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1 etate and [(14)C]glycerol incorporation into glycerolipids.
2 stid are exported for assembly of eukaryotic glycerolipids.
3 hesis of triacylglycerol and other non-ether glycerolipids.
4 o lipids, a pathway for de novo synthesis of glycerolipids.
5  in the metabolism of endogenous and dietary glycerolipids.
6 incorporation of hydrolyzed fatty acids into glycerolipids.
7 eir close association with various groups of glycerolipids.
8 golipids (GSLs) with lesser amounts of polar glycerolipids.
9 ese data are consistent with a mechanism for glycerolipid acyltransferase catalysis where the invaria
10 VPS66, alias YPR139c), a yeast member of the glycerolipid acyltransferase family.
11          Sequence analysis of membrane-bound glycerolipid acyltransferases revealed that proteins fro
12                               In contrast to glycerolipids, aliphatic surface waxes of Arabidopsis le
13 ved between newly emerged and older wasps in glycerolipids, amino acids and circulatory sugars.
14                STAT1 and STAT3 also regulate glycerolipid and eicosanoid metabolism, respectively.
15 olism in AIS, including glycerophospholipid, glycerolipid and fatty acid metabolism.
16                                  Products of glycerolipid and sphingolipid metabolism are now known t
17  a substantial increase in the percentage of glycerolipid and sphingolipids species containing 24:1 a
18            Fatty acids destined for membrane glycerolipid and triacylglycerol synthesis in the endopl
19  how plants produce and secrete non-membrane glycerolipids and also how to engineer alternative pathw
20  proteins were enzymes that regulate sugars, glycerolipids and cholesterol itself as well as proteins
21 n the presence of low FA increased flux into glycerolipids and enhanced glucose oxidation.
22 xposed mice showed increased plasma and BALF glycerolipids and glycerophospholipids.
23  G3P forms the backbone of TAGs and membrane glycerolipids and it can be dephosphorylated to yield gl
24 lineate novel metabolic interactions between glycerolipids and sphingolipids.
25 hat PNPLA3 plays a role in the hydrolysis of glycerolipids and that the I148M substitution causes a l
26 y shunt fatty acids into de novo synthesized glycerolipids and the transfer of lipids into VLDL, resp
27 terns for genes involved in the synthesis of glycerolipids and their precursors.
28 uce the phosphatidic acid precursor of polar glycerolipids and triacylglycerols (TAGs).
29 closely coordinated with that of sterols and glycerolipids and with other processes that occur in the
30 f [3H]oleic acid (OA) or [3H]glycerol to [3H]glycerolipids, and the turnover of these products in PC1
31 pidomic analysis indicates that both PLs and glycerolipids are qualitatively affected by the mutation
32  with age and cataract support the idea that glycerolipids are selectively oxidized over lipids with
33                                              Glycerolipids are structural components for membranes an
34 data together indicate that Bayberry surface glycerolipids are synthesized by a pathway for TAG synth
35                        The presence of ether glycerolipids as well as branched wax esters has been re
36                PMNs esterified 5-[3H]HETE to glycerolipids at 37 and 4 degreesC.
37 d compound classes, including phospholipids, glycerolipids, bacterial lipoglycans and plant glycolipi
38 alyzed aminolysis of arachidonate-containing glycerolipids, because AEA was produced from synthetic (
39             We define the genes required for glycerolipid biogenesis and detail the differential regu
40  FAD7, SFD1 and SFD2 are involved in plastid glycerolipid biosynthesis and SAR is also compromised in
41    Lipin-1 is a phosphatidate phosphatase in glycerolipid biosynthesis and signal transduction.
42                                              Glycerolipid biosynthesis in plants proceeds through two
43 revious work indicates a role for plastidial glycerolipid biosynthesis in SAR.
44  and lipid homeostasis, probably through the glycerolipid biosynthesis pathway, which may contribute
45 idate phosphatase (PAP) enzymes required for glycerolipid biosynthesis, and also as transcriptional c
46 wild-type hamster GPI restored GPI activity, glycerolipid biosynthesis, and PAP1 activity in GroD1.
47 s highly conserved among acyltransferases in glycerolipid biosynthesis, drastically reduced mitochond
48 ), which catalyzes the first step in de novo glycerolipid biosynthesis, is stimulated by casein kinas
49  interacts with other enzymes involved in ER glycerolipid biosynthesis, suggesting the possibility of
50 e (GPAT) catalyzes the rate-limiting step of glycerolipid biosynthesis, the acylation of glycerol 3-p
51 phosphatase (PAP) enzymes catalyze a step in glycerolipid biosynthesis, the conversion of phosphatida
52 phenotypes with respect to PAP1 activity and glycerolipid biosynthesis.
53 ry cells that display a global deficiency in glycerolipid biosynthesis.
54 P) enzymes, which catalyze a key reaction in glycerolipid biosynthesis.
55  catalyzes the initial and committed step in glycerolipid biosynthesis.
56 pathway" contributes significantly to diacyl glycerolipid biosynthesis.
57 derived fatty acids available to cytoplasmic glycerolipid biosynthesis.
58 criptional activation of UAS(INO)-containing glycerolipid biosynthetic genes.
59  critical roles in trafficking SFAs into the glycerolipid biosynthetic pathway to form saturated phos
60                         Several genes in the glycerolipid biosynthetic pathways are up-regulated in p
61 eficiency appear to include both the loss of glycerolipid building blocks and the accumulation of lip
62 kedly decreased the V(max) of the enzyme for glycerolipids but had only a modest effect on the K(m).
63  indicating reduced synthesis of chloroplast glycerolipids by the prokaryotic pathway of lipid metabo
64                                  We profiled glycerolipid changes as well as transcript dynamics unde
65 l synthase1 mutant we suggest that a plastid glycerolipid-dependent factor is required in Avr PeX alo
66                                 Evidence for glycerolipid-derived second messengers was first obtaine
67 he first animal representative of a class of glycerolipid desaturases that have previously been chara
68 g of sphingolipids and increased labeling of glycerolipids dramatically following in vivo labeling wi
69                                              Glycerolipids (e.g., phospholipids and triacylglycerol)
70 lso include control of catalytic activity of glycerolipid enzymes by water-soluble precursors, produc
71                            The expression of glycerolipid enzymes is controlled by a variety of condi
72 tyric acid receptor signaling cascades, plus glycerolipid, fatty acid, and amino acid metabolic pathw
73 FD and corrected increases across a range of glycerolipids, fatty acids, and various lysolipids.
74                The lipids produced by cells (glycerolipids, fatty acids, phospholipids, cholesterol,
75 gest lipid class, followed by sphingolipids, glycerolipids, fatty acyls, sterol lipids, and prenol li
76        Obesity, and the associated disturbed glycerolipid/fatty acid (GL/FA) cycle, contribute to ins
77               To determine whether increased glycerolipid flux can, by itself, cause hepatic insulin
78 on of FFAR1/GPR40 by an antagonist decreased glycerolipid formation, attenuated fatty acid increases
79 ipase, two enzymes involved in lipolysis and glycerolipid/free fatty acid cycling.
80 emperature also influences the channeling of glycerolipids from the ER to chloroplast.
81 rane lipid synthesis relies on the import of glycerolipids from the ER.
82                          Lipid remodeling of glycerolipids, glycerophospholipids, and prenols also ta
83                                              Glycerolipids, glycerophospholipids, and sphingolipids e
84 positional diversity, complex lipids such as glycerolipids, glycerophospholipids, saccharolipids, etc
85  and putative identification of fatty acids, glycerolipids, glycerophospholipids, sphingolipids, and
86 main lipid categories including fatty acyls, glycerolipids, glycerophospholipids, sphingolipids, ster
87 t the relative changes occurring in membrane glycerolipids have not yet been studied.
88  categories of lipids: (i) fatty acyls, (ii) glycerolipids, (iii) glycerophospholipids, (iv) cardioli
89          To determine the mechanism by which glycerolipids impair insulin signaling, we overexpressed
90 ides represent a minor fraction of the total glycerolipids in cells.
91 ynthesis and accumulation of fatty acids and glycerolipids in islets and protected against beta cell
92                        To determine membrane glycerolipids in root hairs and roots may differ, as wel
93  the initial steps of synthesis of its major glycerolipids including those involved in virulence.
94 s incorporated into complex endothelial cell glycerolipids, including monoglycerides, triglycerides,
95 d sphingomyelin, increased with age, whereas glycerolipids, including phosphatidylcholine and two pho
96 ocked the incorporation of [3H]glycerol into glycerolipids, incorporation of [14C]oleate into TG, but
97 the fatty acyl content of various classes of glycerolipids indicated that the Spr2 gene product catal
98 entified sn-2 monoacylglycerol as an initial glycerolipid intermediate.
99 alized cellular pools of triacylglycerol and glycerolipid intermediates.
100 rst step in assembly of membrane and storage glycerolipids is acylation of glycerol-3-phosphate (G3P)
101 ation between gene expression and changes in glycerolipid levels during the Arabidopsis thaliana resp
102  between the coordination of transcripts and glycerolipid levels in a changing environment and the ef
103 ysis indicates coordinate regulation between glycerolipid metabolism and a broad spectrum of metaboli
104  will greatly facilitate studies of cellular glycerolipid metabolism and its regulation.
105 overy of PDCT is important for understanding glycerolipid metabolism in plants and other organisms, a
106 bstantial changes in rates of fatty acid and glycerolipid metabolism in the mutant.
107                                              Glycerolipid metabolism of plants responds dynamically t
108  This may indicate a block in the downstream glycerolipid metabolism pathway in GPD3 overexpression l
109                                              Glycerolipid metabolism pathway was uniquely associated
110 te application of T-87 cells for analysis of glycerolipid metabolism, including tests of gene functio
111 on the function of MGAT enzymes in mammalian glycerolipid metabolism.
112 d caveolae associated activities and altered glycerolipid metabolism.
113  of genes involved in steroid metabolism and glycerolipid metabolism.
114 n modulated glucose, glutathione, lipid, and glycerolipid metabolism.
115  for the overall subcellular organization of glycerolipid metabolism.
116  kidney tissue fatty acid, phospholipid, and glycerolipid metabolisms prior to and after the onset of
117           Surprisingly, they are depleted of glycerolipid metabolites and free fatty acids, yet accum
118 acid-containing plastidic and extraplastidic glycerolipid molecular species.
119 hether DGLA could be mobilized from cellular glycerolipids, neutrophils were stimulated with ionophor
120                               Polar membrane glycerolipids occur in a mixture of molecular species de
121 with sn-2,3 stereochemistry opposite that of glycerolipids of Bacteria and Eukarya.
122 or initial incorporation of fatty acids into glycerolipids of cells derived from a 16:3 plant.
123                  Palmitate (16:0) content of glycerolipids of the mutant was reduced by 42% in leaves
124 omposition or content of membrane or storage glycerolipids or surface waxes.
125                           The involvement of glycerolipid pathway interactions in modulating membrane
126 utant, which is defective in the prokaryotic glycerolipid pathway, PDAT1 overexpression enhances TAG
127 eases fatty acid flux toward the prokaryotic glycerolipid pathway.
128 ophyll content and the amount of chloroplast glycerolipids per gram of leaf.
129 oss all eight lipid categories: fatty acyls, glycerolipids, phosphoglycerolipids, polyketides, prenol
130  and biochemical analyses have revealed that glycerolipids play important roles in cell signaling, me
131 een important for evolution of extracellular glycerolipid polymers and adaptation of plants to a terr
132                         Suberin lamellae are glycerolipid polymers covering the endodermal cells and
133  of cutin and suberin, the two most abundant glycerolipid polymers in nature.
134  occurs in parallel with changes of specific glycerolipid pools.
135 er plays a role in fatty acid remodeling and glycerolipid production.
136 ple analytical techniques, we determined the glycerolipid profile of P. tricornutum grown with variou
137 tty acids and derivatives; oligosaccharides; glycerolipids; purines; and retinoids.
138                       Analysis of individual glycerolipids revealed that the fatty acid composition o
139                            Recently, another glycerolipid second messenger, phosphatidic acid, was fo
140                              Thus, different glycerolipid second messengers appear to regulate distin
141 c acid, mono- and diacylglycerols, and other glycerolipids, some implicated in augmenting insulin sec
142 ailability, this study analyzed the membrane glycerolipid species in soybean root hairs and in roots
143 nces of >600 individual glycerophospholipid, glycerolipid, sphingolipid and sterol lipids between a p
144 zes the initial and rate-controlling step in glycerolipid synthesis and aids in partitioning acyl-CoA
145            G3P is an essential precursor for glycerolipid synthesis and the accumulation of triacylgl
146 oxyacetone phosphate (acyl-DHAP) pathway for glycerolipid synthesis is commonly believed to be involv
147                   Increased flux through the glycerolipid synthesis pathway impairs the ability of in
148 to-oncoprotein c-Fos has an emerging role in glycerolipid synthesis regulation; by interacting with k
149    Expression of several genes that regulate glycerolipid synthesis was not changed by GW7647 treatme
150  for the generation of diacylglycerol during glycerolipid synthesis, and exhibits dual functions in t
151 r redox and ATP production, gluconeogenesis, glycerolipid synthesis, and fatty acid oxidation in panc
152 ndrial enzyme catalyzing the initial step in glycerolipid synthesis, are induced during the different
153 rst two steps of the prokaryotic pathway for glycerolipid synthesis, so we investigated whether other
154 acylglycerol mobilization and precursors for glycerolipid synthesis, suggesting that lipid metabolism
155 to determine mechanisms possibly involved in glycerolipid synthesis.
156 e first and committed step in the pathway of glycerolipid synthesis.
157 with microsomal membranes, the major site of glycerolipid synthesis.
158 iting is an integral component of eukaryotic glycerolipid synthesis.
159 e-1 (PAP1) activity, which has a key role in glycerolipid synthesis.
160 ted to acyl-CoA for utilization in cytosolic glycerolipid synthesis.
161 alyzes the initial and rate-limiting step of glycerolipid synthesis.
162 .C. 2.3.1.15) catalyze the committed step in glycerolipid synthesis.
163 example of such an analysis focused on plant glycerolipid synthesis.
164 atty acid synthesis but also a key enzyme in glycerolipid synthesis.
165 to intracellular membranes to participate in glycerolipid synthesis.
166 te (acid soluble metabolites [ASM]) FAO, and glycerolipid synthesis.
167  separate gene, catalyze the initial step in glycerolipid synthesis; in liver, the major isoforms are
168   A comparison of microsomal and peroxisomal glycerolipid synthetic pathways, using D-[3-(3)H, U-(14)
169  PNPLA3 was observed against the three major glycerolipids, TAG, diacylglycerol, and monoacylglycerol
170 f 15 other sphingolipids, phospholipids, and glycerolipids tested, have been termed "sphingosine-depe
171 1-phosphate, or other sphingo-, phospho-, or glycerolipids tested.
172 aine lipids are ether-linked, nonphosphorous glycerolipids that resemble the more commonly known phos
173  in synthesis of triacylglycerol and related glycerolipids, the possible functions of different isoen
174 tracts were treated with 0.1 N KOH to remove glycerolipids, the sphingoid base 1-phosphates were conv
175 he newly synthesized fatty acids first enter glycerolipids through PC acyl editing, largely at the sn
176 d phospholipase A (pPLA) hydrolyzes membrane glycerolipids to produce monoacyl compounds and free fat
177 the drug inhibited both de novo synthesis of glycerolipids via the glycerol-3-phosphate pathway and t
178 support the hypothesis that the synthesis of glycerolipids via the monoacylglycerol pathway may be hi
179 ce the mass distribution of linoleic acid in glycerolipids was not affected.
180 and ether- species), cholesteryl esters, and glycerolipids were associated with future cardiovascular
181 perimentally that esterified carotenoids and glycerolipids were not removed, indicating a much more s
182 s starvation, 140 molecular species of polar glycerolipids were quantitatively profiled in rosettes a
183 lipids, sphingolipids, free fatty acids, and glycerolipids) which were mapped to their corresponding
184                                   Cutin is a glycerolipid with omega-oxidized fatty acids and glycero
185 hermophila resulted the detection of various glycerolipids with an ether bond, indicating reconstitut

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