Keyword search (4,163 papers available)

"lipid" Keyword-tagged Publications:

Title Authors PubMed ID
1 Physical activity may protect myelin via modulation of high-density lipoprotein Boa Sorte Silva NC; Balbim GM; Stein RG; Gu Y; Tam RC; Dao E; Alkeridy W; Lam K; Kramer AF; Liu-Ambrose T; 39989020
HKAP
2 Neuroinflammation and oxidative redox imbalance drive memory dysfunction in adolescent rats prenatally exposed to Datura Stramonium Bamisi O; Oluwalabani AO; Arogundade TT; Olajide OJ; 39303770
PSYCHOLOGY
3 TANGO2 deficiency disease is predominantly caused by a lipid imbalance Sacher M; DeLoriea J; Mehranfar M; Casey C; Naaz A; Gamberi C; 38836374
BIOLOGY
4 Removal of Nutrients from Water Using Biosurfactant Micellar-Enhanced Ultrafiltration Binte Rafiq Era S; Mulligan CN; 36838547
ENCS
5 Overview of Sigma-1R Subcellular Specific Biological Functions and Role in Neuroprotection Véronik Lachance 36768299
CSBN
6 Utilization of a biosurfactant foam/nanoparticle mixture for treatment of oil pollutants in soil Vu KA; Mulligan CN; 35834082
ENCS
7 Mechanisms of hypericin incorporation to explain the photooxidation outcomes in phospholipid biomembrane models Pereira LSA; Camacho SA; Almeida AM; Gonçalves RS; Caetano W; DeWolf C; Aoki PHB; 35167859
CNSR
8 Caloric restriction causes a distinct reorganization of the lipidome in quiescent and non-quiescent cells of budding yeast Mohammad K; Orfanos E; Titorenko VI; 34853658
BIOLOGY
9 A green initiative for oiled sand cleanup using chitosan/rhamnolipid complex dispersion with pH-stimulus response Chen Z; An C; Wang Y; Zhang B; Tian X; Lee K; 34687682
ENCS
10 Body Mass Index Z Score vs Weight-for-Length Z Score in Infancy and Cardiometabolic Outcomes at Age 8-10 Years Roberge JB; Harnois-Leblanc S; McNealis V; van Hulst A; Barnett TA; Kakinami L; Paradis G; Henderson M; 34302856
PERFORM
11 Editorial: Advances in Dietary Fat Absorption Nauli AM; Santosa S; Dixon JB; 34168573
HKAP
12 Phase Diagram for a Lysyl-Phosphatidylglycerol Analogue in Biomimetic Mixed Monolayers with Phosphatidylglycerol: Insights into the Tunable Properties of Bacterial Membranes. Wölk C, Youssef H, Guttenberg T, Marbach H, Vizcay-Barrena G, Shen C, Brezesinski G, Harvey RD 32065707
CHEMBIOCHEM
13 Effects of chronic exposure to selenomethionine on social learning outcomes in zebrafish (Danio rerio): serotonergic dysregulation and oxidative stress in the brain. Attaran A, Salahinejad A, Naderi M, Crane AL, Niyogi S, Chivers DP 31972490
BIOLOGY
14 In Vivo Solid-Phase Microextraction for Sampling of Oxylipins in Brain of Awake, Moving Rats Napylov A; Reyes-Garces N; Gomez-Rios G; Olkowicz M; Lendor S; Monnin C; Bojko B; Hamani C; Pawliszyn J; Vuckovic D; 31697450
CHEMBIOCHEM
15 Mechanisms by which PE21, an extract from the white willow Salix alba, delays chronological aging in budding yeast. Medkour Y, Mohammad K, Arlia-Ciommo A, Svistkova V, Dakik P, Mitrofanova D, Rodriguez MEL, Junio JAB, Taifour T, Escudero P, Goltsios FF, Soodbakhsh S, Maalaoui H, Simard É, Titorenko VI 31645900
BIOLOGY
16 Visualization of SNARE-Mediated Organelle Membrane Hemifusion by Electron Microscopy. Mattie S, Kazmirchuk T, Mui J, Vali H, Brett CL 30317518
BIOLOGY
17 The Sexual Dimorphism of Lipid Kinetics in Humans. Santosa S, Jensen MD 26191040
PERFORM

 

Title:Caloric restriction causes a distinct reorganization of the lipidome in quiescent and non-quiescent cells of budding yeast
Authors:Mohammad KOrfanos ETitorenko VI
Link:https://pubmed.ncbi.nlm.nih.gov/34853658/
DOI:10.18632/oncotarget.28133
Publication:Oncotarget
Keywords:caloric restrictioncellular agingcellular quiescencegeroprotectorslipids
PMID:34853658 Category: Date Added:2021-12-02
Dept Affiliation: BIOLOGY
1 Department of Biology, Concordia University, Montreal, Quebec H4B 1R6, Canada.

Description:

After budding yeast cells cultured in a nutrient-rich liquid medium with 0.2% glucose (under caloric restriction conditions) or 2% glucose (under non-caloric restriction conditions), ferment glucose to ethanol and then consume ethanol, they enter the stationary phase. The process of their chronological aging begins. At that point, the yeast culture starts to accumulate quiescent and non-quiescent cells. Here, we purified the high- and low-density populations of quiescent and non-quiescent cells from the yeast cultures limited in calorie supply or not. We then employed mass spectrometry-based quantitative lipidomics to assess the aging-associated changes in high- and low-density cells' lipidomes. We found that caloric restriction, a geroprotective dietary intervention, alters the concentrations of many lipid classes through most of the chronological lifespan of the high- and low-density populations of quiescent and non-quiescent cells. Specifically, caloric restriction decreased triacylglycerol, increased free fatty acid, elevated phospholipid and amplified cardiolipin concentrations. Based on these findings, we propose a hypothetical model for a caloric restriction-dependent reorganization of lipid metabolism in budding yeast's quiescent and non-quiescent cells. We also discovered that caloric restriction creates lipidomic patterns of these cells that differ from those established by two other robust geroprotectors, namely the tor1? mutation and lithocholic acid.





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