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1 ockade, adoptive cellular therapy and cancer vaccinology.
2 ay address current limitations of diagnostic vaccinology.
3 ry is a fundamental tenet of structure-based vaccinology.
4 utting into perspective the future of cancer vaccinology.
5 The COVID-19 pandemic has transformed vaccinology.
6 a revolutionary advancement in the field of vaccinology.
7 value of the macaque model for translational vaccinology.
8 fusion and are relevant to structure-guided vaccinology.
9 immunity remains a critical knowledge gap in vaccinology.
10 , thereby defining a type of rational cancer vaccinology.
11 erstanding this bacterium's epidemiology and vaccinology.
12 the potential application of such viruses in vaccinology.
13 andidate prediction program based on reverse vaccinology.
14 tworks to influenza pathogenesis and systems vaccinology.
15 ased vaccine design program based on reverse vaccinology.
16 vaccinomics, literature mining, and systems vaccinology.
17 ccinology, and case studies in computational vaccinology.
18 n a variety of settings from biocatalysis to vaccinology.
19 ibody responses remains a major challenge in vaccinology.
20 gs and highlight their importance to malaria vaccinology.
21 may have keen importance is in the field of vaccinology.
22 te an effective chemistry-driven approach to vaccinology.
23 gned to facilitate research in computational vaccinology.
24 ectious diseases are now within the realm of vaccinology.
25 on is a principal objective of computational vaccinology.
26 rted goal to develop practical computational vaccinology.
27 provide insight into the future direction of vaccinology.
28 and improving of adjuvants critical goals in vaccinology.
29 echnologies and platforms that may transform vaccinology.
30 ive vaccines through structure-based reverse vaccinology.
31 ful tool to complement and advance precision vaccinology.
37 This represents an advance in schistosome vaccinology and allows for the development of a therapeu
38 r challenges for the future of computational vaccinology and identifies developing themes that will e
42 ve significant implications for YFV biology, vaccinology and structure-based flavivirus antigen desig
43 ve analyzes the way COVID-19 is transforming vaccinology and the opportunities for vaccines to have a
45 hase 1 trial done at the Centre for Clinical Vaccinology and Tropical Medicine, University of Oxford,
46 inding regions, vaccine design using reverse vaccinology, and case studies in computational vaccinolo
47 Here we show, using a systematic genome-led vaccinology approach and a mouse model of Trypanosoma vi
50 nia vaccine, we engineered through a reverse vaccinology approach that maximizes translation to human
55 this Perspective, we highlight a 'One Health vaccinology' approach and discuss some key areas of syne
56 ive neutralizing antibodies using structural vaccinology approaches could enhance intrinsic cross-imm
57 highlights the need to incorporate precision vaccinology approaches for the development of safe and e
62 knowledge about innate immunity and systems vaccinology are revitalizing the science and development
63 riving immune response to vaccines ('systems vaccinology') are revealing mechanistic insights and pro
64 on article we propose paratransgenic quantum vaccinology as a new approach that integrates platform t
65 attracted immense interest and high hopes in vaccinology, as evidence of high immunogenicity and prot
66 onducted a comprehensive preclinical reverse vaccinology-based vaccine program that has included the
67 ics, epidemiology, immunology, therapeutics, vaccinology/clinical trials research, vector biology, an
68 nic antigens (identified with use of reverse vaccinology) combined with bacterial outer-membrane vesi
74 on after vaccination is an important part of vaccinology for both theoretical and practical reasons.
76 a general and practical approach of analytic vaccinology for the development of subunit vaccines agai
79 From our perspective, the challenges in tick vaccinology have encouraged the implementation of new in
84 he first fully successful example of reverse vaccinology in the HIV vaccine field with rationally des
88 om the field of human immunodeficiency virus vaccinology involves a novel in silico mosaic approach t
95 at this type of chemistry-driven approach to vaccinology is underexplored and may provide routes to v
96 ive immunization, which is the foundation of vaccinology, is an anticipatory strategy with inherent l
97 he scientific organizers of the Transforming Vaccinology Keystone, which moved to a virtual format in
98 n advisory board of international experts in vaccinology, malariology and field trials provides the s
100 developing a vaccine, and modern structural vaccinology methods that could be used to create an effe
105 ntigen design and could transform the entire vaccinology pipeline, including immune responses and eme
106 structure-based multiepitope fusion antigen vaccinology platform, we constructed a polyvalent protei
107 er fields such as immunoinformatics, reverse vaccinology, postlicensure vaccine research, vaccinomics
113 tissue-derived antibody has implications for vaccinology, respiratory and CNS pathogen transmission,
114 , (ii) rational vaccine design using reverse vaccinology (RV) and structural vaccinology (SV) and (ii
117 itidis B, reporting the invention of Reverse Vaccinology (RV), which allows to identify vaccine candi
119 The COVID-19 pandemic placed the field of vaccinology squarely at the center of global consciousne
120 periphery of the trimer indicates potential vaccinology strategies to elicit broadly neutralizing an
125 sing reverse vaccinology (RV) and structural vaccinology (SV) and (iii) post-licensure vaccine succes
126 Technological revolutions such as reverse vaccinology, synthetic biology, and structure-based desi
127 lly in livestock, using present and emerging vaccinology technologies to discover that elusive liver
128 key areas of synergy in human and veterinary vaccinology that could be exploited to accelerate the de
131 is proof-of-concept study applies structural vaccinology to enhance intramolecular interactions for t
136 will be shaped by new discoveries in mucosal vaccinology, tumor immunology, immuno-therapeutic screen
137 dresses scientific and clinical questions in vaccinology using computational and informatics approach
138 nd SpAKKAA), which was identified by genetic vaccinology using sortase A mutants, raised antigen-spec
139 ous innovative approaches, including reverse vaccinology, virus like particles, and recombinant modif
142 The second ISV Pre-conference Computational Vaccinology Workshop (ICoVax 2012) was held on October 1
143 unite the estranged fields of immunology and vaccinology, yielding unexpected insights about mechanis