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Essential Cell Biology 5th edition

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Index

I:5

internal membranes 19, 365–366,

496–499, 500F

preserved orientation 374, 377, 510

see also lipid bilayers; membrane

proteins; plasma membrane

cell memory 191–192, 278, 286–287, 711

cell proliferation

cancer cells 712, 718–722, 725–727,

730–731

cell-cycle control system 610–611,

621–622, 640, 644

extracellular signals and 640, 643

Ras mutations 564, 673

RTK role 559, 560

supplying differentiated cells

712–714

Wnt pathway and 714–715, 726,

730–731

cell respiration

ATP generation from 455

citric acid cycle elucidation 444–445

complementary to photosynthesis

86 –87

dependence on diffusion 390

efficiency 468–469

mitochondria in 17

role of sugars 427

cell signaling

contact-dependent signaling

535–536

general principles 534–545

in plants and animals 567

selectivity of response 537

and stability 711

types of signaling 534–536

see also extracellular signal

molecules; intracellular signaling

pathways; signal transduction

cell structure

investigations 8–11, 24T

plant, animal and bacterial 25F

cell-surface receptors see receptors

cell surfaces

carbohydrate layer 382–382, 386

patch-clamp recording 160T,

407–408, 411F

tumor-specific molecules 728

cell theory 7–8, 24T

cell type

in culture 285

and gene expression 268, 340

protein composition 269–270

selection for RNA-Seq 325

specialization 278–287

see also differentiation

cell walls

cellulose fibril orientation 695–695

discovery of cells and 7

and osmotic swelling 395, 693

plant cytokinesis 638

and plasma membranes 380

plasmodesmata 708, 709F

primary and secondary 693–694

prokaryotes 14

cellular respiration 17, 86, 87F, 427,

444–445, 463–464, 468–469

cellulase 168F

cellulose 53, 693F, 694–695

cellulose synthase 695F

central dogma 4, 228, 246

centrifugation

boundary and band sedimentation

61F

density gradient 165F, 203

fixed-angle and swinging-arm 164F

separation of organelles 164F–165F

ultracentrifuge 60–61, 164F–165F,

203–204, 252F

centrioles 25F, 582, 630F

centromeres 182, 183F, 190, 311, 626,

631

in meiosis 659F, 660, 661F

centrosome cycle 630

centrosomes

in idealized animal cell 21F, 25F

microtubule growth from 580,

581–582

in mitotic spindle assembly 580, 627,

630F

see also cytoskeleton

cesium chloride 165F, 203

Cfh gene (complement factor H) 685

Chalfie, Martin 520

channelrhodopsin 421, 422F

channels

distinguished from transporters 389,

404

K + leak channels 375T, 405, 406F,

413, 415, 419T

nuclear pores as 497, 501, 503F

translocator 509

see also ion channels

chaperone proteins (molecular

chaperones) 123, 124F, 258, 505, 506F,

517–518

charge separation 481, 485F, 489F

Chase, Martha 195

checkpoint inhibitors 728

checkpoints, cell-cycle 611, 635, 663

chemical bonds 40–50, 66F

bond lengths 44, 48T, 68F

bond strengths 45–46, 48T, 67F

ionic and covalent 42–43

noncovalent bonds 47–48

single and double 45–46, 48T, 67F

as source of food energy 427

see also bond energies; covalent

chemical bonds; peptide bonds

chemical groups 51, 66F–67F

chemical reactions

activation energy 89–90, 91F

coupled reactions 92, 94F–95F

driven by photosynthesis 85–86

equilibrium reactions 92

free energy and direction of 89

free energy and progress of 92

localization within cells 495–496

reverse reactions 49, 53F, 92, 94F,

96, 100, 103, 110

spontaneous reactions 89, 94F–95F

see also condensation reactions;

enzymes; reaction rates

chemical signal interconversion with

electrical 416–417

chemical similarity of cells 3–4

chemiosmotic coupling

as ancient and widespread 457–458,

464, 488F, 490–491

delayed acceptance of 457, 469

oxidative phosphorylation 476

chemiosmotic hypothesis 457, 476, 477

chemotaxis 596

chemotherapy 728

chiasmata 659–660

chimpanzees 223, 310, 311F, 323, 326

chitin 53

Chlamydomonas 591F

Chlorobium tepidum 489F

chlorophyll

adsorption spectrum 480

location in chloroplasts 18

source of “high-energy” electrons

463, 479, 482

special pair dimer 481, 482F,

483–484, 485F

structure 481F

chloroplasts

collaboration with mitochondria

487F

energy storage 450, 487

origins 15, 18–19, 457–458, 490, 499

and photosynthesis 18–19, 478–488

protein and lipid imports into

505–506

structure and function 19, 478–479

thylakoid membrane 458F, 479–483,

485F, 487F, 505

cholera 547–549

cholesterol

as amphipathic 367, 368F

and membrane fluidity 372

receptor-mediated endocytosis

525–526

structure 75F

synthesis 108F

choline 55, 74F

chromatids 183F

chromatids, sister 183, 625, 626F,

627–629F, 631, 633–634, 635F,

657–658, 660, 661F

chromatin

compacting and extending 187,

189–192

defined 179, 184

epigenetic inheritance and 287

euchromatin 190

heterochromatin 184F, 189–191, 277,

291, 321–322F

regulating DNA accessibility 188

chromatin-remodeling complexes

188–189, 276–277, 279, 291

chromatography

affinity chromatography 159, 166F

column chromatography 141F, 166F

gel-filtration chromatography

166F

immunoaffinity chromatography

141F

ion-exchange chromatography 166F

protein isolation using 158–159,

166F, 563

chromosomal abnormalities 180, 352,

721, 722F, 728

chromosomal reassortment 653,

660–662, 675F

chromosomal translocations 180F, 722F

chromosomes

behavior and Mendel’s laws 669–671

condensation 183–184

discovery 174

DNA packaging in 186–187

homologous and sex chromosomes

179, 184F, 304F, 345F, 652, 655–659,

661F, 671F, 679

human genome 321–323

interphase chromosomes 181–184,

185F, 187, 189–192, 277

meiotic chromosome numbers

654–656, 661

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