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Please choose a date range between 2021 and 2022.
Author
- Aoki, Junken1
- Blanksby, Stephen J1
- Bowman, Andrew P1
- Chandrasekaran, Preethi1
- Ellis, Shane R1
- Fu, Xiaorong1
- Gunter, Jennifer H1
- Heeren, Ron MA1
- Kano, Kuniyuki1
- Kawana, Hiroki1
- Kono, Nozomu1
- Mitsche, Matthew A1
- Nelson, Colleen C1
- Onishi, Hirofumi1
- Ozawa, Masaya1
- Philp, Lisa K1
- Poad, Berwyck LJ1
- Rong, Shunxing1
- Sadowski, Martin C1
- Sato, Yukitaka1
- Shibata, Takeaki1
- Shimizu, Takao1
- Shindou, Hideo1
- Tousignant, Kaylyn D1
- Xia, Mingfeng1
Keyword
- PC3
- PE3
- PG3
- phosphatidylcholine3
- phosphatidylglycerol3
- PI3
- AA2
- LPLAT2
- lysophospholipid acyltransferase2
- 1-acylglycerol-3-phosphate-O-acyltransferase1
- 31-deuterium-labeled palmitic acid1
- 35-deuterium-labeled stearic acid1
- 9-deuterium-labeled oleic acid1
- ACC1
- ACL1
- AGPAT1
- AKT1
- ASO1
- AT1
- ATP citrate lyase1
- C16:01
- C16:0-d 311
Regular Research Articles
3 Results
- Research ArticleOpen Access
Identification and characterization of LPLAT7 as an sn-1-specific lysophospholipid acyltransferase
Journal of Lipid ResearchVol. 63Issue 10100271Published online: August 29, 2022- Hiroki Kawana
- Masaya Ozawa
- Takeaki Shibata
- Hirofumi Onishi
- Yukitaka Sato
- Kuniyuki Kano
- and others
Cited in Scopus: 0The main fatty acids at the sn-1 position of phospholipids (PLs) are saturated or monounsaturated fatty acids such as palmitic acid (C16:0), stearic acid (C18:0), and oleic acid (C18:1) and are constantly replaced, like unsaturated fatty acids at the sn-2 position. However, little is known about the molecular mechanism underlying the replacement of fatty acids at the sn-1 position, i.e., the sn-1 remodeling. Previously, we established a method to evaluate the incorporation of fatty acids into the sn-1 position of lysophospholipids (lyso-PLs). - Research ArticleOpen Access
Isomeric lipid signatures reveal compartmentalized fatty acid metabolism in cancer
Journal of Lipid ResearchVol. 63Issue 6100223Published online: May 7, 2022- Reuben S.E. Young
- Andrew P. Bowman
- Kaylyn D. Tousignant
- Berwyck L.J. Poad
- Jennifer H. Gunter
- Lisa K. Philp
- and others
Cited in Scopus: 5The cellular energy and biomass demands of cancer drive a complex dynamic between uptake of extracellular FAs and their de novo synthesis. Given that oxidation of de novo synthesized FAs for energy would result in net-energy loss, there is an implication that FAs from these two sources must have distinct metabolic fates; however, hitherto, all FAs have been considered part of a common pool. To probe potential metabolic partitioning of cellular FAs, cancer cells were supplemented with stable isotope-labeled FAs. - Research ArticleOpen Access
Hepatic deletion of Mboat7 (LPIAT1) causes activation of SREBP-1c and fatty liver
Journal of Lipid ResearchVol. 62100031Published online: February 5, 2021- Mingfeng Xia
- Preethi Chandrasekaran
- Shunxing Rong
- Xiaorong Fu
- Matthew A. Mitsche
Cited in Scopus: 0Genetic variants that increase the risk of fatty liver disease and cirrhosis have recently been identified in the proximity of membrane-bound O-acyltransferase domain-containing 7 (MBOAT7). To elucidate the link between these variants and fatty liver disease, we characterized Mboat7 liver-specific KO mice (Mboat7 LSKO). Chow-fed Mboat7 LSKO mice developed fatty livers and associated liver injury. Lipidomic analysis of liver using MS revealed a pronounced reduction in 20-carbon PUFA content in phosphatidylinositols (PIs) but not in other phospholipids.