There is now solid evidence that the hypothalamus, especially the arcuate nucleus, is another active site of apo A-IV expression. Intestinal apo A-IV synthesis is markedly stimulated by fat absorption and does not appear to be mediated by the uptake or reesterification of fatty acids to form triglycerides. Rather, the local formation of chylomicrons acts as a signal for the induction of intestinal apo A-IV synthesis. Intestinal apo A-IV synthesis is also enhanced by a factor from the ileum, probably peptide tyrosine-tyrosine (PYY). The inhibition of food intake by apo A-IV is mediated centrally. The stimulation of intestinal synthesis and secretion of apo A-IV by lipid absorption are rapid; thus apo A-IV likely plays a role in the short-term regulation of food intake. Other evidence suggests that apo A-IV may also be involved in the long-term regulation of food intake and body weight, as it is regulated by both leptin and insulin. Chronic ingestion of a high-fat diet blunts the intestinal as well as the hypothalamic apo A-IV response to lipid feeding. It also suppresses apo A-IV gene expression in the hypothalamus. Whereas it is tempting to speculate that apo A-IV may play a role in diet-induced obesity, we believe the confirmation of such a proposal awaits further experimental evidence. Show less
no PDF DOI: 10.1152/ajpgi.00511.2003
APOA4
I A Larson, J M Ordovas, Z Sun +5 more · 2002 · Clinical genetics · added 2026-04-24
The effects of apolipoprotein (apo) A-IV genotype on serum glucose, total cholesterol, low density lipoprotein (LDL) cholesterol, high density lipoprotein (HDL) cholesterol, triglyceride and glucose c Show more
The effects of apolipoprotein (apo) A-IV genotype on serum glucose, total cholesterol, low density lipoprotein (LDL) cholesterol, high density lipoprotein (HDL) cholesterol, triglyceride and glucose concentrations were ascertained in a population of 373 men and 361 women with a mean age of about 57 years. Subjects were evaluated at entry into a lifestyle intervention program. Apolipoprotein A-IV genotype variations at residues 347 and 360 were examined, as these mutations affect the sequence of apo A-IV, a major protein constituent of intestinal triglyceride-rich lipoprotein and HDL. With regard to the apo A-IV 360 mutation, 16.4% of the females and 13.4% of the males carried the apo A-IV 2-allele, almost entirely in the heterozygous state. No effect of the apo A-IV 1/2 genotype was observed in either men or women on total cholesterol, LDL cholesterol, HDL cholesterol, triglyceride, the total cholesterol (TC)/HDL ratio, or on A-I, A-IV and apo B levels. This was also the case for the apo A-IV 347 mutation. However, women with the apo A-IV 360 1/2 genotype had significantly (p < 0.005) higher glucose levels (105.5 mg/dl) compared with the 1/1 wild-type (94.0 mg/dl). All analyses were also adjusted for age, body mass index, medications, alcohol use and cigarette smoking. The prevalence of the 347 mutation was somewhat higher than the 360 mutation, with 29% of the females and 32.0% of the males being heterozygous for this mutation, and 3.9% of the females and 5.4% of the males being homozygous for this mutation. These data are consistent with the concept that the apo A-IV 360 and 347 genotypes have no significant effect on apo A-IV levels and other lipid parameters in either gender. However, apo A-IV 360 1/2 genotype did have a significant effect on serum glucose levels in women. Show less
no PDF DOI: 10.1034/j.1399-0004.2002.610606.x
APOA4
Z Sun, F K Welty, G G Dolnikowski +2 more · 2001 · The American journal of clinical nutrition · Oxford University Press · added 2026-04-24
Apolipoprotein (apo) A-IV is a major component of triacylglycerol-rich lipoprotein (TRL) apolipoproteins. We investigated the effects of dietary saturated fat and cholesterol restriction on the metabo Show more
Apolipoprotein (apo) A-IV is a major component of triacylglycerol-rich lipoprotein (TRL) apolipoproteins. We investigated the effects of dietary saturated fat and cholesterol restriction on the metabolism of TRL and plasma apo A-IV. We assessed TRL and plasma apo A-IV kinetics in 16 and 4 subjects, respectively, consuming an average US (baseline) diet for 6 wk and a National Cholesterol Education Program Step II diet for 24 wk, respectively. At the end of each diet period, all subjects received a primed, constant infusion of deuterated leucine for 15 h with hourly feeding. Ratios of stable-isotope tracer to tracee were measured by using gas chromatography-mass spectrometry, and kinetic data were modeled by using SAAM II. Mean apo A-IV concentrations during the isotope infusion period were 6.9 +/- 2.6 mg/L in TRL and 2.2 +/- 3.2 mg/L in plasma with the baseline diet; these values were 37.7% (P < 0.001) and 19.4% (P < 0.01) lower with the Step II diet. Similar changes were observed in the fasting state between the 2 diets. The mean apo A-IV secretion rate decreased significantly from baseline by 59.6% in TRLs and by 40.2% in plasma. Significant correlations were observed between TRL apo A-IV concentrations and the secretion rate (r = 0.94, P < 0.001) and between TRL apo A-IV pool size and TRL-cholesterol concentrations (r = 0.48, P < 0.01). Our data indicate that the National Cholesterol Education Program Step II diet significantly decreases TRL and plasma apo A-IV concentrations compared with the average US diet and that this decrease is due to a decreased secretion rate. Show less
no PDF DOI: 10.1093/ajcn/74.3.308
APOA4
Z Sun, A H Lichtenstein, G G Dolnikowski +2 more · 2001 · Atherosclerosis · Elsevier · added 2026-04-24
In order to investigate the metabolism of apo A-IV within TRL and plasma, we assessed TRL and plasma apo A-IV kinetics in 19 and 4 subjects, respectively, consuming an average US diet for a 6-week per Show more
In order to investigate the metabolism of apo A-IV within TRL and plasma, we assessed TRL and plasma apo A-IV kinetics in 19 and 4 subjects, respectively, consuming an average US diet for a 6-week period. At the end of this diet study, each subject received a primed-constant infusion of deuterated leucine over a 15 h time period with hourly feeding, and blood samples were drawn at 10 time points. TRL was separated by ultracentrifugation. Apo A-IV was isolated by immunoprecipitation and/or SDS-PAGE. Apo A-IV concentrations were determined by immunoelectrophoresis. Stable isotope tracer/tracee ratios were measured by gas chromatography/mass spectrometry, and the data were analyzed by multicompartmental modeling. The mean concentrations of plasma and TRL apo A-IV during the isotope infusion period were 21.0+/-3.2 and 0.66+/-0.25 mg/dl, respectively, and these values were 11.5 and 30.5% higher than those of fasting samples. The mean TRL and plasma apo A-IV residence times (RT) were 1.97+/-0.57 and 2.71+/-0.65 days, and transport rates (TR) were 0.17+/-0.19 and 3.90+/-1.24 mg/kg per day, respectively. There were significant correlations between TRL apo A-IV concentrations and TR (r(2)=0.79, P<0.001), and between TRL apo A-IV pool size and TRL cholesterol levels (r(2)=0.29, P=0.02). Our data indicated that; (1) TRL apo A-IV has a RT of 1.97 days which is similar to that earlier reported for HDL apo A-IV; (2) Apo A-IV recirculates between TRL and other slowly turning over pools; (3) the primary determinant of TRL apo A-IV levels is its TR; and (4) there is no correlation between TRL apo A-IV and apo B48 fractional catabolism in TRL. Show less
no PDF DOI: 10.1016/s0021-9150(00)00663-8
APOA4
D Sun, C L Leung, R K Liem · 2001 · Journal of cell science · added 2026-04-24
MACF (microtubule actin cross-linking factor) is a large, 608-kDa protein that can associate with both actin microfilaments and microtubules (MTs). Structurally, MACF can be divided into 3 domains: an Show more
MACF (microtubule actin cross-linking factor) is a large, 608-kDa protein that can associate with both actin microfilaments and microtubules (MTs). Structurally, MACF can be divided into 3 domains: an N-terminal domain that contains both a calponin type actin-binding domain and a plakin domain; a rod domain that is composed of 23 dystrophin-like spectrin repeats; and a C-terminal domain that includes two EF-hand calcium-binding motifs, as well as a region that is homologous to two related proteins, GAR22 and Gas2. We have previously demonstrated that the C-terminal domain of MACF binds to MTs, although no homology was observed between this domain and other known microtubule-binding proteins. In this report, we describe the characterization of this microtubule-binding domain of MACF by transient transfection studies and in vitro binding assays. We found that the C-terminus of MACF contains at least two microtubule-binding regions, a GAR domain and a domain containing glycine-serine-arginine (GSR) repeats. In transfected cells, the GAR domain bound to and partially stabilized MTs to depolymerization by nocodazole. The GSR-containing domain caused MTs to form bundles that are still sensitive to nocodazole-induced depolymerization. When present together, these two domains acted in concert to bundle MTs and render them stable to nocodazole treatment. Recently, a study has shown that the N-terminal half of the plakin domain (called the M1 domain) of MACF also binds MTs. We therefore examined the microtubule binding ability of the M1 domain in the context of the entire plakin domain with and without the remaining N-terminal regions of two different MACF isoforms. Interestingly, in the presence of the surrounding sequences, the M1 domain did not bind MTs. In addition to MACF, cDNA sequences encoding the GAR and GSR-containing domains are also found in the partial human EST clone KIAA0728, which has high sequence homology to the 3' end of the MACF cDNA; hence, we refer to it as MACF2. The C-terminal domain of mouse MACF2 was cloned and characterized. The microtubule-binding properties of MACF2 C-terminal domain are similar to that of MACF. The GAR domain was originally found in Gas 2 protein and here we show that it can associate with MTs in transfected cells. Plectin and desmoplakin have GSR-containing domains at their C-termini and we further demonstrate that the GSR-containing domain of plectin, but not desmoplakin, can bind to MTs in vivo. Show less
no PDF DOI: 10.1242/jcs.114.1.161
MACF1
W Sun, K Kesavan, B C Schaefer +5 more · 2001 · The Journal of biological chemistry · American Society for Biochemistry and Molecular Biology · added 2026-04-24
MEKK2 and MEKK3 are two closely related mitogen-activated protein kinase (MAPK) kinase kinases. The kinase domains of MEKK2 and MEKK3 are nearly identical, although their N-terminal regulatory domains Show more
MEKK2 and MEKK3 are two closely related mitogen-activated protein kinase (MAPK) kinase kinases. The kinase domains of MEKK2 and MEKK3 are nearly identical, although their N-terminal regulatory domains are significantly divergent. By yeast two-hybrid library screening, we have identified MEK5, the MAPK kinase in the big mitogen-activated protein kinase 1 (BMK1)/ERK5 pathway, as a binding partner for MEKK2. MEKK2 expression stimulates BMK1/ERK5 activity, the downstream substrate for MEK5. Compared with MEKK3, MEKK2 activated BMK1/ERK5 to a greater extent, which might correlate with a higher affinity MEKK2-MEK5 interaction. A dominant negative form of MEK5 blocked the activation of BMK1/ERK5 by MEKK2, whereas activation of c-Jun N-terminal kinase (JNK) was unaffected, showing that MEK5 is a specific downstream effector of MEKK2 in the BMK1/ERK5 pathway. Activation of BMK1/ERK5 by epidermal growth factor and H2O2 in Cos7 and HEK293 cells was completely blocked by a kinase-inactive MEKK3 (MEKK3kin(-)), whereas MEKK2kin(-) had no effect. However, in D10 T cells, expression of MEKK2kin(-) but not MEKK3kin(-) inhibited BMK1/ERK5 activity. Two-hybrid screening also identified Lck-associated adapter/Rlk- and Itk-binding protein (Lad/RIBP), a T cell adapter protein, as a binding partner for MEKK2. MEKK2 and Lad/RIBP colocalize at the T cell contact site with antigen-loaded presenting cells, demonstrating cotranslocation of MEKK2 and Lad/RIBP during T cell activation. MEKK3 neither binds Lad/RIBP nor is recruited to the T cell contact with antigen presenting cell. MEKK2 and MEKK3 are differentially associated with signaling from specific upstream receptor systems, whereas both activate the MEK5-BMK1/ERK5 pathway. Show less
no PDF DOI: 10.1074/jbc.M003719200
MAP2K5
Z Sun, I A Larson, J M Ordovas +2 more · 2000 · Atherosclerosis · Elsevier · added 2026-04-24
Apolipoprotein (apo) A-IV is a protein component of triglyceride (TG)-rich lipoproteins and high density lipoproteins (HDL). Plasma apo A-IV levels were measured by immunoelectrophoresis and these val Show more
Apolipoprotein (apo) A-IV is a protein component of triglyceride (TG)-rich lipoproteins and high density lipoproteins (HDL). Plasma apo A-IV levels were measured by immunoelectrophoresis and these values were related to other biological variables in 723 middle aged and elderly men and women (more than 90% of them were Caucasian) prior to participation in a lifestyle modification program. Apo A-IV may play an important function in regulating lipid absorption, reverse cholesterol transport, and food intake. The data are consistent with the following concepts: (1) apo A-IV levels are significantly and positively correlated with age (r = 0.159, P < 0.05) in all subjects, with plasma apo A-I levels in both men (r = 0.194, P < 0.001) and women (r = 0.213, P < 0.001), and with apo E (r=0.111, P<0.05) and TG levels (r =0.120, P <0.05) in men; (2) apo A-IV levels are inversely correlated with body mass index (r = 0.170, P <0.05) in women; (3) female subjects on hormone replacement therapy have significantly lower plasma apo A-IV levels (by 4.1%, P < 0.05) than normal controls; (4) diabetic subjects have significantly higher apo A-IV levels (by 21%, P < 0.01) than normal subjects; (5) there is no significant effect of smoking, alcohol intake, and apo A-IV-1/2 genotype on apo A-IV levels. The data indicate that plasma apo A-IV levels are significantly affected by age, diabetes, and hormone replacement therapy. Show less
no PDF DOI: 10.1016/s0021-9150(99)00395-0
APOA4
C L Leung, D Sun, M Zheng +2 more · 1999 · The Journal of cell biology · added 2026-04-24
We cloned and characterized a full-length cDNA of mouse actin cross-linking family 7 (mACF7) by sequential rapid amplification of cDNA ends-PCR. The completed mACF7 cDNA is 17 kb and codes for a 608-k Show more
We cloned and characterized a full-length cDNA of mouse actin cross-linking family 7 (mACF7) by sequential rapid amplification of cDNA ends-PCR. The completed mACF7 cDNA is 17 kb and codes for a 608-kD protein. The closest relative of mACF7 is the Drosophila protein Kakapo, which shares similar architecture with mACF7. mACF7 contains a putative actin-binding domain and a plakin-like domain that are highly homologous to dystonin (BPAG1-n) at its NH(2) terminus. However, unlike dystonin, mACF7 does not contain a coiled-coil rod domain; instead, the rod domain of mACF7 is made up of 23 dystrophin-like spectrin repeats. At its COOH terminus, mACF7 contains two putative EF-hand calcium-binding motifs and a segment homologous to the growth arrest-specific protein, Gas2. In this paper, we demonstrate that the NH(2)-terminal actin-binding domain of mACF7 is functional both in vivo and in vitro. More importantly, we found that the COOH-terminal domain of mACF7 interacts with and stabilizes microtubules. In transfected cells full-length mACF7 can associate not only with actin but also with microtubules. Hence, we suggest a modified name: MACF (microtubule actin cross-linking factor). The properties of MACF are consistent with the observation that mutations in kakapo cause disorganization of microtubules in epidermal muscle attachment cells and some sensory neurons. Show less
📄 PDF DOI: 10.1083/jcb.147.6.1275
MACF1
Y Sun, J Zhang, S K Kraeft +8 more · 1999 · The Journal of biological chemistry · American Society for Biochemistry and Molecular Biology · added 2026-04-24
We describe the molecular cloning and characterization of a novel giant human cytoplasmic protein, trabeculin-alpha (M(r) = 614,000). Analysis of the deduced amino acid sequence reveals homologies wit Show more
We describe the molecular cloning and characterization of a novel giant human cytoplasmic protein, trabeculin-alpha (M(r) = 614,000). Analysis of the deduced amino acid sequence reveals homologies with several putative functional domains, including a pair of alpha-actinin-like actin binding domains; regions of homology to plakins at either end of the giant polypeptide; 29 copies of a spectrin-like motif in the central region of the protein; two potential Ca(2+)-binding EF-hand motifs; and a Ser-rich region containing a repeated GSRX motif. With similarities to both plakins and spectrins, trabeculin-alpha appears to have evolved as a hybrid of these two families of proteins. The functionality of the actin binding domains located near the N terminus was confirmed with an F-actin binding assay using glutathione S-transferase fusion proteins comprising amino acids 9-486 of the deduced peptide. Northern and Western blotting and immunofluorescence studies suggest that trabeculin is ubiquitously expressed and is distributed throughout the cytoplasm, though the protein was found to be greatly up-regulated upon differentiation of myoblasts into myotubes. Finally, the presence of cDNAs similar to, yet distinct from, trabeculin-alpha in both human and mouse suggests that trabeculins may form a new subfamily of giant actin-binding/cytoskeletal cross-linking proteins. Show less
no PDF DOI: 10.1074/jbc.274.47.33522
MACF1
R A Hegele, P W Connelly, A J Hanley +3 more · 1997 · Arteriosclerosis, thrombosis, and vascular biology · added 2026-04-24
We hypothesized that common genomic variation that affected the expression and/or function of the products of the APOC3, APOE, FABP2, and PON1 genes would be associated with variation in biochemical p Show more
We hypothesized that common genomic variation that affected the expression and/or function of the products of the APOC3, APOE, FABP2, and PON1 genes would be associated with variation in biochemical phenotypes in a previously unstudied human sample. We determined genotypes of functional genomic variants of APOC3, APOE, FABP2, and PON1 in 509 adult aboriginal Canadians from an isolated community in Northern Ontario. We tested for genotype associations with plasma lipoprotein traits. We found that (1) common variation at nucleotide -455 of the APOC3 promoter was associated with variation in plasma triglycerides (P = .006) and (2) common variation of APOE determining plasma isoforms of apo E was associated with variation in plasma apo B (P = .009). Analysis of subjects classed by APOC3 markers showed that homozygosity for presence of a C at nucleotide -455 and a T at nucleotide -482 was associated with significantly increased plasma triglycerides in both men and women. Furthermore, this allele was approximately twice as frequent in subjects within the highest quartile of plasma triglycerides as in subjects within the lowest quartile. Since the DNA variation detected by the APOC3 markers affects in vitro expression of the gene product, it is possible that the marker itself caused the associations. However, the associations could also have resulted from linkage disequilibrium with other functional variants in APOC3 or the closely linked APOA1 and/or APOA4 genes. Show less
no PDF DOI: 10.1161/01.atv.17.11.2753
APOC3
R A Hegele, P W Connelly, A J Hanley +3 more · 1997 · Arteriosclerosis, thrombosis, and vascular biology · added 2026-04-24
We hypothesized that common genomic variants would be associated with variation in lipoprotein phenotypes in young subjects. We determined genotypes of FABP2, PON, APOC3, and APOE in 188 aboriginal Ca Show more
We hypothesized that common genomic variants would be associated with variation in lipoprotein phenotypes in young subjects. We determined genotypes of FABP2, PON, APOC3, and APOE in 188 aboriginal Canadians, aged 9 to 17 years. We found that 13 of 32 possible genotype-phenotype associations were significant: (1) the FABP2 codon 54 genotype was associated with variation in plasma triglycerides (P = .045); (2) the PON codon 192 genotype was associated with variation in plasma total and LDL cholesterol and apoB (P = .0099, P = .0088, and P = .016, respectively); (3) the APOC3 insulin-response-element genotype was associated with variation in plasma triglycerides, HDL cholesterol, apoA-I, the total cholesterol to HDL cholesterol ratio, and the apoB to apoA-I ratio (P = .0014, P = .0069, P = .045, P = .0021, and P = .0081, respectively); and (4) the APOE restriction isotype was associated with variation in plasma LDL cholesterol, apoB, the total cholesterol to HDL cholesterol ratio, and the apoB to apoA-I ratio (P = .025, P = .034, P = .045, and P = .047, respectively). The average young age and relative absence of age-dependent secondary environmental factors could have eased the identification of small genetic effects on lipoprotein phenotypes in this study sample. Show less
no PDF DOI: 10.1161/01.atv.17.6.1060
APOC3
K W Lam, C Y Li, L T Yam +3 more · 1989 · The Prostate · Wiley · added 2026-04-24
A monoclonal antibody with high affinity to acid phosphatase isoenzyme 2 (Ab-AcP2) was selected to examine its binding to different normal and tumor tissues using the indirect immunohistochemical meth Show more
A monoclonal antibody with high affinity to acid phosphatase isoenzyme 2 (Ab-AcP2) was selected to examine its binding to different normal and tumor tissues using the indirect immunohistochemical method. Both mature prostatic epithelial cells in the prostate and the highly dedifferentiated prostatic cancer cells in the bone marrow showed strong binding to the antibody. Among nonprostatic tissues, only bone marrow, breast, and kidney showed trace staining in some specimens. The specificity of Ab-AcP2 was much better than that of the polyclonal antibody to acid phospatase previously reported. When the antibody to the prostate-specific antigen (Ab-PSA) was used, weak background staining was often encountered, and weak to moderate stains were seen in the prostatic stroma, bone marrow, lung, skin, and melanoma. Show less
no PDF DOI: 10.1002/pros.2990150103
ACP2