ライフサイエンスコーパス: phospholipid

1 oncentrations of other macromolecules (e.g., phospholipid).

2 nterfaces and indirectly via an intercalated phospholipid.

3 gulated cell death driven by peroxidation of phospholipids.

4 ed in impaired membrane homeostasis of other phospholipids.

5 did not have externalized negatively-charged phospholipids.

6 oagulation proteins, proteolytic enzymes, or phospholipids.

7 ck (GCB), is presented for the enrichment of phospholipids.

8 or flexibility of MscL when bound to various phospholipids.

9 ath associated with oxidized polyunsaturated phospholipids.

10 ly bound cardiolipin molecules and two other phospholipids.

11 mportant matrix interferences like salts and phospholipids.

12 ed/unsaturated fatty acids, eicosanoids, and phospholipids.

13 of cholesteryl esters, diglyceride and other phospholipids.

14 ess able to incorporate LA into its membrane phospholipids.

15 ipids from cells and bacteria and surfactant phospholipids.

16 ted the antiviral impact of de novo-produced phospholipids.

17 oteins that interact with SNARE proteins and phospholipids.

18 sically disordered protein that binds acidic phospholipids.

19 ithout the addition of exogenous proteins or phospholipids.

20 s to assembly with FVIIIa in the presence of phospholipids.

21 RNAs, peptides, RNA oligomers and primordial phospholipids.

22 A-OmpF to monitor the transport direction of phospholipids.

23 ndowed with stereospecific binding sites for phospholipids.

24 Their main polar DL lipids are phospholipids.

25 nthesis as it was self-assembled from common phospholipids.

26 In this work, addition of phospholipids (0-20 mg/g) was assessed to improve the so

27 rther, the 15LO1-PEBP1-generated ferroptotic phospholipid, 15-HpETE-PE, promoted LC3-I lipidation to

28 commensal microbiota via modulating membrane phospholipid abundance.

29 Vesicle formation is driven by phospholipid accumulation in the outer membrane and regu

30 osphotransferase 1 (CEPT1), is essential for phospholipid activation of transcription factors such as

31 In this picture, phospholipid acyl tail composition naturally adapts to a

32 uercetin in Coil increased up to 7.7-fold by phospholipid addition.

33 ia coli MlaFEDB in an apo state and bound to phospholipid, ADP or AMP-PNP to a resolution of 3.3-4.1

34 using purified DGKepsilon and detergent-free phospholipid aggregates, which present a more suitable m

35 gnificantly increase Coil stability, whereas phospholipids alone extended the oxidation lag time up t

36 stituted in membranes formed by zwitterionic phospholipids alone, exposure to agonist fails to elicit

37 ase complex indirectly through contaminating phospholipid and also support factor X activation throug

38 ns demonstrated improved CCS calibration for phospholipid and bile acid isomers.

39 lipoprotein (HDL) biogenesis by transferring phospholipid and cholesterol to delipidated apolipoprote

40 -helices that enable apolipoproteins to bind phospholipid and promote ABCA1 activity.

41 Phospholipid and sterol concentrations are similar for M

42 ic degumming (ED) were studied at a range of phospholipid and water concentrations.

43 unconventional use of peptide discs made by phospholipids and amphipathic 18A peptides to mediate th

44 A series of singly negatively charged phospholipids and bile acids were calibrated in nitrogen

45 and gibberellin biosynthesis, degradation of phospholipids and biosynthesis of glycerolipid, downregu

46 stable adhesion to lipid layers composed of phospholipids and cholesterol compared to l-SPs.

47 ion ESI generating both singly deprotonated phospholipids and doubly deprotonated CL anions.

48 , respectively, the flux of fatty acids from phospholipids and galactolipids into triacylglycerol pro

49 Phospholipids and glycolipids were identified and quanti

50 surrounded by an outer membrane composed of phospholipids and lipopolysaccharide, which acts as a ba

51 tamin D, calcium, milk fat globule membrane (phospholipids and other bioactives), and other micronutr

52 lipid bilayer that consists of inner leaflet phospholipids and outer leaflet lipopolysaccharides (LPS

53 epends on pulmonary surfactant, a mixture of phospholipids and proteins, secreted by alveolar type II

54 diponectin selectively bound several anionic phospholipids and sphingolipids, including phosphatidyls

55 ity lipoproteins, high-density lipoproteins, phospholipids, and glucose.

56 sides, the roles of oxysterols, fatty acids, phospholipids, and lipid second messengers are also summ

57 taG and DeltaH for deprotonation) of neutral phospholipids are also evaluated computationally and ran

58 Unexpectedly, two phospholipids are bound to MlaFEDB, suggesting that mult

59 y show that the gas-phase acidities of these phospholipids are high but less extreme than their GB va

60 We show that large amounts of the phospholipids are lysophospholipids (30-45%), which muta

61 In mammalian membranes, the saturated phospholipids are usually SMs with different acyl chains

62 Phospholipids are vital constituents of mitochondrial me

63 All living organisms synthesize phospholipids as the primary constituent of their cell m

64 iated inositol phosphate formation, inositol phospholipid assessments, fluorescence recovery after ph

65 work reveals roles for the peroxisome-ether-phospholipid axis in driving susceptibility to and evasi

66 H. portulacoides, a significant increase of phospholipids bearing n-3 fatty acids (most in PC and PE

67 ter membrane lipid asymmetry by transporting phospholipids between the inner and outer membranes.

68 f many embedded membrane proteins depends on phospholipid bilayer biophysical properties.

69 to investigate molecular orientations in the phospholipid bilayer but cannot resolve the actual distr

70 beta-arrestin with both the receptor and the phospholipid bilayer contribute to its functional versat

71 This study demonstrates the role of phospholipid bilayer fragment as the key intermediate in

72 via changes in biophysical properties of the phospholipid bilayer have received little study.

73 clofenac in the structural properties of the phospholipid bilayer, suggesting that both ionized and n

74 effects on the structural properties of the phospholipid bilayer.

75 , we probed if cross-dismutation operates in phospholipid bilayers and cell culture.

76 ation of membrane-embedded components within phospholipid bilayers represents a distinct class of pha

77 stic, molecular dynamics (MD) simulations of phospholipid bilayers responding to electric fields.

78 ptides to mediate the formation of supported phospholipid bilayers with two different types of membra

79 found to selectively transport anions across phospholipid bilayers.

80 meric cylinder that forms single channels in phospholipid bilayers.

81 ic molecules that can otherwise pass through phospholipid bilayers.

82 nization of cell membranes and reconstituted phospholipid bilayers; however, the mechanisms by which

83 rib does not require palmitoylation or polar phospholipid binding but instead an independent cortical

84 sized that peptide mimetics derived from the phospholipid binding domain of Myristoylated alanine-ric

85 membrane translocation, distinct from known phospholipid binding sites.

86 at domain of alpha-Syn, which interfere with phospholipid binding, are ineffective in enhancing CME.

87 terminus that are linked to deafness disrupt phospholipid binding, sensitize the channel to PIP(2) de

88 w that the N-terminal domain of proSP-B is a phospholipid-binding and -transfer protein whose activit

89 ed for virus infection, whereas the inositol phospholipid-binding and F-actin-binding domains were es

90 Here, we show that the Ca(2+)-responsive phospholipid-binding BONZAI (BON) proteins are critical

91 PI) is an abundant plasma protein displaying phospholipid-binding properties.

92 nature consistent with adipogenesis, and the phospholipid-binding protein annexin A3 (AnxA3), a negat

93 (Syt1) is an integral membrane protein whose phospholipid-binding tandem C2 domains, C2A and C2B, act

94 ecent advances in the field of mitochondrial phospholipid biosynthesis and trafficking, highlighting

95 revealed differential expression of putative phospholipid biosynthesis genes.

96 The phospholipid biosynthesis of the malaria parasite, Plasm

97 By inhibiting and activating the de novo phospholipid biosynthesis, we demonstrated the antiviral

98 transferase PlsY on the pathway of bacterial phospholipid biosynthesis.

99 Phosphatidic acid (PA) is both a central phospholipid biosynthetic intermediate and a multifuncti

100 ude that the preferential binding of aPLs to phospholipid-bound beta(2)GPI arises from the ability of

101 al enzyme that exchanges fatty acids between phospholipids by phospholipid-lysophospholipid transacyl

102 n mosquitoes the antiviral impact of de novo phospholipids by supplementing infectious blood meals wi

103 Anionic phospholipids can confer a net negative charge on biolog

104 nes because they are enriched in the anionic phospholipid cardiolipin (CL).

105 portedly, SS-31 primarily interacts with the phospholipid cardiolipin in the inner mitochondrial memb

106 mponent of nucleotides in genetic molecules, phospholipid cell membranes, and energy transfer molecul

107 rane binding is a process mostly mediated by phospholipid charge, whereas fatty acid saturation and m

108 We identified nine different phospholipid classes carrying between one and three acyl

109 e and phosphatidylethanolamine are two major phospholipid classes in eukaryotes.

110 on GUVs with endoplasmic reticulum (ER)-like phospholipid composition results in a complete cycle of

111 otic cells is asymmetric with respect to its phospholipid composition.

112 Because the phospholipid compositions of the different organellar me

113 y of quercetin in Coil was correlated to the phospholipid concentration and reached a maximum value o

114 assessed the impact of fatty acid (FA) type, phospholipid concentration on MM formation and stability

115 The characteristic fragmentation pattern of phospholipids consisting of the neutral loss of the phos

116 that synthesizes phosphatidylserine (PS), a phospholipid constituent of the inner layer of the plasm

117 5 days) showed rapid changes in the ratio of phospholipids containing ethanolamine, or glycerol as ph

118 phosphatidylglycerol, the major chloroplast phospholipid, contains >40% high-melting-point molecular

119 nd describe that Lp(a), through its oxidized phospholipid content, activates arterial endothelial cel

120 correlate cell drug concentrations with cell phospholipid content, cell volume, sphericity, and other

121 g with liposomes containing cobalt-porphyrin-phospholipid (CoPoP) potently enhances the functional an

122 A phospholipid delivery form of quercetin (Quercetin Phyto

123 Varying the phospholipid density shifts the binding levels, but the

124 a-hydroxy beta-methylbutyrate (HMB), lutein, phospholipids, DHA and selected micronutrients including

125 nificantly, coexpressing RcLPCAT with castor phospholipid:diacylglycerol acyltransferase increased no

126 ain of the closed and open BM2 channels in a phospholipid environment.

127 ioning between polar (aqueous) and nonpolar (phospholipid) environments in multilamellar lipid vesicl

128 e revealed the need for a complex mixture of phospholipids, especially phosphatidylserine and phospha

129 n cholesterol binding and binding of anionic phospholipids essential for activity could explain some

130 auses an increase in biliary cholesterol and phospholipid excretion whereas biliary bile salt output

131 S. pombe synthesizing the S.-japonicus-type phospholipids exhibits unfolded protein response and dow

132 We measured maternal plasma phospholipid FA concentration at preconception (on avera

133 in FuFA biosynthesis occurs on pre-existing phospholipid fatty acid chains, and we identified pathwa

134 The results indicate that dry weight (DW), phospholipid fatty acids (PLFAs) and extracellular polym

135 ases (CaPLSases) mediate rapid transmembrane phospholipid flip-flop and as such play essential roles

136 Postendocytic recycling of Snc1 requires a phospholipid flippase (Drs2-Cdc50), an F-box protein (Rc

137 hange in Aminophospholipid ATPase3 (ALA3), a phospholipid flippase predicted to function in vesicle f

138 a membrane once the peptide targets specific phospholipids found on the cytosolic side of the plasma

139 y increased the incorporation of FA into the phospholipid fraction.

140 ipids from phospholipids, including membrane phospholipids from cells and bacteria and surfactant pho

141 d with exogenous lipids, was used to extract phospholipids from the membrane outer leaflet, while del

142 symmetry, and in particular the exclusion of phospholipids from the outer leaflet, is key to creating

143 release of this specific drug from vesicular phospholipid gel formulations but describe a general sce

144 Phospholipid gum mesostructures formed in crude soybean

145 domains and intact BON1 to bind to different phospholipids has been investigated, and we demonstrated

146 A variety of membrane-forming cellular phospholipids have been obtained in high yields.

147 pids containing ethanolamine, or glycerol as phospholipid head group and in the number of cyclopropan

148 on of which suggests a correlation among the phospholipid headgroups.

149 These arise primarily from phospholipid headgroups.

150 elated gene PR-1, glutathione-S-transferase, phospholipid hydroperoxide glutathione peroxidase and pe

151 nteractions between bile salts alone or with phospholipids, i.e. mixed micelles and the aqueous envir

152 We asked whether contaminating phospholipid in myosin preparations may also contain tis

153 to membranes that expose negatively charged phospholipids in a Ca(2+)-dependent manner.

154 erminal helix of CPn0678 mediates binding to phospholipids in both the plasma membrane and synthetic

155 PlsX and thus regulates the biosynthesis of phospholipids in Gram-positive bacteria.

156 Endothelial lipase (EL) hydrolyzes phospholipids in high-density lipoprotein (HDL) resultin

157 anes for its cellular cycle by reconfiguring phospholipids in humans and mosquitoes.

158 The determination of phospholipids in olive oil is challenging due to their l

159 se it connects to multiple V(o) subunits and phospholipids in the c-ring.

160 we determined how and why DENV reconfigures phospholipids in the mosquito vector.

161 d sphingomyelins (SM) were the most abundant phospholipids in the RBCs outer leaflet with PC 34:1 and

162 -linked glycans and identify glycolipids and phospholipids in the V(o) complex.

163 Similar to gasdermin, RCD-1 binds acidic phospholipids in vitro, notably, cardiolipin and phospha

164 ed the interaction between PlsX and membrane phospholipids in vivo and in vitro, and observed that me

165 -yielding non-enzymatic synthesis of natural phospholipids in water opens up new routes for lipid syn

166 ic acid, and generate lysophospholipids from phospholipids, including membrane phospholipids from cel

167 n was lower in visceral adipose tissue (VAT) phospholipids, indicating lower unsaturated fatty acid i

168 uses a tripartite mechanism of Ras, Rac, and phospholipid interactions to localize at the protruding

169 rted activity, confirming that contaminating phospholipid is required to support myosin-related proth

170 Because it binds phospholipids, it is a target of antiphospholipid antibo

171 model system chosen to mimic the protective phospholipid layers of the gastric mucosa and to describ

172 ed in this work as models for the protective phospholipid layers of the gastric mucosa.

173 lation, the TRAF2 RING domain interacts with phospholipids, leading to the translocation of the TRAF2

174 Pathogens release OMVs that contain phospholipids, like cardiolipins, and components of LPS

175 changes fatty acids between phospholipids by phospholipid-lysophospholipid transacylation.

176 ds contained significantly higher amounts of phospholipids, lysophospholipids, diacylglycerols, stero

177 fat, and the resulting beneficial effects on phospholipid MALDI IMS.

178 HFD increased free fatty acids and decreased phospholipids (male > female) in air-exposed rats.

179 through its C-terminal -RXG- motif, and how phospholipids markedly stimulate cis-PTase activity.

180 ophysical examples: ion permeation through a phospholipid membrane and protein translocation through

181 vated DRD2-G(i) complex reconstituted into a phospholipid membrane.

182 n in both n-octylglucoside (OG) micelles and phospholipid membranes in the absence of membrane potent

183 affinity of skeletal and cardiac myosin for phospholipid membranes.

184 d cells from the animals exhibit deregulated phospholipid metabolism and an aberrant induction of pro

185 s that are markers of neuronal viability and phospholipid metabolism and have also been implicated in

186 etogenesis and are required for ER-localized phospholipid metabolism in vegetative and reproductive g

187 fic DGK isoforms function in development and phospholipid metabolism remains elusive.

188 with progression to T2D, implicating AA and phospholipid metabolism.

189 ites, and (3) acylcarnitine, fatty acid, and phospholipid metabolites.

190 (+) channel will result in displacement of a phospholipid molecule from the surface.

191 increased, allowing for more cholesterol and phospholipid molecules to be excreted per bile salt.

192 e shielded from the aqueous environment by a phospholipid monolayer containing proteins.

193 During apoptosis, these phospholipids move to the cell's outer leaflet where the

194 re generally, showcases the utility of yeast phospholipid mutants in dissecting the phospholipid requ

195 Phospholipid N-methyltransferases (PLMTs) synthesize pho

196 In this report, a phospholipid nanogel is used for the first time for capi

197 mapping of several lipid classes, including phospholipids, neutral lipids, cholesterol, ceramides, a

198 he L(beta) structure, the acyl chains of the phospholipids occupy an ordered array that has melted by

199 Cardiolipin (CL) is the signature phospholipid of mitochondrial membranes, where it is syn

200 Cardiolipin is a phospholipid of the inner mitochondrial membrane essenti

201 Here we find that ATG9A scrambles phospholipids of membranes in vitro.

202 ork reports the effect of negatively charged phospholipids on DGKepsilon activity and substrate acyl

203 an HDL either by synthetic gamma-ketoalkenal phospholipids or by oxPLs generated during HDL oxidation

204 es that alternately face either the membrane phospholipids or the intracellular milieu.

205 rmation and promotes biliary cholesterol and phospholipid output.

206 re, we report that the self-encoded oxidized phospholipid oxPAPC alters the metabolism of macrophages

207 ifferent neutral lipids but presenting equal phospholipid packing densities differentially recruit AH

208 erefore, it is the hydrophobic nature of the phospholipid packing voids that controls the binding lev

209 acity to synthesize macromolecules including phospholipids, particularly cardiolipin (CL) and phospha

210 ted that DENV actively inhibited the de novo phospholipid pathway and instead triggered phospholipid

211 ode of cell death elicited by iron-dependent phospholipid peroxidation, has been implicated in ischem

212 rotect cells from ferroptosis by eliminating phospholipid peroxides.

213 sible for the synthesis of the most abundant phospholipids, phosphatidylcholine and phosphatidylethan

214 bloodstream infections, and synthesis of the phospholipid phosphatidylethanolamine (PE) is required f

215 ane lipids, comprised of glycolipids and the phospholipid phosphatidylglycerol (PG), are essential fo

216 mbrane of neurosecretory cells by binding to phospholipid PI(4,5)P(2) However, unlike synaptrobrevin-

217 lk yield and fat content-fatty acid (FA) and phospholipid (PL) composition-were monitored.

218 triglyceride (TG) storage lipids rather than phospholipid (PL) membrane lipids in neurons.

219 erol (TG) and sterol esters, surrounded by a phospholipid (PL) monolayer.

220 n identified, but very little is known about phospholipid (PL) transport.

221 During dry-cured ham processing, phospholipids (PL) are the main substrates of lipolysis

222 d (C=C db) positional isomers of unsaturated phospholipids (PL) in tissue sections by use of refined

223 shed that the structural differences between phospholipids play an important role in lateral membrane

224 s, which are wrapped by encapsulation agent (phospholipid-polyethylene glycol), is demonstrated using

225 Furthermore, our study identified de novo phospholipid precursor as a blood determinant of DENV hu

226 enting infectious blood meals with a de novo phospholipid precursor.

227 1-palmitoyl, 2-oleyl phosphatidylcholine, a phospholipid present in high proportions in bile, behave

228 holesterol for the saturated and unsaturated phospholipids present in the bilayer.

229 Multivariate models derived from phospholipid profiles of 117 patients were highly discri

230 They are protected with a phospholipid-protein monolayer and extracted with alkali

231 The binding of the C2 domains to phospholipid (PSF) has been modeled and provides an insi

232 ptosis by synthesizing polyunsaturated ether phospholipids (PUFA-ePLs), which act as substrates for l

233 Na(+) interacts with phospholipids, reducing inner mitochondrial membrane flu

234 The systemic exposure to phospholipids remained low.

235 processes in fatty acid monounsaturated and phospholipid remodeling pathways.

236 o phospholipid pathway and instead triggered phospholipid remodeling.

237 yeast phospholipid mutants in dissecting the phospholipid requirements of ion channel complexes.

238 erved, elevated levels of neutral lipids and phospholipids resemble previously reported effects on li

239 15LO1-PEBP1 complexes and their hydroperoxy-phospholipids reveals a pathobiologic pathway relevant t

240 veness of liposomes elaborated with rapeseed phospholipid (RP) extracted from a residue of oil proces

241 Cholesterol has been found to correlate with phospholipid saturation for reasons that remain unclear.

242 TMEM16 Ca(2+)-activated phospholipid scramblases (CaPLSases) mediate rapid trans

243 dy shows that TA and EGCG do not inhibit the phospholipid-scrambling or ion conduction activities of

244 level of control to biliary cholesterol and phospholipid secretion.

245 and that channel function is regulated by a phospholipid-sensing domain in TMIE with similarity to t

246 method was validated for some representative phospholipids, showing good repeatability and recovery (

247 osphatase enzymatic activities in regulating phospholipid signaling.

248 ectively, as well as accumulation of several phospholipid species in neurons which have not been stud

249 Intriguingly, it is found that two of these phospholipids, sphingomyelin and phosphatidylcholine, ha

250 ty and independently of enhanced PLCgamma(2) phospholipid substrate supply.

251 MSI analysis of tissue sections exposed to phospholipid substrates produced high-resolution maps of

252 ch are enriched in cholesterol and saturated phospholipids such as sphingomyelin (SM), may form.

253 e (PC), a predominant mitochondrial membrane phospholipid, suggesting that the coordinated expression

254 n storage lipids and an increase in membrane phospholipids, suggesting changes in the Kennedy pathway

255 rison between cholesterol poses and resolved phospholipids suggests that not all cholesterol molecule

256 lding blocks and has hampered integration of phospholipid synthesis into artificial cells.

257 eration, whereas shifting it toward membrane phospholipid synthesis overcomes regeneration failure in

258 Interestingly, phospholipid synthesis was severely hampered in cells in

259 ng E. coli to have its cake (acyl chains for phospholipid synthesis) and eat it (degrade acyl chains

260 ted cellular processes (e.g. triacylglycerol/phospholipid synthesis, lipid droplet formation, nuclear

261 lglycerol synthesis and in the regulation of phospholipid synthesis.

262 utations in genes of the Kennedy pathway for phospholipid synthesis.

263 o became psychotic had lower levels of ether phospholipids than CHR individuals who did not (p < .01)

264 and interacts with the hydrophilic head of a phospholipid that occupies the extracellular half of the

265 Lipid analysis revealed the brain phospholipids that associate with prion protofilaments,

266 tidylinositol phosphates (PIPs) are membrane phospholipids that play crucial roles in a wide range of

267 purified muscle myosins retain procoagulant phospholipid through purification.

268 The C-terminal BON domain binds anionic phospholipids through an extensive membrane:protein inte

269 erall, we now propose that DENV reconfigures phospholipids through the remodeling cycle to modify the

270 Hence, the orchestrated movement of phospholipids to and from the mitochondrion is essential

271 the transfer of the pEtN group from membrane phospholipids to cellulose.

272 in clot formation due to exposure of anionic phospholipids to plasma, is a plausible pathogenic mecha

273 Phospholipase D (PLD) hydrolyzes membrane phospholipids to produce phosphatidic acid (PA), which h

274 The phospholipid-to-triglyceride ratio was decreased by past

275 ge in WFT, but a higher proportion of plasma phospholipid total MUFAs was associated with greater dec

276 Higher proportions of plasma phospholipid total VLSFAs and each individual VLSFA were

277 laFEDB ABC transporter complex, which drives phospholipid trafficking across the bacterial envelope t

278 ort system called Mla has been implicated in phospholipid trafficking and outer membrane integrity, a

279 ations in the tafazzin (TAZ) gene encoding a phospholipid transacylase required for cardiolipin remod

280 passaging resulting in a mutation in mlaC, a phospholipid transport gene.

281 esis: LPS transport via the Lpt machine, and phospholipid transport via the Mla pathway and several r

282 cid metabolism, Golgi apparatus, and ion and phospholipid transport.

283 protein composed of a guanylyl cyclase and a phospholipid transporter domain.

284 n in the outer membrane and regulated by the phospholipid transporter VacJ/Yrb.

285 While yeast has one gene that encodes the phospholipid transporter VPS13, humans have four vacuola

286 reased activity of dedicated cholesterol and phospholipid transporters.

287 brane damage induced by these proferroptotic phospholipids triggers compensatory prosurvival pathways

288 ated base) of six lipids representing common phospholipid types.

289 We also found that dispersions of phospholipid vesicles cause "blinks".

290 The extract was loaded in phospholipid vesicles to improve its protective effect a

291 in vitro, was able to superficially bind to phospholipid vesicles, nevertheless, it loses the insert

292 y suggests that higher proportions of plasma phospholipid VLSFAs in midlife may be associated with le

293 best performance and provided 82 identified phospholipids vs only 32.

294 Sphingolipids, cholesteryl esters, and phospholipids were associated with AF prevalence, wherea

295 M1 PUFA containing triglycerides (TG) and phospholipids were correlated with CB LysoPC and LysoPE

296 metabolites, as well as decreased levels of phospholipids, were associated with development of ACLF,

297 Anionic phospholipids, which include phosphatidic acid, phosphat

298 ract with model lipid membranes that contain phospholipids with phosphatidyl-ethanolamine headgroups.

299 egulated form of cell death that occurs when phospholipids with polyunsaturated fatty acyl tails are

300 lling through an unexpected interaction with phospholipids, with profound consequences for cellular m