👤 Yi-Haou Lin

🔍 Search 📋 Browse 🏷️ Tags ❤️ Favourites ➕ Add 🧬 Extraction
917
Articles
741
Name variants
Also published as: Ai-Hsuan Lin, Aifu Lin, Ailong Lin, Aiping Lin, Aizhen Lin, Alexander Lin, Alexander P Lin, Ann Lin, Bei Lin, Bencheng Lin, Bi-Yun Lin, Biaoyang Lin, Bichun Lin, Bihua Lin, Bin Lin, Binbin Lin, Bing-Biao Lin, Bing-Jin Lin, Bing-Xue Lin, Bing-Yao Lin, Bingbing Lin, Bingqi Lin, Bo Lin, Bo-Wen Lin, Bode Lin, Bonnie Lin, Boxu Lin, Brian Leei Lin, Brian Lin, Bridget M Lin, C H Lin, C T Lin, C Y Lin, Cai-Xia Lin, Caiyu Lin, Chang Lin, Chang-Ching A Lin, Changchun Lin, Changpo Lin, Chao Lin, Chao-Chieh Lin, Chao-Feng Lin, Chao-Hsiung Lin, Chaohui Lin, Charles P Lin, Chen Lin, Chen-Yong Lin, Cheng Lin, Cheng-Chieh Lin, Cheng-Li Lin, Cheng-Yen Lin, Chengping Lin, Chengqi Lin, Chengyuan Lin, Chenquan Lin, Chi-Hung Lin, Chi-Shiuan Lin, Chi-Ying Lin, Chia-Chin Lin, Chia-Hao Lin, Chia-Ho Lin, Chia-Hsin Lin, Chia-Hung Lin, Chia-Liang Lin, Chia-Yu Lin, Chiao-Huang Lin, Chiao-Mei Lin, Chien-Ju Lin, Chien-Wei Lin, Chien-Yu Lin, Chih-Chun Lin, Chih-Hsun Lin, Chih-Ming Lin, Chih-Pei Lin, Chih-Yu Lin, Chii-Mei Lin, Chin-Hsien Lin, Chin-Sheng Lin, Chin-Yu Lin, Ching-Hung Lin, Ching-Yih Lin, Ching-Yu Lin, Chingju Lin, Cho-Hao Lin, Chuan Lin, Chuan-Chao Lin, Chun Lin, Chun-Lin Lin, Chun-Mao Lin, Chung-Hsien Lin, Chung-Ming Lin, Chunhua Lin, Chunming Lin, Chyuan-Sheng Lin, Cindy Lin, Cong Lin, Cuei-Jyuan Lin, Cui-Jun Lin, Cuilan Lin, Dafeng Lin, Daiqiong Lin, Dan Lin, Dan-Yu Lin, Daniel W Lin, Danyu Lin, Dao-Chao Lin, De-Chen Lin, Ding Lin, Dong Lin, Dong-Tsamn Lin, Dongmei Lin, Dongru Lin, Dongxin Lin, Dongzi Lin, Douglas I Lin, Eugene Lin, F Lin, Fan Lin, Fan-Li Lin, Fang Lin, Fangrui Lin, Fangyu Lin, Fangzhao Lin, Fei Lin, Fen Lin, Feng Lin, Feng-Chang Lin, Feng-Ming Lin, Feng-Yen Lin, Foxiang Lin, Fu Sheng Lin, Fujun Lin, Gang Lin, Ge Lin, Grace Lin, Guan-Bo Lin, Guang-Yao Lin, Guangzheng Lin, Gufa Lin, Guihu Lin, Guimei Lin, Guo-Wang Lin, Guofu Lin, Guoqiang Lin, Guowen Lin, H G Lin, H R Lin, Hai Lin, Haibiao Lin, Haimiao Lin, Haipeng Lin, Haitong Lin, Haiyan Lin, Han Lin, Han-Huei Lin, Hang Lin, Hang-Yan Lin, Hanyu Lin, Hao Lin, Hao-Yu Lin, Haochang Lin, Haocheng Lin, Haodong Lin, Haoyi Lin, Haoyu Lin, He Lin, Heng Lin, Heng-Huei Lin, Henghui Lin, Hening Lin, Hong Lin, Hongcheng Lin, Hongchun Lin, Honghuang Lin, Hongkun Lin, Hongsheng Lin, Hongyan Lin, Hsiao-Yun Lin, Hsien-Chih Lin, Hsin-Ti Lin, Hsing-Pei Lin, Hsiu-Chu Lin, Hua Lin, Huanhuan Lin, Hui Lin, Hui-Hsuan Lin, Hui-Ju Lin, Hui-Kuan Lin, Hui-Ping Lin, Hui-Ru Lin, Hui-Yan Lin, Hui-Yi Lin, Huijuan Lin, Huilan Lin, Huimei Lin, Huisheng Lin, Hung-Chih Lin, Hung-Ju Lin, Hung-Jung Lin, I-Ching Lin, I-Jung Lin, I-Ling Lin, Jake Lin, James A Lin, Jamie S Lin, Jane-Ming Lin, Jeng-Feng Lin, Jia Lin, Jia-Bin Lin, Jia-Feng Lin, Jia-Li Lin, Jia-Qi Lin, Jiabin Lin, Jiacheng Lin, Jiaheng Lin, Jiahui Lin, Jiajing Lin, Jiali Lin, Jiamao Lin, Jiamei Lin, Jian-Yu Lin, JianMin Lin, Jiandie D Lin, Jiandie Lin, Jianfei Lin, Jiang Lin, Jianhao Lin, Jianhua Lin, Jianhui Lin, Jianjian Lin, Jiantao Lin, Jianwei Lin, Jianyin Lin, Jiaqi Lin, Jiaqian Lin, Jiaquan Lin, Jiarui Lin, Jiatong Lin, Jiayang Lin, Jiayi Lin, Jiayuh Lin, Jie Lin, Jie Ming Lin, Jieye Lin, Jieying Lin, Jijin Lin, Jim Jr-Min Lin, Jin Lin, Jin'e Lin, Jin-Ru Lin, Jinchuan Lin, Jing Lin, Jing-Ping Lin, Jing-Ying Lin, Jing-Yu Lin, Jinghan Lin, Jingmei Lin, Jingyu Lin, Jingyuan Lin, Jinlong Lin, Jinxiu Lin, Jinzhong Lin, Jiu Lin, Jiuann-Huey Ivy Lin, Jiunn-Lee Lin, Jiyan Lin, Jo-Yu Lin, Joanne Lin, Johnson Lin, Jue Lin, Juin-Han Lin, Jun-Ming Lin, Junjian Lin, Junnan Lin, Junyi Lin, Kai Lin, Kai-Hsin Lin, Kai-Min Lin, Kai-Yan Lin, Kai-Yen Lin, Kang Lin, Kashuai Lin, Katia Lin, Ke Lin, Ke-Shin Lin, Kejian Lin, Keng-Hung Lin, Kim Y Lin, Kimberly Y Lin, Kongying Lin, Kuan-Hung Lin, Kuang Lin, L Lin, L Y Lin, Lanyan Lin, Le-Hang Lin, Lei Lin, Leilei Lin, Lezhen Lin, Li An Lin, Li Lin, Li-An Lin, Li-Ching Lin, Li-E Lin, Li-Fen Lin, Li-Ling Lin, Li-Rong Lin, Li-Song Lin, Lian-Yu Lin, Liang-Chun Lin, Liang-Tzung Lin, Lihao Lin, Lijin Lin, Liling Lin, Limei Lin, Lin Lin, Ling Lin, Ling-Li Lin, Liping Lin, Lisong Lin, Liwen Lin, Lizhong Lin, Lizhu Lin, Long Lin, Long-Yau Lin, Lu Lin, Luping Lin, M Lin, Manjie Lin, Mao-Shin Lin, Mao-Tsun Lin, Mary Grace Lin, Mei-Chi Lin, Meifang Lin, Meizhen Lin, Meng-Fei Lin, Meng-Wei Lin, Mengsha Lin, Mengxin Lin, Mengyao Lin, Miao Lin, Miao-Chong Joy Lin, Min Lin, Min-Huan Lin, Min-Jie Lin, Min-Rou Lin, Ming-Der Lin, Ming-Hong Lin, Ming-Huei Lin, Ming-Tai Lin, Ming-Wei Lin, Mingkuan Lin, Mingmei Lin, Mingqun Lin, Mingrui Lin, Mingxing Lin, Mingying Lin, Monica Lin, Nan Lin, Nancy U Lin, Nianwei Lin, Ning Lin, Ning-Ning Lin, Ningning Lin, Pei Lin, Pei-Chin Lin, Pei-Lin Lin, Pei-Yi Lin, Peijia Lin, Peng Lin, Peng-Chan Lin, Pengfei Lin, Penghui Lin, Ping Lin, Pingping Lin, Po-Han Lin, Qi Lin, Qian Lin, Qianmeng Lin, Qiannan Lin, Qiao Lin, Qiao-Hong Lin, Qiaoxuan Lin, Qichang Lin, Qin Lin, Qing Lin, Qinghua Lin, Qingling Lin, Qingqing Lin, Qingxiang Lin, Qinlu Lin, Qiong Lin, Qiongfen Lin, Qitai Lin, Qiuling Lin, Qu Lin, Quan-Zhen Lin, R-I Lin, Raozhou Lin, Renjing Lin, Richard Z Lin, Rong Lin, Ronghai Lin, Rongjie Lin, Ru Lin, Rui Lin, Ruifan Lin, Ruilang Lin, Ruiyi Lin, Rutao Lin, S C Lin, S K Lin, S L Lin, S Lin, S Y Lin, S-J Lin, Sen Lin, Sen-Qing Lin, Sha Lin, Shan Lin, Shanyi Lin, Shanyun Lin, Shaowei Lin, Sharon Lin, Sheldon S Lin, Sheng Lin, Sheng-Cai Lin, Sheng-Che Lin, Sheng-Jia Lin, Sheng-Wei Lin, Sheng-Xiang Lin, Shengjie Lin, Shi Lin, Shiaw-Yih Lin, Shibo Lin, Shih-Cherng Lin, Shih-Chieh Lin, Shih-Fan Lin, Shih-Wei Lin, Shih-Yi Lin, Shihui Lin, Shijie Lin, Shin-Yu Lin, Shing-Jong Lin, Shinian Lin, Shinn-Zong Lin, Shinne-Ren Lin, Shiow J Lin, Shiow Lin, Shiping Lin, Shiru Lin, Shiya Lin, Shiyu Lin, Shu Lin, Shu-Chun Lin, Shu-Hui Lin, Shu-Rung Lin, Shu-Wha Lin, Shuai Lin, Shuaijun Lin, Shuan-Pei Lin, Shuhai Lin, Shujuan Lin, Shun-Guo Lin, Shuo Lin, Shuqian Lin, Shyr-Yi Lin, Si-Xian Lin, Simin Lin, Simon Lin, Siong-Chi Lin, Sisi Lin, Siying Lin, Song-Shu Lin, Songyi Lin, Sophia Lin, Spencer Lin, Su-Fang Lin, Sue-Jane Lin, Sufen Lin, Suyang Lin, Suzhen Lin, Ta-Hsien Lin, Tai-Chi Lin, Tao Lin, Tianfeng Lin, Tianxin Lin, Tien-Huang Lin, Tim Lin, Ting Lin, Ting-Hsu Lin, Ting-ting Lin, Tingsheng Lin, Tingting Lin, Tse-I Lin, Tsu-Kung Lin, Tsung-Hsien Lin, Tsung-Shih Lin, Tung-Yi Lin, Tzu-Chien Lin, Vicky Lin, Wan-Wan Lin, Wan-Yu Lin, Wan-Yun Lin, Wanhui Lin, Wanjun Lin, Wei Lin, Wei-De Lin, Wei-Ling Lin, Wei-Ting Lin, Wei-Tso Lin, Wei-Wen Lin, Wei-Xiong Lin, Wei-Yin Lin, Wei-Yu Lin, WeiHao Lin, Weichun Lin, Weiji Lin, Weilong Lin, Weimin Lin, Weiqiang Lin, Wen-Jun Lin, Wen-Jye Lin, Wenjian Lin, Wenming Lin, Wenxin Lin, X J Lin, X Lin, Xi Lin, Xian-Bin Lin, Xian-Zi Lin, Xianchai Lin, Xiandong Lin, Xiang-Quan Lin, Xiangquan Lin, Xiangwu Lin, Xiangyang Lin, Xianke Lin, Xianmei Lin, Xianzhi Lin, Xianzi Lin, Xiao Lin, Xiao-Chun Lin, Xiao-long Lin, Xiaodi Lin, Xiaohan Lin, Xiaohong Lin, Xiaohui Lin, Xiaojing Lin, Xiaoling Lin, Xiaolong Lin, Xiaomin Lin, Xiaoqing Lin, Xiaowei Lin, Xiaoyan Lin, Xiaoyang Lin, Xiaoyi Lin, Xiaoyu Lin, Xiaozeng Lin, Xihong Lin, Xin Lin, Xin-Mei Lin, Xin-Xiu Lin, Xinchun Lin, Xinda Lin, Xing Lin, Xingguang Lin, Xinhua Lin, Xinrong Lin, Xinshi Lin, Xinxin Lin, Xinyao Lin, Xiu-Ru Lin, Xixiao Lin, Xu Lin, Xue Lin, Xue-Jing Lin, Xuefei Lin, Xuehua Lin, Xuejing Lin, Xuelian Lin, Xuemei Lin, Xuewan Lin, Xuyao Lin, Xuyong Lin, Y C Lin, Y Lin, Y M Lin, Ya-Hui Lin, Ya-Lin Lin, Ya-Qiu Lin, Ya-Tin Lin, Yan Lin, Yan-Ling Lin, Yancheng Lin, Yang Lin, Yang-Hsiang Lin, Yani Lin, Yanjun Lin, Yanke Lin, Yanni Lin, Yanqin Lin, Yanxia Lin, Yanzhu Lin, Yao Lin, Yao-Ping Lin, Yaohui Lin, Yaqiu Lin, Ye Lin, Yen-Chun Lin, Yen-Feng Lin, Yen-Hong Lin, Yen-Kuang Lin, Yen-Lin Lin, Yen-Shu Lin, Yen-Yi Lin, Yi Lin, Yi-An Lin, Yi-Chen Lin, Yi-Hsiung Lin, Yi-Hsuan Lin, Yi-Hui Lin, Yi-Jang Lin, Yi-Ling Lin, Yi-Nan Lin, Yi-Tzu Lin, Yi-Wen Lin, Yichuan Lin, Yifei Lin, Yifeng Lin, Yihui Lin, Yilong Lin, Yina Lin, Ying Lin, Ying-Chao Lin, Ying-Hsi Lin, Yingnan Lin, Yingni Lin, Yingting Lin, Yingzhong Lin, Yiqi Lin, Yone Kawe Lin, Yong Lin, Yong-Shiang Lin, Yongbin Lin, Yongyao Lin, You Bin Lin, Youcheng Lin, Youwen Lin, Yu Lin, Yu-Chen Lin, Yu-Ching Lin, Yu-Cui Lin, Yu-Fen Lin, Yu-Hsiang Lin, Yu-Hsuan Lin, Yu-Hui Lin, Yu-Lin Lin, Yu-Ling Lin, Yu-Shan Lin, Yu-Sheng Lin, Yu-Wen Lin, Yuan Lin, Yuan-Feng Lin, Yuansheng Lin, Yubi Lin, Yuchen Lin, Yue-Jun Lin, Yueh-Min Lin, Yuezhi Lin, Yuhao Lin, Yuki Lin, Yuli Lin, Yun-Chi Lin, Yun-Lu Lin, Yun-Zhi Lin, Yunfeng Lin, Yung-Chieh Lin, Yung-Ming Lin, Yuntao Lin, Yunting Lin, Yutong Lin, Yuxi Lin, Yuxiang Lin, Yuxin Lin, Yuyuan Lin, Yuzheng Lin, Z Lin, Zaihong Lin, Ze-Shiang Lin, Zebin Lin, Zesen Lin, Zesi Lin, Zexing Lin, Zhangyu Lin, Zhao Lin, Zhaohua Lin, Zhaotong Lin, Zheguang Lin, Zhekai Lin, Zhen Lin, Zheng Lin, Zhengfang Lin, Zhengjie Lin, Zhenhu Lin, Zhenjia Lin, Zhenming Lin, Zhenping Lin, Zhenzhen Lin, Zheshen Lin, Zhi-Heng Lin, Zhi-Hu Lin, Zhi-ming Lin, Zhibin Lin, Zhichao Lin, Zhicheng Lin, Zhien Lin, Zhijian Lin, Zhijie Lin, Zhiqi Lin, Zhixian Lin, Zhixiong Lin, Zhiyi Lin, Zhiying Lin, Zhiyong Lin, Zhong-Hua Lin, Zhongdong Lin, Zhonghua Lin, Zhongjie Lin, Zhongqiu Lin, Zhongxiao Lin, Zhoumeng Lin, Zhuojia Lin, Zi-Han Lin, Zien Lin, Zihan Lin, Ziqiang Lin, Ziwei Lin, Zixian Lin, Zongyun Lin
articles
Tsung-Hsien Su, Jan-Gowth Chang, Kun-Tu Yeh +4 more · 2003 · Oncology reports · added 2026-04-24
The components of the Wnt-signaling pathway are mutated in tumors, but the relationship between these components and cervical cancer has not been elucidated. In this study, we used immunohistochemistr Show more
The components of the Wnt-signaling pathway are mutated in tumors, but the relationship between these components and cervical cancer has not been elucidated. In this study, we used immunohistochemistry, single strand confirmation polymorphism (SSCP) and direct sequencing methods to analyze the mutation and protein expressions of both CTNNB1 and AXIN1 in cervical cancer. Among the 30 tested cervical cancers, no mutation of CTNNB1 but 3 polymorphisms were found. Mutation analysis of AXIN1 revealed that one specimen had a heterozygous mutation at codon 740 (GCC right curved arrow ACC) and six polymorphisms were also found. Immunohistochemistry showed no relationship between the protein expression patterns and mutation of AXIN1 and CTNNB1. Mutations of CTNNB1 may not be a factor, whereas mutations of AXIN1 may play a limited role in tumorigenesis of cervical cancer. In addition, aberrant expression patterns are not mutation related, so that other factors may be responsible for these changes. Show less
no PDF
AXIN1
Shun-Yao Ko, Shu-Chun Lin, Kuo-Wei Chang +4 more · 2003 · Journal of oral pathology & medicine : official publication of the International Association of Oral Pathologists and the American Academy of Oral Pathology · added 2026-04-24
Areca chewing is a common habit of Asians, leading to a high propensity for a variety of oral diseases in this population. This research aimed to study the expression level of genes in oral fibroblast Show more
Areca chewing is a common habit of Asians, leading to a high propensity for a variety of oral diseases in this population. This research aimed to study the expression level of genes in oral fibroblast cell lines in response to exposure to ripe areca nut extract (rANE). Fifteen oral fibroblast cell lines obtained from individuals aged 20-77 years were established. Treatment of a cell line with 40 micro g/ml rANE for 24 h was performed to achieve RNA for cDNA microarray analysis. Among some 320 genes exhibiting detectable expression levels, 14 were up-regulated and 26 were down-regulated more than 2.5-fold. Semi-quantitative RT-PCR analysis suggested that up-regulation of IL-6 expression and down-regulation of PDGFR, APP-1 and KGF-1 expressions in multiple cell lines assayed, were compatible with the results of the microarray analysis. Using quantitative real-time RT-PCR analysis, a remarkable down-regulation of KGF-1 expression in response to 40 microg/ml rANE, ranging 1.5-ninefold as compared to controls, was found in 60% (9/15) of the cell lines. This study established a novel toxicogenomic database for rANE. The down-regulation of KGF-1 expression in oral fibroblast cell lines potentially impairs the proliferation of overlying keratinocytes, which could partially explain the frequent epithelial atrophy observed in chronic areca chewers in vivo. Show less
no PDF DOI: 10.1034/j.1600-0714.2003.00133.x
PABPC4
Chunming Liu, Yiming Li, Mikhail Semenov +6 more · 2002 · Cell · Elsevier · added 2026-04-24
Wnt regulation of beta-catenin degradation is essential for development and carcinogenesis. beta-catenin degradation is initiated upon amino-terminal serine/threonine phosphorylation, which is believe Show more
Wnt regulation of beta-catenin degradation is essential for development and carcinogenesis. beta-catenin degradation is initiated upon amino-terminal serine/threonine phosphorylation, which is believed to be performed by glycogen synthase kinase-3 (GSK-3) in complex with tumor suppressor proteins Axin and adnomatous polyposis coli (APC). Here we describe another Axin-associated kinase, whose phosphorylation of beta-catenin precedes and is required for subsequent GSK-3 phosphorylation of beta-catenin. This "priming" kinase is casein kinase Ialpha (CKIalpha). Depletion of CKIalpha inhibits beta-catenin phosphorylation and degradation and causes abnormal embryogenesis associated with excessive Wnt/beta-catenin signaling. Our study uncovers distinct roles and steps of beta-catenin phosphorylation, identifies CKIalpha as a component in Wnt/beta-catenin signaling, and has implications to pathogenesis/therapeutics of human cancers and diabetes. Show less
no PDF DOI: 10.1016/s0092-8674(02)00685-2
AXIN1
Alanna L Eilers, Eleanor Sundwall, Monica Lin +2 more · 2002 · Molecular and cellular biology · added 2026-04-24
Among members of the bHLHZip family of transcriptional regulators, MondoA and Mlx have the unique property of cytoplasmic localization. We have proposed that MondoA-Mlx heterodimers accumulate in the Show more
Among members of the bHLHZip family of transcriptional regulators, MondoA and Mlx have the unique property of cytoplasmic localization. We have proposed that MondoA-Mlx heterodimers accumulate in the nucleus in response to extracellular cues. Our previous work implicated heterodimerization between MondoA and Mlx and a conserved domain in the N terminus of MondoA as important determinants of MondoA-Mlx subcellular localization. MondoA and Mlx share sequence similarity in their bHLHZip domains and C termini. Here we show that for both MondoA and Mlx, this C-terminal domain has cytoplasmic localization activity that is required by the protein monomers to accumulate in the cytoplasm. This C-terminal domain is also a novel dimerization interface that functions independently of the leucine zipper to mediate heterotypic interactions between MondoA and Mlx. Dimerization between MondoA and Mlx inactivates the cytoplasmic localization activity of their C termini and is necessary for the heterocomplex to accumulate in the nucleus. MondoA-Mlx heterodimers, while poised for nuclear entry, are retained in the cytoplasm by conserved domains in the N terminus of MondoA. Mondo conserved regions (MCRs) II and III contribute to cytoplasmic localization of MondoA-Mlx by functioning as a CRM1-dependent nuclear export signal and as a novel binding site for 14-3-3 family members, respectively. We propose that the nuclear accumulation of MondoA and Mlx is a two-step process. First, heterodimerization abolishes the cytoplasmic localization activity of their C termini. Second, an extracellular signal(s) must overcome the cytoplasmic localization function imparted by CRM1 and 14-3-3 binding to the N terminus of MondoA. Show less
no PDF DOI: 10.1128/MCB.22.24.8514-8526.2002
MLXIPL
F Lin, Y Fukuoka, A Spicer +5 more · 2001 · Immunology · added 2026-04-24
Decay-accelerating factor (DAF) is a membrane regulator of C3 activation that protects self cells from autologous complement attack. In humans, DAF is uniformly expressed as a glycosylphosphatidylinos Show more
Decay-accelerating factor (DAF) is a membrane regulator of C3 activation that protects self cells from autologous complement attack. In humans, DAF is uniformly expressed as a glycosylphosphatidylinositol (GPI)-anchored molecule. In mice, both GPI-anchored and transmembrane-anchored DAF proteins are produced, each of which can be derived from two different genes (Daf1 and Daf2). In this report, we describe a Daf1 gene knock-out mouse arising as the first product of a strategy for targeting one or both Daf genes. As part of the work, we characterize recently described monoclonal antibodies against murine DAF protein using deletion mutants synthesized in yeast, and then employ the monoclonal antibodies in conjunction with wild-type and the Daf1 knock-out mice to determine the tissue distribution of the mouse Daf1 and Daf2 gene products. To enhance the immunohistochemical detection of murine DAF protein, we utilized the sensitive tyramide fluorescence method. In wild-type mice, we found strong DAF labelling of glomeruli, airway and gut epithelium, the spleen, vascular endothelium throughout all tissues, and seminiferous tubules of the testis. In Daf1 knock-out mice, DAF labelling was ablated in most tissues, but strong labelling of the testis and splenic dendritic cells remained. In both sites, reverse transcription-polymerase chain reaction analyses identified both GPI and transmembrane forms of Daf2 gene-derived protein. The results have relevance for studies of in vivo murine DAF function and of murine DAF structure. Show less
no PDF DOI: 10.1046/j.1365-2567.2001.01287.x
CLN3
S Qin, K Kawano, C Bruce +4 more · 2000 · Journal of lipid research · added 2026-04-24
Phospholipid transfer protein gene knock-out (Pltp KO) mice have defective transfer of very low density lipoprotein (VLDL) phospholipids into high density lipoprotein (HDL) and markedly decreased HDL Show more
Phospholipid transfer protein gene knock-out (Pltp KO) mice have defective transfer of very low density lipoprotein (VLDL) phospholipids into high density lipoprotein (HDL) and markedly decreased HDL levels (Jiang et al. 1999. J. Clin. Invest. 103: 907-914). These animals also accumulated VLDL- and LDL-sized lipoproteins on a high saturated fat diet. The goals of this study were to further characterize the abnormal lipoproteins of Pltp KO mice and to determine the mechanisms responsible for low HDL levels. A lipoprotein fraction enriched in lamellar structures was isolated from the low density lipoprotein (LDL) region and was shown to be phospholipid- and free cholesterol-rich and to have apoA-IV (55%) and apoE (25%) as major apolipoproteins. The lamellar lipoproteins accumulating in these mice probably represent surface material derived from triglyceride-rich lipoproteins (TRL). The HDL was found to be protein-rich (primarily apoA-I) and specifically depleted in phosphatidylcholine (PC) (28% in wild-type mice (WT) vs. 15% in Pltp KO mice, P < 0.001). Unexpectedly, turnover studies using autologous HDL revealed a profound 4-fold increase in the catabolism of HDL protein and cholesteryl ester in Pltp KO mice compared to wild-type, with minor differences in synthesis rates. In contrast, injection of WT mouse HDL into Pltp KO mice showed only a 2-fold increase in fractional catabolism. Reminiscent of the defect in Tangier disease, the failure of transfer of PC from TRL into the HDL fraction results in dramatic hypercatabolism of HDL. These results suggest that defective phospholipid transfer from TRL into HDL, arising from decreased lipolysis or decreased PLTP activity, could lead to hypoalphalipoproteinemia characterized by hypercatabolism of HDL protein. lipoprotein levels, due to hypercatabolism, and accumulate apoA-IV-rich lamellar lipoproteins. Show less
no PDF
APOA4
Y M Lin, T Kato, S Satoh +2 more · 2000 · Journal of human genetics · Springer · added 2026-04-24
Axin and Cdx-2 play important roles in the tumorigenesis of human liver and colon. We have identified seven novel single-nucleotide polymorphisms (SNPs) in the AXIN1 gene and three in the CDX-2 gene. Show more
Axin and Cdx-2 play important roles in the tumorigenesis of human liver and colon. We have identified seven novel single-nucleotide polymorphisms (SNPs) in the AXIN1 gene and three in the CDX-2 gene. The identification of SNPs in these cancer-associated genes establishes a basis for future investigations to detect losses of heterozygosity in tumors; these SNPs may also provide genetic background information associated with cancer risk. Show less
no PDF DOI: 10.1007/s100380070036
AXIN1
X Lin, G Wei, Z Shi +4 more · 2000 · Developmental biology · added 2026-04-24
Mutations in the EXT1 gene are responsible for human hereditary multiple exostosis type 1. The Drosophila EXT1 homologue, tout-velu, regulates Hedgehog diffusion and signaling, which play an important Show more
Mutations in the EXT1 gene are responsible for human hereditary multiple exostosis type 1. The Drosophila EXT1 homologue, tout-velu, regulates Hedgehog diffusion and signaling, which play an important role in tissue patterning during both invertebrate and vertebrate development. The EXT1 protein is also required for the biosynthesis of heparan sulfate glycosaminoglycans that bind Hedgehog. In this study, we generated EXT1-deficient mice by gene targeting. EXT1 homozygous mutants fail to gastrulate and generally lack organized mesoderm and extraembryonic tissues, resulting in smaller embryos compared to normal littermates. RT-PCR analysis of markers for visceral endoderm and mesoderm development indicates the delayed and abnormal development of both of these tissues. Immunohistochemical staining revealed a visceral endoderm pattern of Indian hedgehog (Ihh) in wild-type E6.5 embryos. However, in both EXT1-deficient embryos and wild-type embryos treated with heparitinase I, Ihh failed to associate with the cells. The effect of the EXT1 deletion on heparan sulfate formation was tested by HPLC and cellular glycosyltransferase activity assays. Heparan sulfate synthesis was abolished in EXT1 -/- ES cells and decreased to less than 50% in +/- cell lines. These results indicate that EXT1 is essential for both gastrulation and heparan sulfate biosynthesis in early embryonic development. Show less
no PDF DOI: 10.1006/dbio.2000.9798
EXT1
X Lin, L Gan, W H Klein +1 more · 1998 · Biochemical and biophysical research communications · added 2026-04-24
Hereditary multiple exostoses (EXT) is a genetically heterogeneous, autosomal dominant skeletal disorder. The gene for EXT1 maps to human chromosome 8q24.1 and encodes an evolutionary conserved protei Show more
Hereditary multiple exostoses (EXT) is a genetically heterogeneous, autosomal dominant skeletal disorder. The gene for EXT1 maps to human chromosome 8q24.1 and encodes an evolutionary conserved protein that is a member of a multigene family. The mouse homolog of human EXT1 protein is 99% similar to its human counterpart. Here, we present the expression profiles of the mouse EXT1 gene. EXT1 mRNA is initially expressed at 6.5 days post-coitum (d.p.c.), which coincides with gastrulation of the mouse embryo. Whole mount in situ hybridization with 10.5 to 12.5 d.p.c. mouse embryos showed a high level of expression of EXT1 mRNA in developing limb buds. Epitope tagging experiments revealed the endoplasmic reticulum localization of EXT1 protein. This localization was consistent with a hydrophobic stretch of amino acids present at the N-terminal end of the EXT1 protein. These results provide novel information on the function of EXT1 and the etiology of hereditary multiple exostoses. Show less
no PDF DOI: 10.1006/bbrc.1998.9050
EXT1
C C Tseng, L Lin · 1997 · Biochemical and biophysical research communications · added 2026-04-24
The glucose-dependent insulinotropic peptide receptor (GIP-R) is a member of the secretin and parathyroid hormone (PTH) family of seven transmembrane-spanning receptors. Point mutations of a histidine Show more
The glucose-dependent insulinotropic peptide receptor (GIP-R) is a member of the secretin and parathyroid hormone (PTH) family of seven transmembrane-spanning receptors. Point mutations of a histidine at the junction between the first intracellular loop and the second membrane-spanning domain and a threonine in the sixth membrane-spanning domain of the human PTH-receptor have been reported to be associated with constitutive activation of the PTH receptor in Jansen-type metaphyseal chondrodysplasia. In this study, we explored whether such mutations in the GIP-R might similarly induce constitutive, ligand-independent activation of the receptor. Single amino acid substitutions in the GIP receptor were made by site-directed mutagenesis and receptor binding and cAMP levels were measured in transfected human embryonal kidney cell line (L293). Mutation of the threonine at position 340 in the sixth transmembrane spanning domain to proline (T340P) led to agonist-independent constitutive activity and exhibited a four-fold increase in basal cAMP level as compared to the wild-type GIP-R. The increase in cAMP level in T340P mutant was proportional to the amount of transfected plasmid and corresponded to the receptor number on the cell surface. Despite its high basal cAMP level, the T340P mutant could be further stimulated by GIP, with maximal cAMP generation comparable to the wild-type receptor. The change of amino acid histidine at position 169 to arginine (H169R), however, behaved like the wild type receptor and did not possess constitutive activity. These results illustrate that a point mutation of threonine to proline at position 340 results in constitutive activation of the GIP receptor, without affecting its sensitivity to agonist stimulation. Show less
no PDF DOI: 10.1006/bbrc.1997.6231
GIPR
D E Wells, A Hill, X Lin +3 more · 1997 · Human genetics · Springer · added 2026-04-24
Hereditary multiple exostoses (EXT) is a genetically heterogeneous bone disorder caused by genes segregating on human chromosomes 8, 11, and 19 and designated EXT1, EXT2 and EXT3, respectively. Recent Show more
Hereditary multiple exostoses (EXT) is a genetically heterogeneous bone disorder caused by genes segregating on human chromosomes 8, 11, and 19 and designated EXT1, EXT2 and EXT3, respectively. Recently, the EXT1 gene has been isolated and partially characterized and appears to encode a tumor suppressor gene. We have identified six mutations in the human EXT1 gene from six unrelated multiple exostoses families segregating for the EXT gene on chromosome 8. One of the mutations we detected is the same 1-bp deletion in exon 6 that was previously reported in two independent EXT families. The other five mutations, in exons 1, 6, 9, and the splice junction at the 3' end of exon 2, are novel. In each case, the mutation is likely to result in a truncated or nonfunctional EXT1 protein. These results corroborate and extend the previous report of mutations in this gene in two EXT families, and provide additional support for the EXT1 gene as the cause of hereditary multiple exostoses in families showing linkage to chromosome 8. Show less
no PDF DOI: 10.1007/s004390050415
EXT1
H J Lüdecke, J Ahn, X Lin +5 more · 1997 · Genomics · added 2026-04-24
Hereditary predisposition to multiple exostoses is a genetically heterogeneous disease. Recently, we have reported the identification of the EXT1 gene on human chromosome 8. We have now isolated a cDN Show more
Hereditary predisposition to multiple exostoses is a genetically heterogeneous disease. Recently, we have reported the identification of the EXT1 gene on human chromosome 8. We have now isolated a cDNA clone from a human adult lung cDNA library and have determined the genomic organization and promoter structure of the EXT1 gene. The gene is composed of 11 exons, ranging from 90 to 1735 bp, and spans approximately 350 kb of genomic DNA. Sequence analysis of the promoter region revealed the presence of a CpG island containing GC and CAAT boxes, but no TATA box. Such a promoter is characteristic for housekeeping genes. This finding is in good agreement with the ubiquitous expression of the EXT1 gene. Show less
no PDF DOI: 10.1006/geno.1996.4577
EXT1
X Lin, D Wells · 1997 · DNA sequence : the journal of DNA sequencing and mapping · added 2026-04-24
We have cloned and sequenced the mouse cDNA homologous to the human Hereditary Multiple Exostoses (EXT1) gene. The mouse homolog shows 94% similarity at the nucleotide level and 99% similarity at the Show more
We have cloned and sequenced the mouse cDNA homologous to the human Hereditary Multiple Exostoses (EXT1) gene. The mouse homolog shows 94% similarity at the nucleotide level and 99% similarity at the protein level compared to the human gene. The 5' UTRs are unusually conserved for non-coding sequences showing 94% similarity compared to 80% for the 3' UTRs. The high level of evolutionary conservation between the EXT1 proteins as well as the 5' UTR suggests that each plays an important and related role in both species. Show less
no PDF DOI: 10.3109/10425179709034035
EXT1
C T Lin, J W Liu, J Y Wu +3 more · 1986 · Laboratory investigation; a journal of technical methods and pathology · added 2026-04-24
The acid phosphatase (AcP) isoenzyme in a human prostatic cancer cell line was compared to that of prostatic tissue extract by electrophoresis. The major isoenzyme by prostatic tissue extract is the A Show more
The acid phosphatase (AcP) isoenzyme in a human prostatic cancer cell line was compared to that of prostatic tissue extract by electrophoresis. The major isoenzyme by prostatic tissue extract is the AcP isoenzyme 2, while only AcP isoenzyme 4 (AcP-4) was observed in the human prostatic cancer cell line. A monoclonal antibody specific to AcP-4 was used to investigate the ultrastructural distribution of AcP-4 in a prostatic cancer cell line. The peroxidase staining pattern indicates that AcP-4 is synthesized on bound ribosomes, discharged into the cisternae of rough endoplasmic reticulum, transported to the cisternae of Golgi apparatus for concentration and packaging, and transferred to the secretory vesicles for exocytosis. It is well known that synthesis and secretion of AcP-2 are the major characteristics of the highly differentiated prostatic epithelial cells. The present data demonstrate the loss of this specific function in the prostatic cancer cell line. Instead of AcP-2, the dedifferentiated cancer cell line synthesizes and secretes AcP-4, which is a common AcP isoenzyme of many nonprostatic tissues. Show less
no PDF
ACP2
A W Vogl, Y C Lin, M Dym +1 more · 1983 · The American journal of anatomy · Wiley · added 2026-04-24
Sertoli cells of the ground squirrel (Spermophilus lateralis), a seasonal breeder, were examined by light and electron microscopy and their structure, particularly the organization of the cytoskeleton Show more
Sertoli cells of the ground squirrel (Spermophilus lateralis), a seasonal breeder, were examined by light and electron microscopy and their structure, particularly the organization of the cytoskeleton, was related to events that occur in the seminiferous epithelium during spermatogenesis. Among the events considered and described are the apical movement of elongate spermatids, withdrawal of residual cytoplasm from germ cells, transport of smooth endoplasmic reticulum (SER) between the base and apex of the Sertoli cells, and sperm release. These events are dramatically evident in this species because the seminiferous epithelium is thin, i.e., there are few germ cells, and both the germ cells and Sertoli cells are large. Sertoli cells of the ground squirrel have a remarkably well developed cytoskeleton. Microfilaments occur throughout the cell but are most evident in ectoplasmic specializations associated with junctions. Intermediate filaments occur around the nucleus, as a layer at the base of the cell, and adjacent to desmosome-like junctions with germ cells. Intermediate filaments, together with microtubules, are also abundant in regions of the cell involved with the transport of SER, in cytoplasm associated with elongate spermatids, and in processes that extend into the residual cytoplasm of germ cells. Our observations of ultrastructure are consistent with the hypothesis that Sertoli cell microtubules are involved with the movement of germ cells within the seminiferous epithelium, and further implicate these structures as possibly playing a role in the retraction of residual cytoplasm from germ cells and the intracellular transport of SER. The abundance and organization of intermediate filaments suggest that these cytoskeletal elements may also be involved with events that occur during spermatogenesis. Show less
no PDF DOI: 10.1002/aja.1001680109
DYM
H Inano, Y C Lin, M Dym · 1982 · Journal of steroid biochemistry · Elsevier · added 2026-04-24
The testicular aromatase activity was significantly increased by administration of hCG to 18-day old rats, but not increased in 29-day old rats. 1,4,6-Androstatriene-3,17-dione did not inhibit the in Show more
The testicular aromatase activity was significantly increased by administration of hCG to 18-day old rats, but not increased in 29-day old rats. 1,4,6-Androstatriene-3,17-dione did not inhibit the in vitro conversion of testosterone to 19-hydroxytestosterone by the testicular cell-free homogenates of the hCG-treated 18-day old rats, but strongly suppressed production of estrogen from 19-hydroxyandrostenedione. On the other hand, the 19-hydroxylase activity of 18-day old rats stimulated by hCG was reduced to about 50% of the control value by SKF-525A, SU-4,885, SU-8,000 and SU-9,055 at their concentration of 10(-4) M. From our results, it is postulated that there are two distinct steps in the process of aromatization of testosterone, the one, the primary 19-hydroxylation which is inhibited by SKF-525A and SU-compounds, but not by 1,4,6-androstatriene-3,17-dione, and the other, aromatization of 19-hydroxylated androgen which is inhibited by both 1,4,6-androstatriene-3,17-dione and non-steroidal inhibitors. Show less
no PDF DOI: 10.1016/0022-4731(82)90119-4
DYM
M Dym, H G Raj, Y C Lin +4 more · 1979 · Journal of reproduction and fertility. Supplement · added 2026-04-24
Administration of FSH antiserum to adult rats for 14 or 30 days had no or little effect on body, testis or accessory sex gland weights, androgen-binding protein, testosterone levels, germ cell numbers Show more
Administration of FSH antiserum to adult rats for 14 or 30 days had no or little effect on body, testis or accessory sex gland weights, androgen-binding protein, testosterone levels, germ cell numbers or fertility, thus indicating a relative insensitivity of the testis to withdrawal of FSH. Unlike immature rats, therefore, which do require FSH to initiate spermatogenesis, adult rats do not need this hormone to maintain spermatogenesis. Show less
no PDF
DYM