13.09.2022 Views

Molecular Biology of the Cell by Bruce Alberts, Alexander Johnson, Julian Lewis, David Morgan, Martin Raff, Keith Roberts, Peter Walter by by Bruce Alberts, Alexander Johnson, Julian Lewis, David Morg

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

Index I:17

electron crystallography 580, 586

electron microscopy

cryoelectron microscopy 559–561,

562F

EM tomography 558, 779, 988F

freeze-etch 937F, 942F, 948F

freeze-fracture electron microscopy

1047, 1049F, 1051F

immunogold electron microscopy

556–557

negative staining 559–561

resolution 554, 559, 560F, 562

single-particle reconstruction

561–562

staining 555–556

three-dimensional imaging 557–558

transmission electron microscopy

305F, 554, 555–556F, 558, 560F

see also SEM

electron transfers

chlorophyll 787–788, 792

NADH dehydrogenase complex 768

oxidation and reduction as 55–56

photosynthetic reactions 783–784

see also light reactions

electron-transport chain

in ATP synthesis 84–85, 658

in chemiosmotic coupling 754

in chloroplasts 789

the citric acid cycle and 83

in early living cells 795–797

location in mitochondrial cristae

757–758

in mitochondria and chloroplasts

755F

mitochondrial protein imports 659,

662, 663F, 664

proton gradients and 86F

proton pumps of 763–774

electrons

damage to proteins 561

productivity in terms of ATP 775

wavelength 554

electrophoresis see gel electrophoresis

electroporation 495

electrospray ion source 456–457

electrostatic attractions

atomic force microscopy and 548

binding site example 135F

as noncovalent 44, 95

elements

periodic table 43F

required for living cells 12, 43

elongation factors

EF-G 343, 344F

EF-Tu 160–161, 163, 343–344

loading onto RNA polymerase 388

role 313–314, 343–344

elongation phase, DNA replication 974

EM (electron microscope) tomography

558

embryogenesis, cell migration in 951

embryoid bodies, from iPSs 1257F

embryonic development

apoptosis in 1022

asymmetries 1151–1152

blastomere to differentiation 1148F

cadherin-dependent cell-cell adhesion

in 1040–1041

cell memory in 1148, 1150, 1162,

1164

control of timing 1176–1184

epithelial-mesenchymal transitions

1042

fundamental processes in animals

1145

germ cells and somatic cells 1158

intracellular control programs 1179

morphogenesis 1184–1193

neural development 1198–1213

overview 1147–1155

retina 1236

spatial patterning in 1150–1154

specific genes in animals 1149

tissue morphogenesis 1059

embryonic stem cells

Nanog regulator 378F

transgenic mice 496

embryos

cell-cycle control system 967, 971

genome activation 1147

parthenogenetic 987

see also blastula

embryos, Drosophila

control of nuclear transport 655F

discovery of signaling pathways 1154

germ-band extension 1045

mitosis without cytokinesis 1002,

1003F

syncytium development 1157

transcription regulators 392–395

embryos, frog

blastula stage components 1147F

epigenetic inheritance and 205–206

evidence for differentiation without

gene loss 369–370

reprogramming by donor nuclei

205–206

embryos, vertebrate

inductive signaling 1166, 1167F, 1177,

1184, 1198

nervous systems 1041F

spatial patterning 1167–1169

EMT (epithelial-mesenchymal transitions)

1042, 1101

endocrine cells, in signaling 815

endocytic-exocytic cycle 731

endocytic vesicles

endosome delivery 696F, 707

endosome formation and 730–732,

735

phagosomes as 738

synaptic vesicles from 746

endocytosis

of activated TGFβ receptors 865

defined 695

influenza virus infection by 709, 1280

as a lysosome delivery pathway 725

pathways 730–741

phagocytosis as 738

and receptor down-regulation 830

receptor-mediated 709, 727,

732–735, 849, 1281

endoderm 1147–1148, 1156, 1158,

1167–1168

endolysosomes 723, 724F, 730, 734F,

736, 1299, 1300T

endonucleases

AP endonuclease 269

mRNA destruction 427

tRNA splicing 336F

endoplasmic reticulum (ER)

among intracellular compartments

642

area compared with plasma

membrane 643

ER resident proteins 647, 682–683,

685F, 711, 714

ER retention signals 682

ER retrieval signals 713

ER tail-anchored proteins 682

functions 669–691

junction complexes with mitochondria

691

membrane asymmetry 681

microtubules in organization 939

mitochondrial contacts with 755,

757F

mRNA localization and 421

nuclear envelope connection to 179,

180F

protein retrotranslocation 358, 686

protein transport to the Golgi

apparatus 710–722

rough and smooth ER 642, 670, 671F

rough ER in B cells 1309

source of lipid droplets 573

source of microsomes 445, 671–673

source of single pass membrane

proteins 577

see also sarcoplasmic reticulum

endoreplication 1194

endosome maturation 707, 730, 735–736

endosomes

among intracellular compartments

642

early and late 696F, 707, 730, 735,

1280–1281, 1285

Rab5 domain formation 707

recycling endosomes 696F, 706T, 730,

737–738, 739F

Toll-like receptors 1299F

tubule formation 705

endosymbiont hypothesis 800

endothelial cells, in blood vessels

1235–1238, 1311–1312

endothelin-3 1186

energetically favorable and unfavorable

reactions

carbon fixation as unfavorable 784

condensation reactions as unfavorable

66

coupling 60–61, 63–65, 76–78, 102

defined 57

DNA supercoiling as favorable 314

electron transfer as favorable 764

membrane transport of glucose as

favorable 603F

energetics

of active transport 600

of biological reactions 102

bond strengths 44F

catalysis and energy use 51–73

extraction of energy from food 73–88

geochemical energy 12

of glycolysis and oxidative

phosphorylation 756

hydrogen burning and oxidative

phosphorylation 761

membrane transport proteins 163

mitochondrial protein import 661F

Page numbers with an F refer to a figure; page numbers with a T refer to a table.

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!