[1]Lipidomic profile changes of yellow-feathered chicken meat during thermal processing based on UPLC-ESI-MS approach. Zhang M., Xie D., Wang D., Xu W., Zhang C., Li P., Sun C.. 2023

[2]Application Of Multi-Element (C, N, H, O) Stable Isotope Ratio Analysis For The Traceability Of Milk Samples From China. Zhao, SS, Zhao, Y, Rogers, KM, Chen, G, Chen, AL, Yang, SM. 2020

[3]Proteomics analysis reveals altered nutrients in the whey proteins of dairy cow milk with different thermal treatments. Yangdong Zhang,Li Min,Sheng Zhang,Nan Zheng,Dagang Li,Zhihua Sun,Jiaqi Wang. 2021

[4]Occurrence and source analysis of polychlorinated naphthalenes in raw cow milk. Shujun Dong,Jingguang Li,Baiqin Zheng,Lei Zhang,Su Zhang,Yun Zou,Yaxin Wang,Mengdie Fan,Ruiguo Wang,Yi Li,Yongning Wu,Xiaoou Su,Peilong Wang. 2022

[5]Lipidomic profiling using GC and LC-MS/MS revealed the improved milk quality and lipid composition in dairy cows supplemented with citrus peel extract. Yuchao Zhao,Shiqiang Yu,Huiying Zhao,Liuxue Li,Yuqin Li,Yan Tu,Linshu Jiang,Guangyong Zhao. 2022

[6]Pharmacokinetics and relative bioavailability study of two cefquinome sulfate intramammary infusions in cow milk. Shuang Li,Na Yu,Yaoxin Tang,Chunshuang Liu,Ying Zhang,Xiaojie Chen,Hao Wu,Xiubo Li,Yiming Liu. 2024

[7]Milk Disposition Kinetics, Residue and Efficacy of Rifaximin After Intramammary Administration in Lactating Cow. Na Yu,Yaoxin Tang,Weifeng Zhao,Junhao Xiang,Jing Qu,Hao Wu,Yiming Liu. 2025

[8]Involvement Of Phosphatidylserine And Triacylglycerol I.n The Response Of S weet Potato Leaves To Salt Stress. Li, Zongyun,Xuan, Ying,Yu, Yicheng,Sun, Jian,Tang, Zhonghou,Liu, Yang,Gao, Zhonghui,Liu, Yaju,Cao, Qinghe,Kou, Meng. 2019

[9]Investigation of the lipidomic profile of royal jelly from different botanical origins using UHPLC-IM-Q-TOF-MS and GC-MS. Yan S., Wang X., Sun M., Wang W., Wu L., Xue X.. 2022

[10]Lipidomics provides novel insights into understanding the bee pollen lipids transepithelial transport and metabolism in human intestinal cells. 李强强,,薛晓锋,,王凯,,吴黎明. 2020

[11]Lipidomes In Health And Disease: Analytical Strategies And Considerations. Wei, F, Lamichhane, S, Oresic, M, Hyotylainen, T. 2019

[12]Uplc-Q-Exactive Orbitrap/Ms-Based Lipidomics Approach To C.haracterize Lipid Extracts From B ee Pollen And Their In Vitro Anti-Inflammatory Properties. Li, QQ, Liang, XW, Zhao, L, Zhang, ZY, Xue, XF, Wang, K, We, LM. 2017

[13]Characterization And Discrimination Of Taihe B.lack-Boned Silky Fowl (Gallus G allus Domesticus Brisson) Muscles Using Lc/Ms-Based Lipidomics. Mi, S, Shang, K, Jia, W, Zhang, CH, Li, X, Fan, YQ, Wang, H. 2018

[14]Methods of Lipidomic Analysis: Extraction, Derivatization, Separation, and Identification of Lipids. Xie Ya,Wu Zongyuan,Qin Zuojian,Wu Bangfu,Lv Xin,Wei Fang,Chen Hong. 2021

[15]Investigation on green tea lipids and their metabolic variations during manufacturing by nontargeted lipidomics. Jia Li,Jinjie Hua,Haibo Yuan,Yuliang Deng,Qinghua Zhou,Yanqin Yang,Chunwang Dong,Jun Zeng,Yongwen Jiang. 2021

[16]Comprehensive Lipidomics Analysis Reveals The Effects Of Different Omega-3 Polyunsaturated Fatty Acid-Rich Diets On Egg Yolk Lipids. Wu, BF, Xie, Y, Xu, SL, Lv, X, Yin, HQ, Xiang, JQ, Chen, H, Wei, F. 2020

[17]Characterization of key lipids for binding and generating aroma compounds in roasted mutton by UPLC-ESI-MS/MS and Orbitrap Exploris GC. Liu H., Hui T., Zheng X., Li S., Wei X., Li P., Zhang D., Wang Z.. 2022

[18]Serumal Lipidomics Reveals the Anti-inflammatory Effect of Flax Lignans and Sinapic Acid in High-Fat-Diet-Fed Mice. Zongyuan Wu,Bangfu Wu,Xin Lv,Ya Xie,Shuling Xu,Congcong Ma,Jiqu Xu,Xinghao Tu,Fang Wei,Hong Chen. 2021

[19]Linking Gut Microbiome And Lipid Metabolism: Moving Beyond Associations. Lamichhane, S, Sen, P, Alves, MA, Ribeiro, HC, Raunioniemi, P, Hyotylainen, T, Oresic, M. 2021

[20]Analysis Of Glycerophospholipid Metabolism After E.xposure To Pcb153 In P c12 Cells Through Targeted Lipidomics By Uhplc-Ms/Ms. Wang, XL, Xu, YY, Song, X, Jia, Q, Zhang, XN, Qian, YZ, Qiu, J. 2019