Chemistry and Physics of Lipids 1998: Vol 93 Index

5 Pages·1998·0.64 MB·English

CPL
CHEMISTRY AND
ELSEVIER Chemistry and Physics of Lipids PHYSICS OF LIPIDS
93 (1998) 209
Author index
Volume 93 (1998)
Alberghina, L. 93, 47 Fernandez-Lorente, G. 93, 185 Orrenius, S.C. 93, 81
Alcantara, A.R. 93, 169 Fischer, M. 93, 67 Overbeeke, P.L. 93, 81
Alquati, C. 93, 47
Anthonsen, T. 93, 199 Gastinel, L. 93, 103 Palocci, C. 93, 157
Armisén, P. 93, 185 Gordillo, M.A. 93, 131 Park, J.-W. 93, 149
Gotz, F. 93, 15, 27 Patkar, S. 93, 95
Bezzine, S. 93, 103 Guisan, J.M. 93, 185 Pignol, D. 93, 123
Blanchette-Mackie, E.J. 93, 149 Pleiss, J. 93, 67
Borch, K. 93, 95 Hermoso, J. 93, 123
Brocea, S. 93, 47, 143 Hoff, B.H. 93, 199 RReoestezn,s teMi.nT,. R. 93, 933, 15
Holmquist, M. 93, 57 Roussel, A. 93, 103
Cambillau, C. 93, 103
Carlos Fontecilla-Camps, J. 93, 123
Jaeger, K.-E. 93, 3 Sabuquillo, P. 93, 185
Carriére, F. 93, 103
Jongejan, J.A. 93, 81 Schmid, R.D. 93, 67
Casas, C. 93, 131
Schultz, C.J. 93, 149
Cernia, E. 93, 157
Kelstrup, E. 93, 95 Scow, R.O. 93, 149
Chapus, C. 93, 123
Kerfelec, B. 93, 123 Simons, J.-W.F.A. 93, 27, 39
Christensen, M.W. 93, 95
Kirk, O. 93, 95 Sinisterra, J.V. 93, 169
Crenon, I. 93, 123 Sola, C. 93, 131
Soro, S. 93, 157
de Caro, A. 93, 103 Lafuente, J. 93, 131, 143 Svendsen, A. 93, 95
de Caro, J. 93, 103 Lang, D.A. 93, 115
de Fuentes, I.E. 93, 169 Leydier, S. 93, 103 Takagi, M. 93, 47
Dekker, N. 93, 39 Lotti, M. 93, 47, 143
Dijkstra, B.W. 93, 115 Luis Montesinos, J. 93, 143 Valero, F. 93, 131, 143
Duine, J.A. 93, 81 van Kampen, M.D. 93, 39
Mileto, D. 93, 47 Verger, R. 93, 103
Egmond, M.R. 93, 27, 39 Montesinos, J.L. 93, 131 Verheij, H.M. 93, 15, 27, 39
Fernandez-Lafuente, R. 93, 185 Monticelli, S. 93, 143 Vind, J. 93, 95
PII $0009-3084(98)00055-3

CPL
CHEMISTRY AND
Chemistry and Physics of Lipids PHYSICS OF LIPIDS
93 (1998) 211 213
Subject index
Volume 93 (1998)
Active site architecture; Lipase; Enantioselectivity; Stereospe- Combined lipase deficiency; Lipoprotein lipase; Hepatic lipase;
cificity; Crystal structure: X-ray crystallography 93, 115 Dimerization; Endoplasmic reticulum; Brefeldin A 93, 149
Acyl donors; Resolution; C-3 chirons; CALB; Substrate effect: Crystal structure; Lipase; Enantioselectivity; Stereospecificity;
Solvent effect; Water activity 93, 199 Active site architecture; X-ray crystallography 93, 115
Biocatalysis; Lipase; Organic solvent; Supercritical fluids 93, C-terminal; Phospholipase activity; Staphylococcus hyicus 93,
157 39
Biochemical properties; Staphylococcus; (Phospho)lipase; Sub- Dimerization; Lipoprotein lipase; Hepatic lipase; Combined
strate selectivity; Structure-function relationship 93, 27 lipase deficiency; Endoplasmic reticulum; Brefeldin A 93, 149
Brefeldin A; Lipoprotein lipase; Hepatic lipase; Combined Enantioselectivity; Candida antarctica; Lipase; Protein engi-
lipase deficiency; Dimerization; Endoplasmic reticulum 93, neering; Stability 93, 95
149
Enantioselectivity; Lipases; Enthalpy—entropy compensation;
CALB; Resoiution; C-3 chirons; Substrate effect; Soivent ef- Organic media; Two-state models 93, 81
fect; Acyl donors; Water activity 93, 199
Enantioselectivity; Lipase; Stereospecificity; Crystal structure;
Candida antarctica, Lipase; Protein engineering; Stability; Active site architecture; X-ray crystallography 93, 115
Enantioselectivity 93, 95
Enantioselectivity; Pseudomonas lipase; Overexpression; Li-
pase-specific foldase; Immobilization; In vitro evolution 93, 3
Candida, Lipase; Isoenzymes; Genetic code 93, 47
Enantioselectivity; Structure-function relationships; Interfacial
Candida rugosa; Lipase; Isoenzymes; Expression; Secre-
activation; Protein engineering; Molecular modeling; Chiral
tion 93, 143
recognition 93, 57
Candida rugosa, Lipase production; On-line monitoring and
Endoplasmic reticulum; Lipoprotein lipase; Hepatic lipase;
estimation control strategies; Purification; Fermentation 93,
131 Combined lipase deficiency; Dimerization; Brefeldin A 93,
149
C-3 chirons; Resolution; CALB; Substrate effect: Solvent ef-
Enthalpy—entropy compensation; Lipases; Enantioselectivity;
fect; Acyl donors; Water activity 93, 199
Organic media; Two-state models 93, 81
Chain length specificity; Modeling; Structure; Mutant; Es- Esterase; Modeling; Structure; Chain length specificity; Mu-
terase; Protein engineering 93, 67 tant; Protein engineering 93, 67
Chiral compounds; Rhizomucor miehei; Lipase; Resolu- Expression; Lipase; Candida rugosa; Isoenzymes; Secre-
tion 93, 169 tion 93, 143
Chiral recognition; Structure-function relationships; Interfacial Fermentation; Lipase production; Candida rugosa; On-line
activation; Protein engineering: Molecular modeling; Enan- monitoring and estimation control strategies; Purification 93,
tioselectivity 93, 57 131
PIT $0009-3084(98)00056-5
Subject index
Genetic code; Lipase; Candida: Isoenzymes 93, 47 Lipase. Rhizomucor miehei; Resolution; Chiral com-
pounds 93, 169
Glycerides; Pancreatic juice; Pancreatic lipase; X-ray struc-
ture 93, 103 Lipases; Enantioselectivity; Enthalpy—entropy compensation;
Organic media; Two-state models 93, 81
Hepatic lipase; Lipoprotein lipase; Combined lipase deficiency:
Dimerization; Endoplasmic reticulum; Brefeldin A 93, 149 Lipase-specific foldase; Pseudomonas lipase; Overexpression;
Immobilization; In vitro evolution; Enantioselectivity 93, 3
Immobilization—hyperactivation of lipases: Interfacial activa-
tion of lipases on solid interfaces; Immobilization — purifica- Lipoprotein lipase; Hepatic lipase: Combined lipase deficiency;
tion of lipases; Immobilized lipases in aqueous media 93, 185 Dimerization; Endoplasmic reticulum; Brefeldin A 93, 149
Immobilization, Pseudomonas lipase; Overexpression; Lipase- Micelle, Neutron crystallographic evidence; Lipase/colipase
specific foldase: In vitro evolution; Enantioselectivity 93, 3 complex 93, 123
Immobilization— purification of lipases; Interfacial activation Modeling: Structure; Chain length specificity: Mutant; Es-
of lipases on solid interfaces; Immobilization — hyperactiva- terase; Protein engineering 93, 67
tion of lipases; Immobilized lipases in aqueous media 93, 185
Molecular modeling: Structure-function relationships; Interfa-
Immobilized lipases in aqueous media; Interfacial activation of
cial activation; Protein engineering; Chiral recognition; Enan-
lipases on solid interfaces; Immobilization— purification of
tioselectivity 93, 57
lipases; Immobilization — hyperactivation of lipases 93, 185
Mutant; Modeling: Structure; Chain length specificity; Es-
Interfacial activation of lipases on solid interfaces: Immobiliza-
terase; Protein engineering 93, 67
tion — purification of lipases; Immobilization — hyperactiva-
tion of lipases; Immobilized lipases in aqueous media 93, 185
Neutron crystallographic evidence; Micelle: Lipase colipase
complex 93, 123
Interfacial activation: Structure-function relationships; Protein
engineering; Molecular modeling; Chiral recognition; Enan-
On-line monitoring and estimation control strategies; Lipase
tioselectivity 93, 57
production; Candida rugosa; Purification; Fermentation 93,
131
In vitro evolution; Pseudomonas lipase; Overexpression; Lipase-
specific foldase; Immobilization; Enantioselectivity 93, 3
Organic media; Lipases; Enantioselectivity; Enthalpy—entropy
Isoenzymes; Lipase: Candida: Genetic code 93, 47 compensation; Two-state models 93, 81
Isoenzymes; Lipase: Candida rugosa; Expression; Secre- Organic solvent; Lipase; Biocatalysis; Supercritical fluids 93,
157
tion 93, 143
Lipase, Biocatalysis; Organic solvent: Supercritical fluids 93, Overexpression; Pseudomonas lipase, Lipase-specific foldase;
157 Immobilization: In vitro evolution; Enantioselectivity 93, 3
Lipase, Candida antarctica; Protein engineering: Stability: Pancreatic juice; Pancreatic lipase: Glycerides; X-ray struc-
Enantioselectivity 93, 95 ture 93, 103
Lipase; Candida; lsoenzymes; Genetic code 93, 47 Pancreatic lipase: Pancreatic juice: Glycerides; X-ray struc-
ture 93, 103
Lipase, Candida rugosa: Isoenzymes; Expression; Secre-
tion 93, 143 Phospholipase activity; Staphylococcus hyicus; C-terminal 93,
39
Lipase/colipase complex: Neutron crystallographic evidence:
Micelle 93, 123 (phospho) lipases; Pre-pro-enzyme: Processing: Staphylococ-
cus 93, 15
Lipase; Enantioselectivity; Stereospecificity; Crystal structure;
Active site architecture; X-ray crystallography 93, 115 (Phospho)lipase; Staphylococcus; Biochemical properties; Sub-
strate selectivity; Structure-function relationship 93, 27
Lipase production; Candida rugosa; On-line monitoring and
estimation control strategies; Purification; Fermentation 93, Pre-pro-enzyme; (phospho) lipases; Processing: Staphylococ-
131 cus 93, 15
Subject index 213
Processing; (phospho) lipases; Pre-pro-enzyme; Staphylococ- Staphylococcus; (Phospho)lipase; Biochemical properties; Sub-
cus 93, 15 strate selectivity; Structure-function relationship 93, 27
Protein engineering; Candida antarctica; Lipase; Stability; Staphylococcus, (phospho) lipases; Pre-pro-enzyme; Process-
Enantioselectivity 93, 95 ing 93, 15
Protein engineering; Modeling; Structure; Chain length specifi- Stereospecificity; Lipase; Enantioselectivity; Crystal structure;
city; Mutant; Esterase 93, 67 Active site architecture; X-ray crystallography 93, 115
Protein engineering; Structure-function relationships; Interfa- Structure-function relationships; Interfacial activation; Protein
cial activation; Molecular modeling; Chiral recognition; Enan- engineering; Molecular modeling; Chiral recognition; Enan-
tioselectivity 93, 57 tioselectivity 93, 57
Pseudomonas \ipase, Overexpression; Lipase-specific foldase; Structure-function _relationship; Staphylococcus; _(Phos-
Immobilization; In vitro evolution; Enantioselectivity 93, 3 pho)lipase; Biochemical properties; Substrate selectivity 93,
27
Purification; Lipase production; Candida rugosa; On-line mon-
itoring and estimation control strategies; Fermentation 93, Structure, Modeling; Chain length specificity; Mutant; Es-
131 terase; Protein engineering 93, 67
Resolution; C-3 chirons; CALB; Substrate effect; Solvent ef- Substrate effect; Resolution; C-3 chirons; CALB; Solvent ef-
fect; Acyl donors; Water activity 93, 199 fect; Acyl donors; Water activity 93, 199
Resolution; Rhizomucor miehei; Lipase; Chiral com- Substrate selectivity; Staphylococcus, (Phospho)lipase; Bio-
pounds 93, 169 chemical properties; Structure-function relationship 93, 27
Rhizomucor miehei, Lipase; Resolution; Chiral com- Supercritical fluids; Lipase; Biocatalysis; Organic solvent 93,
pounds 93, 169 157
Secretion; Lipase; Candida rugosa; Isoenzymes; Expres- Two-state models; Lipases; Enantioselectivity; Enthalpy—en-
sion 93, 143 tropy compensation; Organic media 93, 81
Solvent effect; Resolution; C-3 chirons; CALB; Substrate ef- Water activity; Resolution; C-3 chirons; CALB; Substrate
fect: Acyl donors; Water activity 93, 199 effect; Solvent effect; Acyl donors 93, 199
Stability; Candida antarctica,; Lipase; Protein engineering; X-ray crystallography; Lipase; Enantioselectivity; Stereospecifi-
Enantioselectivity 93, 95 city; Crystal structure; Active site architecture 93, 115
Staphylococcus hyicus, Phospholipase activity; C-terminal 93, X-ray structure; Pancreatic juice; Pancreatic lipase; Glyce-
39 rides 93, 103