コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 threat variola virus (the causative agent of smallpox).
2 us and Variola virus (the causative agent of smallpox).
3 where it causes disease in humans resembling smallpox.
4 mic, febrile-rash illness closely resembling smallpox.
5 have efficacy in protecting individuals from smallpox.
6 ted to variola virus, the causative agent of smallpox.
7 irus that was used as a vaccine to eradicate smallpox.
8 with the goal to identify safer vaccines for smallpox.
9 related to variola, the etiological agent of smallpox.
10 e infections can occur after vaccination for smallpox.
11 closely related to variola virus that causes smallpox.
12 although usually less severe, than those of smallpox.
13 nesis and to develop a safer vaccine against smallpox.
14 luding variola virus, the causative agent of smallpox.
15 anticipated to be equally effective against smallpox.
16 luding variola virus, the causative agent of smallpox.
17 otection against variola virus, the agent of smallpox.
18 isting or new generation VV vaccines against smallpox.
19 irus, a close relative of the virus of human smallpox.
20 exhibit improved protective efficacy against smallpox.
21 ctive component of a subunit vaccine against smallpox.
22 lates many of the clinical features of human smallpox.
23 A, varicella, Streptococcus pneumoniae, and smallpox.
24 on has been highly successful in eradicating smallpox.
25 n the immunoprophylaxis and immunotherapy of smallpox.
26 approach that may enhance protection against smallpox.
27 rting its use as a surrogate model for human smallpox.
28 thal mousepox, the mouse equivalent of human smallpox.
29 ents a potential surrogate disease model for smallpox.
30 e men had never received vaccination against smallpox.
31 ice infected with vaccinia virus, a model of smallpox.
32 cancer since its use for the eradication of smallpox.
33 Orthopoxvirus with a presentation similar to smallpox.
34 ion of variola virus, the etiologic agent of smallpox.
35 first human pathogen to be eradicated since smallpox.
36 y responses elicited by immunization against smallpox.
37 opoxvirus related to the virus causing human smallpox.
38 played a crucial role in the eradication of smallpox.
39 measles (11.7 days), varicella (14.0 days), smallpox (17.7 days), mumps (18.0 days), rubella (18.3 d
40 and safer vaccine to protect people against smallpox, a monkeypox model of infection in cynomolgus m
41 inia virus (VV) is used as a vaccine against smallpox and a vector for eliciting strong T cell respon
42 cine strain that is efficacious against both smallpox and anthrax due to the integration of immune-en
44 ugh licensed vaccines are available for both smallpox and anthrax, because of inadequacies associated
46 The detection algorithm performed better for smallpox and botulism than for anthrax and tularemia.
48 y CD8(+) CTL responses in host resistance to smallpox and for the design of vaccines that produce eff
49 inical development as a safe vaccine against smallpox and heterologous infectious diseases, its immun
50 ch constitutes the vaccine used to eradicate smallpox and is a candidate vector for other infectious
51 In humans, MPXV causes a disease similar to smallpox and is considered to be an emerging infectious
52 ion of specific and long-lasting immunity to smallpox and is superior to other routes of immunization
53 induced complications of vaccination against smallpox and may also be effective in the immunoprophyla
54 induced complications of vaccination against smallpox and may also be effective in the immunoprophyla
55 over 30 years ago; orthopox viruses such as smallpox and monkeypox remain serious public health thre
56 m may exist during human infections with the smallpox and monkeypox viruses, which are highly homolog
59 l previously controlled infections including smallpox and polio and that simple, effective treatment
60 cacy of these vaccines in protection against smallpox and serves as a benchmark against which other v
61 hogen than the agent of smallpox, but absent smallpox and the population-wide immunity engendered dur
62 bioterrorism and the intentional release of smallpox and through natural outbreaks of emerging infec
65 roduced by Jenner generated immunity against smallpox and ultimately led to the eradication of the di
67 athogenic orthopoxvirus infection of humans (smallpox) and mice (mousepox [ectromelia virus {ECTV}])
68 ariola major virus, the etiological agent of smallpox, and Bacillus anthracis, the bacterial pathogen
69 and include variola, the causative agent of smallpox, and monkeypox, an emerging virus of great conc
71 nt for the development of safer vaccines for smallpox- and poxvirus-vectored recombinant vaccines.
73 e of variola virus, the etiological agent of smallpox, as a bioterror agent has heightened the intere
75 nes but also as an immunization tool against smallpox because of its potential use as a bioterrorism
76 many infectious diseases such as measles and smallpox because of the ability of vaccination campaigns
77 s efficient human pathogen than the agent of smallpox, but absent smallpox and the population-wide im
78 ization provides lifelong protection against smallpox, but the mechanisms of this exquisite protectio
79 or public immunization against the spread of smallpox by bioterror, there is serious concern about Dr
84 to develop new therapeutics and vaccines for smallpox continue through their evaluation in animal mod
85 d both alastrim minor, a phenotypically mild smallpox described from the American continents, and iso
89 The success of the World Health Organization smallpox eradication program three decades ago resulted
90 scuss the role of surveillance in the global smallpox eradication program, emphasizing that the estab
92 dard" for infectious disease eradiation, the Smallpox Eradication Programme, utilized mass immunizati
93 ock-like structure and that the timescale of smallpox evolution is more recent than often supposed, w
94 rts, although it is difficult to distinguish smallpox from other pustular rashes by description alone
95 80, the World Health Assembly announced that smallpox had been successfully eradicated as a disease o
96 First-generation vaccines used to eradicate smallpox had rates of adverse effects that are not accep
99 variola virus (VARV), the etiologic agent of smallpox, has been reported in human populations for >2,
107 that protect from subsequent infections with smallpox in humans or the related ectromelia virus (ECTV
108 tion in cynomolgus macaques, which simulates smallpox in humans, was used to evaluate two vaccines, A
110 ell as variola virus (the causative agent of smallpox) in vitro and to more effectively protect mice
111 ound that the duration of immunity following smallpox infection was remarkably similar to that observ
112 up to 30% mortality, but those who survived smallpox infection were regarded as immune for life.
113 nd the levels and duration of immunity after smallpox infection, we performed a case-control study co
115 one (IBT), a compound that was used to treat smallpox infections, induced AVGs, suggesting a role for
116 ogs of the human complement regulators named smallpox inhibitor of complement enzymes (SPICE) and vac
117 oals were to characterize the ability of the smallpox inhibitor of complement enzymes, SPICE, to regu
120 inically and immunologically most similar to smallpox is monkeypox, a zoonosis endemic to moist fores
121 y of poxviruses, variola virus (which causes smallpox) is the most pathogenic, while monkeypox virus
123 spite its documented efficacy in eradicating smallpox, is not optimal for the vaccination of contempo
126 B from variola virus, the causative agent of smallpox, is the most potent TNFR of those tested here i
127 Rapid progress is likewise being made in smallpox laboratory diagnostics, smallpox vaccines, and
128 rus, the mouse homolog of the human virus of smallpox, large numbers of CD4(+) T cells in the drainin
133 variola virus, the orthopoxvirus that causes smallpox, one-third of infected people succumbed to the
134 eliberate release of infectious agents, such smallpox or a related virus, monkeypox, would have catas
136 ndividuals with uncertain exposure status to smallpox or for whom vaccination is contraindicated.
137 atory Orthopoxvirus infection, such as human smallpox or monkeypox, remain to be fully identified.
138 le utility for imatinib mesylate in treating smallpox or MPX infections or complications associated w
139 that ST-246 may be effective in controlling smallpox or other pathogenic orthopoxviruses in some imm
140 ed by severe epidemic events such as plague, smallpox, or influenza that shaped the immune system of
148 e development of new antiviral compounds for smallpox prophylaxis and treatment is critical, especial
150 The development of a subunit vaccine for smallpox represents a potential strategy to avoid the sa
151 onses and neutralizing antibody levels of 24 smallpox survivors with the antiviral immunity observed
153 In response to possible bioterrorism with smallpox, the UK government vaccinated approximately 300
154 made to prepare for a deliberate release of smallpox, the United States had approximately 15 million
156 ite concerns regarding the reintroduction of smallpox, there is little enthusiasm for large-scale red
161 s with the antiviral immunity observed in 60 smallpox-vaccinated (i.e., vaccinia virus-immune) contro
162 ntified VACV determinants were recognized by smallpox-vaccinated human peripheral blood cells in a va
163 Prevention estimated rate of death owing to smallpox vaccination (1 in 1,000,000), and many failed t
164 myo/pericarditis was observed during the US smallpox vaccination (DryVax) campaign initiated in 2002
165 V) related to MPXV) and cessation of routine smallpox vaccination (with the live OPXV vaccinia), ther
167 ency, attributed in part to the cessation of smallpox vaccination and concomitant waning of populatio
168 hat the levels of immunity induced following smallpox vaccination are comparable in magnitude to that
169 als with atopic dermatitis are excluded from smallpox vaccination because of their propensity to deve
172 terrorism, dermatologist knowledge regarding smallpox vaccination has not been extensively examined.
173 zed that individuals who develop fever after smallpox vaccination have genetically determined differe
174 factor (IRF1) were associated with AEs after smallpox vaccination in 2 independent study samples.
176 prompts the question of whether cessation of smallpox vaccination is driving the phenomenon, and if s
177 is increasing due to the absence of routine smallpox vaccination leading to a higher proportion of n
178 Eczema vaccinatum (EV) is a complication of smallpox vaccination occurring in patients with atopic d
179 ression changes in 197 recipients of primary smallpox vaccination representing the extremes of humora
180 Eczema vaccinatum (EV) is a complication of smallpox vaccination that can occur in persons with ecze
184 ccinia virus (VV) infection, mimicking human smallpox vaccination, greatly increased expression of th
186 as remarkably similar to that observed after smallpox vaccination, with antiviral T-cell responses th
201 als (n = 1071) who received a single dose of smallpox vaccine (Dryvax, Wyeth Laboratories) and examin
203 f the human anti-B5 antibody response to the smallpox vaccine (vaccinia virus) are heavily dependent
204 vax vaccine or 1 of 2 lots of Sanofi Pasteur smallpox vaccine and were evaluated for vaccination succ
205 conclude that the protection afforded by the smallpox vaccine anti-EV response is predominantly media
206 , and IL-6 immune responses after receipt of smallpox vaccine are genetically controlled by HLA genes
208 Preclinical studies to date with subunit smallpox vaccine candidates, however, have been limited
211 heightened the need to develop an effective smallpox vaccine for immunization of the general public.
212 several nations are developing stockpiles of smallpox vaccine for use in the event the disease is rei
214 cells underwent 3-week-long expansion after smallpox vaccine immunization and displayed simple reexp
216 es regulating the humoral immune response to smallpox vaccine in both Caucasians and African American
219 Studying the immune protection mechanism of smallpox vaccine is important for understanding the basi
222 onses upon vaccination, since its use as the smallpox vaccine led to the eradication of one of the wo
223 in IOC (VACV-IOC) was the seed strain of the smallpox vaccine manufactured by the major vaccine produ
224 enuated cell culture-adapted Lister vaccinia smallpox vaccine missing the B5R protein and licensed fo
225 etween HLA alleles and 15 immune outcomes to smallpox vaccine on a per-locus and a per-allele level.
228 ntially lethal complication that develops in smallpox vaccine recipients with severely impaired cellu
231 rization of two clones of VACV-IOC, a unique smallpox vaccine strain that contributed to smallpox era
232 ne (Wyeth/IL-15/PA) using the licensed Wyeth smallpox vaccine strain that is efficacious against both
235 rsistent infections, influenza virus and the smallpox vaccine virus (vaccinia virus), were studied.
236 dual MHC-II-restricted vaccinia virus (VACV, smallpox vaccine) epitopes revealed that CD4(+) T cell h
242 MVA is a promising candidate as a safer smallpox vaccine, even for immunocompromised individuals
243 n of Wyeth Dryvax vaccine and Sanofi Pasteur smallpox vaccine, given that the resulting morbidity sho
244 cinia virus (VACV), the virus comprising the smallpox vaccine, induces memory CD8(+) T cells that pro
245 t 1 and 3-5 weeks after vaccination with the smallpox vaccine, serial measurements have not been perf
246 virus strains, including the current clonal smallpox vaccine, that the ability of a strain to spread
247 antibody responses that are elicited by the smallpox vaccine, which has enabled the first eradicatio
248 ding of the central protective activities of smallpox vaccine-elicited antibodies in immunized humans
251 Our results demonstrate that variations in smallpox vaccine-induced cytokine responses are modulate
252 similarities of antigenic protein targets of smallpox vaccine-induced responses in humans and prairie
264 study, we tested current and investigational smallpox vaccines for safety, induction of anti-OPXV ant
265 omised individuals, a group for whom current smallpox vaccines have an unacceptable safety profile.
267 model for the safety and efficacy testing of smallpox vaccines in pre- and postexposure vaccine testi
269 Therefore, the search for new-generation smallpox vaccines that combine low pathogenicity, immune
272 esponding to the live yellow fever virus and smallpox vaccines--two highly successful human vaccines.
277 les of the poxviral complement inhibitors of smallpox, vaccinia, and monkeypox known as SPICE, VCP (o
279 oxviruses (OPVs), which include the agent of smallpox (variola virus), the zoonotic monkeypox virus,
281 Orthopoxviruses (OPVs), such as the human smallpox virus and the mouse-equivalent ectromelia virus
283 tures of human RCA (MCP, DAF, and CR1) and a smallpox virus homolog (SPICE) bound to complement compo
286 Recently we determined structures of the smallpox virus topoisomerase bound to DNA in covalent an
287 Here we present crystal structures of the smallpox virus topoisomerase enzyme bound both covalentl
294 zing antibodies induced after infection, but smallpox was eradicated before contemporary methods for
296 onse in people previously vaccinated against smallpox was evaluated by the inclusion of vaccinia-expe
297 without affecting cell viability.IMPORTANCE Smallpox was one of the most devastating diseases in hum
298 strains, the more clinically severe form of smallpox, which spread from Asia either 400 or 1,600 YBP
299 of hepatitis C, avian influenza (H5N1), and smallpox without making changes to the underlying assay.
300 xvirus and was the vaccine used to eradicate smallpox, yet the expression profiles of many of its gen
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。