Chemistry and Physics of Lipids 1996: Vol 82 Index

7 Pages·1996·1.1 MB·English

CPL
CHEMISTRY AND
AA. 44 Chemistry and Physics of Lipids
PHYSICS OF LIPIDS
ELSEVIER 82 (19961)9 9
Author index
Volume 82 (1996)
Baes, M.I. 82, 79 Golemme, A. 82, 147 Ni, J.-z. 82, 73
Bagby, M.O. 82, 33 Grasso, D. 82, 147
Barlow, D.J. 82, 89 Parmentier, G.G. 82, 79
Bernik, D.L. 82, 111 Hendrickson, H.S. 82, Pohle, W. 82, 191
Bicanic, D. 82, 15 Hiramatsu, N. 82, 63
Bushnev, A.S. 82, 85 Huang, Z. 82, 53 Sato, K. 82, 63
Busson, R.H. 82, 79 Hwang, F. 82, 73 Schorn, K. 82, 7
Sebedio, J.L. 82, 101
Chan, P.T. 82, 163 Ichimori, H. $82, 125 Seddon, J.M. 82, 53
Chauhan, S. 82, 89 Inoue, T. 82, 63 Selle, C. 82, 191
Checchetti, A. 82, 147 Semmler, K. 82, 179
Chen, J.-w. 82, 73 Kaneshina, S. 82, 125 Shvets, V.I. 82, 85
Chen, X.-h. 82, 73 Kloek, W. 82, 15 Sonnino, S. 82, 133
Chen, Z.Y. 82, 163 Knothe, G. 82, 33 Soria, M.R. 82, 133
Chidichimo, G. 82, 147 Kobelt, F. 82, 39 Spiteller, G. 82, 25, 39, 173
Christie, W.W. 82, 101 Kusnetsova, E.]. 82, 1 Suzuki, M. 82, 63
Templer, R.H. 82, 53
Dadarlat, D. 82, 15 LaRosa, C. 82, 147
Declercq, P.E. 82, 79 Lawrence, M.J. 82, 89 van den Dries, I. 82, 15
Disalvo, E.A. 82, 111 Lawrence, S.M. 82, 89 Van Houte, H.A. 82, 79
Dobner, B. 82, 179 Van Veldhoven, P.P. 82, 79
Dobson, G. 82, 101 Mannaerts, G.P. 82, 79 Vereshchagin, A.G. 82, |
Dudda, A. 82, 39 Marsh, D. 82, 7
Maruyama, S. 82, 125 Wallace, P.A. 82, 141
Eyssen, H.J. 82, 79 Masserini, M. 82, 133 Weisleder, D. 82, 33
Matsuki, H. 82, 125 Weisser, M. 82, 173
Ferraretto, A. 82, 133 Meyer, H.W. 82, 179 W. Westerman, P. 82, 147
Minnikin, D.E. 82, 141
Gerkema, E. 82, 15 Mlakar, A. 82, 25 Zhao, D.-q. 82, 73
Gibkes, J. 82, 15 Motoda, I. 82, 63 Zhukov, A.V. 82, |

CPL
yes) CHEMISTRY AND
Chemistry and Physics of Lipids
ELSEVIER PHYSICS OF LIPIDS
82 (1996) 201-204
Subject index
Volume 82 (1996)
Acetylation; Phospholipids; Polar head group; Hydrogen Dihydroxy fatty acids; Nonenzymic lipid peroxidation; Hy-
bond 82,| droxy-oxo fatty acids; Hydroperoxy oxo fatty acids; PU-
FAs 82, 25
Aggregation properties; Synthesis; Novel non-ionic surfactants;
Dialkyl polyoxyethylene glycerol ethers 82, 89 Dimerization constant; Merocyanine 540; Lipid vesicles; Gel
state 82, 111
Aging; Plasmalogens; Bovine brain; Plasmalogen epoxide; Free
aldehydes; x-Hydroxyaldehydes 82, 173 2,4-Dimethyltetradecanoic acid; Mycobacterium kansasii; Gly-
colipid antigens; Fatty acid 82, 141
Allylic hydroxy groups; 'H-NMR spectroscopy; Rational func-
tions; Logarithmic functions; Fatty acids; Fatty esters 82, 33 Dioleoylphosphatidylethanol Hydration; FTIR spec-
troscopy; Lyotropic phase transition; Non-bilayer phases;
Bilayer membrane; Interdigitation; Phase transition; Pressure; Dipalmitoylphosphatidylcholine 82, 191
Phospholipids; Vesicles 82, 125
Dipalmitoylphosphatidylcholine; Dioleoylphosphatidylethanol-
Bovine brain; Plasmalogens; Plasmalogen epoxide; Free alde- amine; Hydration; FTIR spectroscopy; Lyotropic phase transi-
hydes; x-Hydroxyaldehydes; Aging 82, 173 tion; Non-bilayer phases 82, 191
Ceramide phosphate; Synthesis; Thiophosphate 82, 85 Drug carrier; Liposomes; Thermosensitivity; pH Sensitiv-
ity 82, 133
Cyclic fatty acids; Frying oils; Gas chromatography; High-per-
formance liquid chromatography; Mass spectrometry; Oleic DSC; Lysolecithin; Phosphatidylethanolamine; 7H-NMR; *'P-
acid; Silver ion chromatography; Sunflower oil 82, 101 NMR; Lipid bilayers 82, 147
Diacylglycerol; Lipid chain dynamics; Spin label; ESR; Slow Electron microscopy; Macroripples; Phosphatidylcholines;
motion simulation 82, 7 Freeze-fracture 82, 179
Dialkyl polyoxyethylene glycerol ethers; Synthesis; Novel non- Epicatechin; Epicatechin gallate; Epigallocatechin; Epigallocat-
ionic surfactants; Aggregation properties 82, 89 echin gallate; Jasmine tea 82, 163
Dielaidoylphosphatidylethanolamine,; Lanthanum; Lipid poly- Epicatechin gallate; Epicatechin; Epigallocatechin; Epigallocat-
morphism; Differential scanning calorimetry; Phosphatidyle- echin gallate; Jasmine tea 82, 163
thanolamine; Hexagonal II 82, 73
Epigallocatechin; Epicatechin; Epicatechin gallate; Epigallocat-
Differential scanning calorimetry; Lanthanum; Lipid polymor- echin gallate; Jasmine tea 82, 163
phism; Dielaidoylphosphatidylethanolamine; Phosphatidyl-
ethanolamine; Hexagonal II 82, 73 Epigallocatechin gallate; Epicatechin; Epicatechin gallate; Epi-
gallocatechin; Jasmine tea 82, 163
Differential scanning calorimetry; Photothermal phenomena;
Photopyroelectric technique; Phase transitions; Fatty acids; ESR; Diacylglycerol; Lipid chain dynamics; Spin label; Slow
Thermal parameters 82, 15 motion simulation 82, 7
202 Subject index
Fatty acid epoxides; Myocardial infarction; Lipid peroxidation; Frying oils; Gas chromatography; Mass spectrometry; Oleic
Glyoxal; x-Hydroxyaldehydes; Plasmalogens; Hydroxy fatty acid; Silver ion chromatography; Sunflower oil 82, 101
acids; Leukotoxins 82, 39
High pressure; Unsaturated fatty acids; Fatty acid mixture;
Fatty acid mixture; Unsaturated fatty acids; Solid-liquid phase Solid-liquid phase diagram 82, 63
diagram; High pressure 82, 63
2H-NMR; Lysolecithin; Phosphatidylethanolamine; *'P-NMR;
Fatty acid; Mycobacterium kansasii; 2,4-Dimethyltetradecanoic DSC; Lipid bilayers 82, 147
acid; Glycolipid antigens 82, 141
"H-NMR spectroscopy; Rational functions; Logarithmic func-
Fatty acids; 'H-NMR spectroscopy; Rational functions; Loga- tions; Allylic hydroxy groups; Fatty acids; Fatty esters 82, 33
rithmic functions; Allylic hydroxy groups; Fatty esters 82, 33
Hydration; Dioleoylphosphatidylethanolamine; FTIR spec-
Fatty acids; Photothermal phenomena; Photopyroelectric tech- troscopy; Lyotropic phase transition; Non-bilayer phases;
nique; Differential scanning calorimetry; Phase transitions; Dipalmitoylphosphatidylcholine 82, 191
Thermal parameters 82, 15
Hydrogen bond; Phospholipids; Polar head group; Acetyla-
Fatty alcohols; Inverse micellar cubic phase; Lipid mixtures; tion 82,|
X-ray diffraction 82, 53
Hydroperoxy oxo fatty acids; Nonenzymic lipid peroxidation;
Fatty esters; 'H-NMR spectroscopy; Rational functions; Log- Dihydroxy fatty acids; Hydroxy-oxo fatty acids; PUFAs 82,
arithmic functions; Allylic hydroxy groups; Fatty acids 82, 25
33
a-Hydroxyaldehydes; Myocardial infarction; Lipid peroxida-
Free aldehydes; Plasmalogens; Bovine brain; Plasmalogen tion; Glyoxal; Plasmalogens; Hydroxy fatty acids; Leukotox-
epoxide; x-Hydroxyaldehydes; Aging 82, 173 ins; Fatty acid epoxides 82, 39
freeze-fracture, Macroripples; Phosphatidylcholines; Electron a-Hydroxyaldehydes; Plasmalogens; Bovine brain; Plasmalo-
microscopy 82, 179 gen epoxide; Free aldehydes; Aging 82, 173
Frying oils; Cyclic fatty acids; Gas chromatography; High-per- Hydroxy fatty acids; Myocardial infarction; Lipid peroxida-
formance liquid chromatography; Mass spectrometry; Oleic tion; Glyoxal; x-Hydroxyaldehydes; Plasmalogens; Leukotox-
acid; Silver ion chromatography; Sunflower oil 82, 101 ins; Fatty acid epoxides 82, 39
FTIR spectroscopy; Dioleoylphosphatidylethanolamine;, Hy- Hydroxy-oxo fatty acids; Nonenzymic lipid peroxidation; Di-
dration; Lyotropic phase transition; Non-bilayer phases; hydroxy fatty acids; Hydroperoxy oxo fatty acids; PU-
Dipalmitoylphosphatidylcholine 82, 191 FAs 82, 25
Gas chromatography; Cyclic fatty acids; Frying oils; High-per- Interdigitation; Bilayer membrane; Phase transition; Pressure;
formance liquid chromatography; Mass spectrometry; Oleic Phospholipids; Vesicles 82, 125
acid; Silver ion chromatography; Sunflower oil 82, 101
Inverse micellar cubic phase; Fatty alcohols; Lipid mixtures;
Gel state; Merocyanine 540; Dimerization constant; Lipid X-ray diffraction 82, 53
vesicles 82, 111
Jasmine tea; Epicatechin; Epicatechin gallate; Epigallocate-
Glycolipid antigens; Mycobacterium kansasii; 2,4-Dimethylte- chin; Epigallocatechin gallate 82, 163
tradecanoic acid; Fatty acid 82, 141
Lanthanum: Lipid polymorphism; Differential scanning
Glyoxal; Myocardial infarction; Lipid peroxidation; z-Hy- calorimetry; Dielaidoylphosphatidylethanolamine; Phos-
droxyaldehydes; Plasmalogens; Hydroxy fatty acids; Leuko- phatidylethanolamine; Hexagonal II 82, 73
toxins; Fatty acid epoxides 82, 39
Leukotoxins; Myocardial infarction; Lipid peroxidation; Gly-
Hexagonal II; Lanthanum; Lipid polymorphism; Differential oxal; x-Hydroxyaldehydes; Plasmalogens; Hydroxy fatty acids;
scanning calorimetry; Dielaidoylphosphatidylethanolamine: Fatty acid epoxides 82, 39
Phosphatidylethanolamine 82, 73
Lipid bilayers; Lysolecithin; Phosphatidylethanolamine; *H-
High-performance liquid chromatography; Cyclic fatty acids; NMR; *'P-NMR; DSC_ 82, 147
Subject index 203
Lipid chain dynamics; Diacylglycerol; Spin label; ESR: Slow Novel non-ionic surfactants; Synthesis; Dialkyl polyoxyethylene
motion simulation 82, 7 glycerol ethers; Aggregation properties 82, 89
Lipid mixtures; Inverse micellar cubic phase; Fatty alcohols; Oleic acid; Cyclic fatty acids; Frying oils; Gas chromatogra-
X-ray diffraction $82, 53 phy; High-performance liquid chromatography; Mass spec-
trometry; Silver ion chromatography; Sunflower oil 82, 101
Lipid peroxidation; Myocardial infarction; Glyoxal; x-Hydrox-
yaldehydes; Plasmalogens; Hydroxy fatty acids; Leukotoxins; Phase transition; Bilayer membrane; Interdigitation; Pressure;
Fatty acid epoxides 82, 39 Phospholipids; Vesicles 82, 125
Lipid polymorphism; Lanthanum; Differential scanning Phase transitions; Photothermal phenomena; Photopyroelectric
technique; Differential scanning calorimetry; Fatty acids;
calorimetry; Dielaidoylphosphatidylethanolamine; — Phos-
Thermal parameters 82, 15
phatidylethanolamine; Hexagonal II 82, 73
Phosphatidylcholines; Macroripples; Freeze-fracture; Electron
Lipid vesicles; Merocyanine 540; Dimerization constant; Gel
microscopy 82, 179
State 82, 111
Phosphatidyleth ; Lanthanum; Lipid polymorphism;
Liposomes; Drug carrier; Thermosensitivity; pH Sensitiv-
Differential scanning calorimetry; Dielaidoylphos-
ity 82, 133
phatidylethanolamine; Hexagonal Il 82, 73
Logarithmic functions; 'H-NMR spectroscopy; Rational func- Phosphatidylethanolamine; Lysolecithin; 7H-NMR; *!P-NMR;
tions; Allylic hydroxy groups; Fatty acids; Fatty esters 82, 33 DSC: Lipid bilayers 82, 147
Lyotropic phase transition; Dioleoy|phosphatidylethanolamine; Phospholipids; Bilayer membrane; Interdigitation; Phase transi-
Hydration; FTIR spectroscopy; Non-bilayer phases; Dipalmi- tion; Pressure; Vesicles 82, 125
toylphosphatidylcholine 82, 191
Phospholipids; Polar head group; Hydrogen bond; Acetyla-
Lysolecithin; Phosphatidylethanolamine; 7H-NMR; *'P-NMR; tion 82,|
DSC; Lipid bilayers 82, 147
Photopyroelectric technique; Photothermal phenomena; Differ-
Macroripples; Phosphatidylcholines; Freeze-fracture; Electron ential scanning calorimetry; Phase transitions; Fatty acids;
microscopy 82, 179 Thermal parameters 82, 15
Mass spectrometry; Cyclic fatty acids; Frying oils; Gas chro- Photothermal phenomena; Photopyroelectric technique; Differ-
matography; High-performance liquid chromatography; Oleic ential scanning calorimetry; Phase transitions; Fatty acids;
acid; Silver ion chromatography; Sunflower oil 82, 101 Thermal parameters 82, 15
Merocyanine 540; Dimerization constant; Lipid vesicles; Gel pH_ Sensitivity; Liposomes; Drug carrier; Thermosensitiv-
ity $2, 133
state 82, 111
Plasmalogen epoxide; Plasmalogens; Bovine brain; Free alde-
Mycobacterium kansasii, 2,4-Dimethyltetradecanoic acid; Gly-
hydes; «-Hydroxyaldehydes; Aging 82, 173
colipid antigens; Fatty acid 82, 141
Plasmalogens; Bovine brain; Plasmalogen epoxide; Free alde-
Myocardial infarction; Lipid peroxidation; Glyoxal; x-Hydrox-
hydes; x-Hydroxyaldehydes; Aging 82, 173
yaldehydes; Plasmalogens; Hydroxy fatty acids; Leukotoxins;
Fatty acid epoxides 82, 39
Plasmalogens; Myocardial infarction; Lipid peroxidation; Gly-
oxal; x-Hydroxyaldehydes; Hydroxy fatty acids; Leukotoxins;
Non-bilayer phases; Dioleoylphosphatidylethanolamine; Hy- Fatty acid epoxides 82, 39
dration; FTIR spectroscopy; Lyotropic phase transition;
Dipalmitoylphosphatidylcholine 82, 191 3!P-NMR; Lysolecithin; Phosphatidylethanolamine; 7H-NMR;
DSC; Lipid bilayers 82, 147
Nonenzymic lipid peroxidation; Dihydroxy fatty acids; Hy-
droxy-oxo fatty acids; Hydroperoxy oxo fatty acids; PU- Polar head group; Phospholipids; Hydrogen bond; Acetyla-
FAs 82, 25 tion 82,|
Nordolichoic acid; Polyprenol 82, 79 Polyprenol; Nordolichoic acid 82, 79
204 Subject index
Pressure; Bilayer membrane; Interdigitation; Phase transition; phy; High-performance liquid chromatography; Mass spec-
Phospholipids; Vesicles 82, 125 trometry; Oleic acid; Silver ion chromatography 82, 101
PUFAs; Nonenzymic lipid peroxidation; Dihydroxy fatty Synthesis; Ceramide phosphate; Thiophosphate 82, 85
acids; Hydroxy-oxo fatty acids; Hydroperoxy oxo fatty
Synthesis; Novel non-ionic surfactants; Dialkyl poly-
acids 82, 25
oxyethylene glycerol ethers; Aggregation properties 82, 89
Rational functions; 'H-NMR spectroscopy; Logarithmic func-
Thermal parameters; Photothermal phenomena; Photopy-
tions; Allylic hydroxy groups; Fatty acids; Fatty esters 82, 33
roelectric technique; Differential scanning calorimetry; Phase
transitions; Fatty acids 82, 15
Silver ion chromatography; Cyclic fatty acids; Frying oils; Gas
chromatography; High-performance liquid chromatography; Thermosensitivity; Liposomes; Drug carrier; pH Sensitiv-
Mass spectrometry; Oleic acid; Sunflower oil 82, 101 ity 82, 133
Slow motion simulation; Diacylglycerol; Lipid chain dynamics; Thiophosphate; Ceramide phosphate; Synthesis 82, 85
Spin label; ESR 82, 7
Unsaturated fatty acids; Fatty acid mixture; Solid-liquid phase
Solid-liquid phase diagram; Unsaturated fatty acids; Fatty acid diagram; High pressure 82, 63
mixture; High pressure 82, 63
Vesicles; Bilayer membrane; Interdigitation; Phase transition;
Spin label; Diacylglycerol; Lipid chain dynamics; ESR; Slow Pressure; Phospholipids 82, 125
motion simulation 82, 7
X-ray diffraction; Inverse micellar cubic phase; Fatty alcohols;
Sunflower oil; Cyclic fatty acids; Frying oils; Gas chromatogra- Lipid mixtures 82, 53