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Transcription:

A ACT. See Adoptive cellular therapy Activation-induced cytidine deaminase (AID), 38, 48, 56 57, 214, 218 Acute myeloid leukemia (AML), 392 ADCC. See Antibody-dependent cell-mediated cytotoxicity ADCP. See Antibody-dependent cellular phagocytosis ADE. See Antibody-dependent enhancement Adoptive cellular therapy (ACT), 122 Affinity maturation antibody affinity reversion/antibody redemption, 56 57 antibody feedback affinity maturation effects, 31 32 B-cell receptor antigen interactions, 30 31 Epitope-spreading role, 32 34 antigenic seniority, 41 diminishing returns, 38 40 founder effect as limitation, 40 41 human immunodeficiency virus response. See Human immunodeficiency virus immunoglobulin gene mutability, 41 42 overview, 30, 38, 54 pertussis booster vaccination, 342 343 somatic hypermutation in germinal center B cells, 54 55 vaccine driven V(D)J hypermutation and selection, 55 56 AID. See Activation-induced cytidine deaminase AML. See Acute myeloid leukemia Animal models. See also specific animals biomarker development, 294 coinfection effect on immune response, 293 294 controlled variability, 294 discrepancies with human infection improvements, 292 293 natural infection nonexistence, 291 overview, 290 pathophysiology differences, 291 292 preconditioning effect on immune response, 293 294 proof-of-concept studies, 260 selection of model, 292 vaccine effectiveness evaluation anthrax, 261 262 ebola vaccine studies bridging animal protection data to humans, 263 264 overview, 262 pathogen considerations, 262 263 surrogate markers, 263 human immunodeficiency virus studies in nonhuman primates immune response measurement, 265 overview, 264 265 SHIV challenge models, 265 266 SIV challenge models, 265 vaccine design, 265 human papillomavirus, 261 overview of challenge models, 260 261 Animal Rule, 261, 267 Anthrax, vaccine studies in animals, 261 262 Antibody affinity maturation. See Affinity maturation Antibody-dependent cell-mediated cytotoxicity (ADCC), 265 Antibody-dependent cellular phagocytosis (ADCP), 265 Antibody-dependent enhancement (ADE), 76, 87, 92, 104, 110 AP-1, 2 APRIL, 233 ATAC-seq, 5 B Bacille Calmette Guérin (BCG), 227 B-cell affinity maturation. See Affinity maturation BCG. See Bacille Calmette Guérin Bcl6, 19, 24 C Cancer vaccine historical perspective, 128 neoantigens cancer vaccine development, 115 checkpoint inhibitor therapy combination, 132 delivery, 125 ideal properties of vaccine, 129 130 overview, 114 prophylactic cancer vaccines, 117 118 rationale for vaccines, 128 129 selection for vaccine, 117, 123 124 413

Cancer vaccine (Continued) T-cell response to vaccines magnitude, 129 130 quality, 130 131 specificity, 131 132 patient selection, 124 125 tumor peptides, mutated versus nonmutated, 115 116 Candida albicans, T-cell response, 10 11, 13 CAR T cell. See Chimeric antigen receptor T cell CCR5, 233, 280 281 CCR6, 23, 184 CD27, 219 CD4 T cell cell fate determination, 2 3 fixation, 2 3 human studies, 12 13 lineage tracing, 5 cytokines, 10 Dengvaxia response, 84 follicular helper T cell, 200, 202 203 gut microbiota cross talk, 180, 191 heterogeneity, 10 12 pertussis immune response infection, 332 vaccination acellular boosting, 344 345 primary vaccination, 344 345 plasticity definition, 18 human studies, 12 13 intraclonal diversification, 13 15 phenotype heterogeneity and stability during resting memory, 22 23 recall and plasticity during, 23 24 regulation, 3 5 single-cell studies, 5 stability during primary response, 18 19 transition from effector to memory cell, 19 22 subtypes, 18 CD8 T cell activating receptors, 409 cytokine stimulation, 408 409 functional overview, 298 memory cell protection against reinfection, 298, 410 subsets, 314 315 vaccine delivery, 300 human immunodeficiency virus vaccine cytomegalovirus-vectored vaccine, 306 309 prospects, 308 309 rationale, 304 vaccination studies, 304 306 manufacturing, 300 prospects, 300 301 rationale, 298 299 safety, 299 Salmonella typhi vaccines, 315 316 CD40L, 237 CD73, 210 211 CD80, 210 211, 219 CD95, 390 CDR3, 40 Chimeric antigen receptor (CAR) T cell, 131 Chronic lymphocytic leukemia (CLL), 115 CLL. See Chronic lymphocytic leukemia Clostridium difficile, 181 182, 190 CMV. See Cytomegalovirus c-myc, 3 CRISPR-Cas9, 5, 255 CTLA-4, 122, 386 CXCL13, 18 CXCR3, 18, 20, 24, 184 CXCR5, 18 20, 22 24 CXCR6, 384 385 Cytomegalovirus (CMV), 246, 292 immunogen design, 372 natural killer cell memory, 381 383, 390 391, 393, 399 400 vector for human immunodeficiency virus CD8 T-cell vaccine, 306 309 D Dengue virus antibody response primary infection, 71 72 secondary infection, 72 73, 75, 95 conformational quaternary epitopes, 107 109 epidemiology, 62, 70 fusion loop epitope, 107 immune response overview, 62 63, 71, 82 83 prm cleavage, 106 107 secondary infection, 62, 71, 104 serotype heterogeneity, 70 71 vaccines challenges, 106 Dengvaxia, 64 65, 74, 82, 84 85, 92 97, 104 106 enhanced disease after vaccination, 85 87, 92 97 historical perspective, 104 immune response, 82, 84 live attenuated vaccine, 64, 70, 73 74 naïve individual vaccination, 74, 76 National Institutes of Health LATV enhancement, 98 414

primed individual vaccination, 76 prospects, 77 safety, 64, 76 77, 105 106 serotypes, 64 65, 85, 94, 96 TDV, 97 98 virus breathing, 70 71, 107 zika infection interactions, 108, 110 E Ebola, vaccine studies in animals bridging animal protection data to humans, 263 264 overview, 262 pathogen considerations, 262 263 surrogate markers, 263 Enterotoxigenic Escherichia coli, 315 ERB-B2, 131 132 adaptive immunity against pathogens, 182 184 adjuvant applications, 175 immune system and infection response influence, 172, 180 182, 192 overview, 172, 180 points test for different microbial taxa, 190 193 political modeling agitation across federal borders, 190 193 federalism versus sovereignty, 188 189 immigration control, 189 190 sampling, 188 189 systems vaccinology studies, 245 vaccine efficacy impact dysregulation in failure, 174 175 microbiotal stratification to predict efficacy, 173 174 prospects for study, 176 F FDC. See Follicular dendritic cell Fecal microbiome transfer (FMT), 181 FMT. See Fecal microbiome transfer Follicular dendritic cell (FDC), 31, 48, 255 Follicular helper T cell, 200, 202 203 Foxp3, 24 G GATA3, 24 GC. See Germinal center GCN2, 233, 245 Germinal center (GC). See also Affinity maturation antigen-specific B-cell memory, 198 follicular helper T cell, 200, 202 203 memory B cell antibody suppression of cell fate, 211 formation, 208 209 functions, 209, 210 prospects for study, 211 212, 218 219 secondary germinal center formation history of study, 214 human studies, 217 218 mouse studies, 214 217 pathogen studies, 217 somatic hypermutation, 218 memory-response germinal cell reaction, 198 199 single-cell level programs, 199 201 vaccine significance, 203 GN2, 245 gp100, 128 gp120, 282, 362 Guillain Barré syndrome, 142 Gut microbiota H HA. See Hemagglutinin HBV. See Hepatitis B virus HCV. See Hepatitis C virus Hemagglutinin (HA), 48, 138 139, 146 147, 151, 156 160, 164 169, 292 Hepatitis B virus (HBV), 130, 244 Hepatitis C virus (HCV), 130 HIV. See Human immunodeficiency virus HPV. See Human papillomavirus htert, 115 Human immunodeficiency virus (HIV) antigenic variation and somatic hypermutation, 47 48 CD8 T-cell vaccine cytomegalovirus-vectored vaccine, 306 309 prospects, 308 309 rationale, 304 vaccination studies, 304 306 epitope loss, 131 immune perturbations, 56 immunogen design, 362 364, 372 374 natural killer cell memory, 382 383 somatic hypermutation and broadly neutralizing antibody development, 46, 56, 183 vaccination history, 222 nonhuman primate studies immune response measurement, 265 overview, 264 265 SHIV challenge models, 265 266 SIV challenge models, 265 vaccine design, 265 somatic hypermutation load, 48 51 Human papillomavirus (HPV), 261 415

I IFN-a. See Interferon a IFN-g. See Interferon g IL-1. See Interleukin 1 IL-2. See Interleukin 2 IL-4. See Interleukin 4 IL-5. See Interleukin 5 IL-6. See Interleukin 6 IL-7. See Interleukin 7 IL-8. See Interleukin 8 IL-9. See Interleukin 9 IL-10. See Interleukin 10 IL-12. See Interleukin 12 IL-13. See Interleukin 13 IL-15. See Interleukin 15 IL-17. See Interleukin 17 IL-18. See Interleukin 18 IL-21. See Interleukin 21 IL-22. See Interleukin 22 ILC. See Innate lymphoid cell Immunogen design cytomegalovirus, 372 design immunization strategy, 373 374 shape selection, 371 373 human immunodeficiency virus, 362 364, 372 374 influenza virus, 361 362 overview, 370 371 prospects, 364 366 respiratory syncytial virus, 360 361, 372 Immunological memory, overview, 398 399 Influenza virus epidemiology, 138 hemagglutinin stem antibody response, 156 158, 164 epitope vaccine design from antibodies of vaccinated individuals, 158 monoclonal antibody therapy clinical trials, 165 166 enhanced disease risks, 167 168 immunogenicity in natural infection, 166 167 prospects, 168 169 multidonor class antibody induction by universal vaccine, 158 160 neutralization mechanisms, 164 165 next-generation universal vaccine design, 160 immunodominance antigenic drift driving, 148 149 outflanking strategies, 149 150 overview of virus humoral immunity, 147 148 immunogen design, 361 362 memory B-cell studies in mice, 217 memory natural killer cells, 382 383 neutralizing antibodies, 146 original antigenic sin, 146 147, 150 strains, 156, 164 systems vaccinology studies, 224 227 vaccination challenges, 146, 150 151 conserved antigens as targets, 138 139 gut microbiota and efficacy, 174 universal vaccine development costs, 142 143 factors to consider, 140 143 prospects, 151 rationale, 139 140 safety, 142 Innate lymphoid cell (ILC) immune memory role, 394 395 origins, 390 391 prospects for study, 395 vaccination role, 394 395 Interferon a (IFN-a), 390 Interferon g (IFN-g), 10 12, 18, 82, 182, 315 316, 390 391, 406, 408 Interleukin 1 (IL-1), 10 Interleukin 2 (IL-2), 391 Interleukin 4 (IL-4), 10, 12, 18, 20, 237 Interleukin 5 (IL-5), 10, 18, 22, 394 Interleukin 6 (IL-6), 82, 233 Interleukin 7 (IL-7), 174 Interleukin 8 (IL-8), 82 Interleukin 9 (IL-9), 11 Interleukin 10 (IL-10), 18 Interleukin 12 (IL-12), 12 13, 379, 391 394, 408 Interleukin 13 (IL-13), 18, 22, 394 Interleukin 15 (IL-15), 174, 379, 391 394 Interleukin 17 (IL-17), 10, 22, 394 Interleukin 18 (IL-18), 379, 390 394 Interleukin 21 (IL-21), 18, 237 Interleukin 22 (IL-22), 10, 394 IRF4, 2 IRF7, 232 J JUNB, 2 K KLF2, 381 Klf4, 3 KLRC2, 400 L LCMV. See Lymphocytic choriomeningitis virus Listeria monocytogenes, 276 Lymphocytic choriomeningitis virus (LCMV), 19, 129, 131, 408 416

M Malaria, memory B-cell studies in mice, 217 Marburg virus, 262 263 MART-1, 132 Memory. See Immunological memory; specific cells Memory B cell. See Germinal center Meningitis B vaccine, 371 Microbiota. See Gut microbiota MMRN. See Multiscale multifactorial response network Mouse models dirty versus clean mouse studies, 275 276 human immune system comparison, 272 273 memory B-cell studies, 214 217 previous microbial exposure impact on immune response, 273 274 specific pathogen-free mice, 275 276 mtor, 245 MUC1, 115, 117 Multiscale multifactorial response network (MMRN), 237 N NA. See Neuraminidase Narcolepsy, 142 Natural killer (NK) cell activation states and cell maintenance, 409 cytokine stimulation, 408 409 functional overview, 378 memory antigen-nonspecific memory-like natural killer cells, 379, 381 382 antigen-specific memory of highly diverse antigens, 382 383 bystander responses, 401 cancer targeting, 401 cytomegalovirus, 381 382, 390 391, 393, 399 400 experimental evidence, 380 381 forms of memory, 390 392 human immunodeficiency virus, 382 383 immunological memory, 378 379, 399 400 prospects for study, 384 386, 395, 409 411 subset expansion and functional memory, 407 408 vaccination role, 392 394, 400 vaccine utilization, 383 384 origins, 390 391 receptors in activation, 406 407 subsets, 378, 407 408 Neoantigen. See Cancer vaccine Neuraminidase (NA), 138 139, 146, 151, 164 NF-kB. See Nuclear factor kb NK cell. See Natural killer cell NKG2C, 378, 390 391, 400, 407 NLRP3, 382 Nuclear factor kb (NF-kB), 2 O Oct4, 3 Original antigenic sin, 40 41, 146 147, 150, 353 P p53, 117 PAP. See Prostatic acid phosphatase Parkinson s disease (PD), 124 PD. See Parkinson s disease PD-1, 386 PD-L2, 210 211, 219 Pertussis Bordetella pertussis evolution, 332 333 protection by natural infection, 324 325 vaccines acellular versus whole vaccine, 327, 342 animal models, 329, 332 antigen composition of acellular vaccine, 342 booster vaccination and affinity maturation, 342 343 herd immunity, 332 historical perspective, 325 IgG4 response, 343 344 immune memory skewing by primary and booster vaccination, 345 346 immune responses, 327 331, 342 344 immunoglobulin class switching, 343 344 improvement of acellular vaccine, 333 335 overview, 324 priming failure by acellular vaccines original antigenic sin, 353 overview, 350 353 postexposure immune memory reactivation failure, 353 354 prospects, 354 355 T-cell responses acellular boosting, 344 345 primary vaccination, 344 345 waning immunity, 325 327 Plaque-reduction neutralization test (PRNT), 84, 87 Polio vaccine, gut microbiota and efficacy, 174 PRNT. See Plaque-reduction neutralization test Proof-of-concept studies, 260 Prostatic acid phosphatase (PAP), 128 R RAG, 378, 392, 399 Rel, 2 417

Relb, 2 Respiratory syncytial virus (RSV), immunogen design, 360 361, 372 RSV. See Respiratory syncytial virus S Salmonella typhi, CD8 T-cell vaccine, 315 316 SHIV. See Human immunodeficiency virus; Simian immunodeficiency virus SHM. See Somatic hypermutation Simian immunodeficiency virus (SIV) CD8 T-cell vaccine, 304 305, 307 308 human immunodeficiency virus studies in nonhuman primates SHIV challenge models, 265 266 SIV challenge models, 265 humoral immunity, 32 natural killer cell memory, 400 rhesus macaque challenge studies, 280 286 T-cell response, 19 SIV. See Simian immunodeficiency virus SLE. See Systemic lupus erythematosus Somatic hypermutation (SHM), 46 51, 54 56, 183, 214, 216, 218 Sox2, 3 Specific pathogen-free (SPF) mice, 275 276 SPF mice. See Specific pathogen-free mice SREBP-1, 237 STAT1, 232 STAT4, 408 Systemic lupus erythematosus (SLE), 56 Systems vaccinology adjuvant profiling in animals, 242 243 age effects, 243 244 cell phenotyping, 226 challenges, 255 256 chronic infection studies, 246 correlates of infection, 246 247 cytokine studies, 222, 225 226 examples, 227 functional assays, 226 gut microbiota effect studies, 245 history of human studies, 243 244 immune response predictors identification, 234, 236 237 robustness, 237 238 influenza studies, 224 227 lymphocyte repertoire analysis, 226 metabolomics, 245 misunderstandings, 252 255 overview, 222 223, 232, 242, 252 253 prospects, 227 228, 238 techniques, 222 226 transcriptomics, 222, 237 vaccine efficacy signatures, 232 234 T T helper cell. See CD4 T cell TLR4, 243 TLR5, 233, 245 TLR9, 243 TNF-a. See Tumor necrosis factor a Tuberculosis, T-cell response, 11 Tumor necrosis factor a (TNF-a), 82, 316 V Vesicular stomatitis virus (VSV), natural killer cell memory, 382 383, 392 VSV. See Vesicular stomatitis virus Z Zika virus dengue infection interactions, 108, 110 nonhuman primate challenge studies, 285 418