[1]Effects of Different Oils on the Fatty Acid Profiles of Culture Medium and Ruminal Microorganisms in vitro. Wang, M. Z.,Wang, H. R.,Yu, L. H.,Bu, D. P.,Wang, J. Q.. 2012

[2]Identification of QTLs associated with oil content and mapping FAD2 genes and their relative contribution to oil quality in peanut (Arachis hypogaea L.). Pandey, Manish K.,Qiao, Lixian,Feng, Suping,Khera, Pawan,Wang, Hui,Guo, Baozhu,Pandey, Manish K.,Khera, Pawan,Varshney, Rajeev K.,Pandey, Manish K.,Qiao, Lixian,Feng, Suping,Khera, Pawan,Wang, Hui,Culbreath, Albert K.,Guo, Baozhu,Wang, Ming Li,Tonnis, Brandon,Barkley, Noelle A.,Qiao, Lixian,Feng, Suping,Wang, Hui,Wang, Jianping,Holbrook, C. Corley. 2014

[3]Identification of the Relationship between Oil Body Morphology and Oil Content by Microstructure Comparison Combining with QTL Analysis in Brassica napus. Gu, Jianwei,Chao, Hongbo,Li, Maoteng,Gu, Jianwei,Xiang, Jun,Gan, Jianping,Li, Maoteng,Wang, Hao,Li, Yonghong,Li, Dianrong,Lu, Guangyuan,Zhang, Xuekun,Long, Yan. 2017

[4]Molecular evidence for blocking erucic acid synthesis in rapeseed (Brassica napus L.) by a two-base-pair deletion in FAE1 (fatty acid elongase 1). Wu Lei,Jia Yan-li,Wu Gang,Lu Chang-ming. 2015

[5]Cloning of fatty acid elongase 1 gene and molecular identification of A and C genome in Brassica species. Wu Yuhua,Xiao Ling,Wu Gang,Lu ChangMing. 2007

[6]Evaluation and Screening of Potential Non-Food Biodiesel Plants from Native Wild Species of Northwestern China. Qin, Shuo,Xue, Shuai,Xie, Guang Hui,Qin, Shuo,Xie, Guang Hui,Qin, Shuo,Xue, Shuai,Steinberger, Yosef,Li, Gui Ying. 2015

[7]A Comparison of Milk Protein, Amino Acid and Fatty Acid Profiles of River Buffalo and Their F1 and F2 Hybrids with Swamp Buffalo in China. Ren, Da-xi,Chen, You-liang,Liu, Jian-xin,Zou, Cai-xia,Lin, Bo,Liang, Xian-wei. 2015

[8]Targeted multivariate adulteration detection based on fatty acid profiles and Monte Carlo one-class partial least squares. Zhang, Liangxiao,Yuan, Zhe,Li, Peiwu,Wang, Xuefang,Mao, Jin,Zhang, Qi,Zhang, Liangxiao,Yuan, Zhe,Li, Peiwu,Zhang, Qi,Zhang, Liangxiao,Li, Peiwu,Mao, Jin,Li, Peiwu,Wang, Xuefang,Mao, Jin,Zhang, Qi,Zhang, Liangxiao,Hu, Chundi.

[9]Classification and Adulteration Detection of Vegetable Oils Based on Fatty Acid Profiles. Zhang, Liangxiao,Li, Peiwu,Sun, Xiaoman,Wang, Xuefang,Xu, Baocheng,Wang, Xiupin,Ma, Fei,Zhang, Qi,Ding, Xiaoxia,Ma, Fei,Zhang, Qi,Li, Peiwu,Zhang, Qi,Zhang, Liangxiao,Li, Peiwu,Ding, Xiaoxia,Zhang, Liangxiao,Li, Peiwu,Sun, Xiaoman,Wang, Xuefang,Xu, Baocheng,Wang, Xiupin,Ma, Fei.

[10]The effect of energy restriction on fatty acid profiles of longissimus dorsi and tissue adipose depots in sheep. Song, S. Z.,Wu, J. P.,Zhao, S. G.,He, B.,Liu, T.,Song, S. Z.,Wu, J. P.,Lang, X.,Gong, X. Y.,Liu, L. S.,Casper, D. P.. 2017

[11]Fatty acid profiles based adulteration detection for flaxseed oil by gas chromatography mass spectrometry. Sun, Xiaoman,Zhang, Liangxiao,Li, Peiwu,Xu, Baocheng,Ma, Fei,Zhang, Qi,Zhang, Wen,Zhang, Qi,Zhang, Wen,Li, Peiwu,Zhang, Qi,Zhang, Liangxiao,Li, Peiwu,Sun, Xiaoman,Zhang, Liangxiao,Li, Peiwu,Xu, Baocheng,Ma, Fei,Zhang, Wen.

[12]Microbial lipid production by the oleaginous yeast Cryptococcus curvatus O3 grown in fed-batch culture. Zhang, Jie,Li, Yan,Xu, Hai-Peng,Zhao, Bao-Feng,Chen, Lei,Zhang, Xiao-Dong,Zhang, Jie,Fang, Xu,Zhu, Xiao-Ling. 2011

[13]Screening and Identification of Differentially Expressed Genes in Goose Hepatocytes Exposed to Free Fatty Acid. Pan, Zhixiong,Wang, Jiwen,Kang, Bo,Han, Chunchun,Tang, Hui,Li, Liang,Xu, Feng,Zhou, Zehui,Lv, Jia,Lu, Lizhi. 2010

[14]Cs-substituted H3PW12O40 on Palygorskite Clay for Esterification of Oleic Acid with Ethanol. Zhang, L. X.,Jin, Q. Z.,Shan, L.,Liu, Y. F.,Huang, J. H.,Wang, X. G.,Zhang, L. X.. 2012

[15]Comparison of the Delta(12) fatty acid desaturase gene between high-oleic and normal-oleic peanut genotypes. Yu, Shanlin,Pan, Lijuan,Zhang, Hongsheng,Pan, Lijuan,Yang, Qingli,Min, Ping,Ren, Zengkai. 2008

[16]A novel Ganoderma lucidum G0119 fermentation strategy for enhanced triterpenes production by statistical process optimization and addition of oleic acid. Feng, Jie,Zhang, Jing-Song,Feng, Na,Yan, Meng-Qiu,Yang, Yan,Jia, Wei,Lin, Chi-Chung,Feng, Jie,Zhang, Jing-Song,Feng, Na,Yan, Meng-Qiu,Yang, Yan,Jia, Wei,Lin, Chi-Chung,Feng, Jie,Zhang, Jing-Song,Feng, Na,Yan, Meng-Qiu,Yang, Yan,Jia, Wei,Lin, Chi-Chung.

[17]Synthesis and Characterization of Superparamagnetic Fe3O4 Nanoparticles Modified with Oleic Acid. Wang, Fei,Yin, Chan,Wei, Xiaoyi,Wang, Qinghuang,Cui, Lihong,Wang, Yihong,Li, Te,Li, Jihua,Wang, Qinghuang,Li, Jihua,Wang, Yihong. 2014

[18]Semi-rational engineering of cytochrome CYP153A from Marinobacter aquaeolei for improved omega-hydroxylation activity towards oleic acid. Duan, Yan,Ba, Lina,Gao, Jianwei,Gao, Xianxing,Lin, Zhanglin,Ba, Lina,Zhu, Dunming,de Jong, Rene M.,Mink, Daniel,Kaluzna, Iwona.

[19]The Synthesis of Methyl Oleate Catalyzed by Phosphotungstic Acid Immobilized on the Functionalized Palygorskite. Zhang, L. X.,Jin, Q. Z.,Huang, J. H.,Liu, Y. F.,Shan, L.,Wang, X. G.,Zhang, L. X.. 2012

[20]RNAi knockdown of fatty acid elongase1 alters fatty acid composition in Brassica napus. Shi, Jianghua,Lang, Chunxiu,Wu, Xuelong,Liu, Renhu,Zheng, Tao,Chen, Jinqing,Wu, Guanting,Zhang, Dongqing.