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1 ransmitted by ticks wherever Lyme disease is zoonotic.
3 Macacine herpesvirus or B Virus (BV) is a zoonotic agent that leads to high mortality rates in hum
8 Nature Medicine), the sequencing of proximal zoonotic ancestors to SARS-CoV-2 has aided in the identi
11 kettsiosis, ehrlichiosis, and babesiosis are zoonotic and have been cited as the most common TBDs.
12 l variants may pose the greatest threats for zoonotic and pandemic emergence.IMPORTANCE Avian influen
19 IAV pathogenesis and tropism.IMPORTANCE Many zoonotic avian influenza A viruses have successfully cro
20 ris should be added to the list of potential zoonotic bacteria following interactions with seals, as
21 -borne relapsing fever (TBRF) is a neglected zoonotic bacterial disease known to occur on 5 continent
23 eptococcus suis is one of the most important zoonotic bacterial pathogens of pigs, causing significan
25 from diphtheria, is caused by C. ulcerans, a zoonotic bacterium that can also produce diphtheria toxi
27 ruses, including several isolated from human zoonotic cases, showing a preference for human-like rece
29 vel means to recover previously uncultivable zoonotic coronavirus strains and argue that other tissue
30 The 2020 SARS-CoV-2 pandemic is caused by a zoonotic coronavirus transmitted to humans, similar to e
31 spite these similarities, COVID-19 and other zoonotic coronavirus-mediated diseases do not induce cli
37 a means to recover previously unrecoverable zoonotic CoV strains.IMPORTANCE Overall, our studies dem
39 respiratory syndrome (MERS)-CoV are epidemic zoonotic CoVs that emerged at the beginning of the 21st
41 y of ZIKV spillback from an urban cycle to a zoonotic cycle outside Africa, and we review hypotheses
43 llular Gram-negative bacteria that cause the zoonotic disease brucellosis, one of the most common glo
47 Human toxocariasis (HT) is a cosmopolitan zoonotic disease caused by the migration of the larval s
48 se change is predicted to act as a driver of zoonotic disease emergence through human exposure to nov
49 ars, the accelerating tempo of epizootic and zoonotic disease events has made it seem as if disease i
52 r and wildlife reservoir habitats determines zoonotic disease risks; however, few data are available
57 urnetii is the causative agent of Q fever, a zoonotic disease that threatens both human and animal he
58 s through axons.IMPORTANCE Rabies is a fatal zoonotic disease with a nearly 100% case fatality rate.
60 spite being one of the most important global zoonotic disease, data related to the ecology and pathog
64 ppropriate scales might prevent wildlife and zoonotic diseases from increasing in prevalence or becom
72 dlife conflict, and their role as vectors of zoonotic diseases; and two species, the grey-headed flyi
73 ccounting for reporting effort, we show that zoonotic EID risk is elevated in forested tropical regio
76 encephalitis virus (JEV) is a mosquito-borne zoonotic flavivirus that causes encephalitis and reprodu
78 th significance of genotype groups and major zoonotic genotypes, with the goal of improving our under
79 This study investigated the N9 NA from a zoonotic H7N9 virus strain in order to determine its pos
82 gion homologous to the fusion protein of the zoonotic Hendra virus reduced protein expression and fus
83 Nipah virus (NiV) and Hendra virus (HeV) are zoonotic henipaviruses (HNVs) responsible for outbreaks
86 strongest for rodent, bat and passerine bird zoonotic host species, which may be one factor that unde
87 s at risk of infection due to spillover from zoonotic hosts or vectors, identifying where index cases
88 h mitigation strategies to ultimately reduce zoonotic IAV transmission and risk of pandemic IAV emerg
89 ved understanding of evolutionary origins of zoonotic IAV, we can inform public health mitigation str
92 e test our "drifted" viruses to assess their zoonotic infection characteristics and transmissibility
96 aremia caused by Francisella tularensis is a zoonotic infection of the Northern Hemisphere that mainl
97 bles straightforward attribution of cases of zoonotic infection to putative sources of infection.
98 likely to be important in protection against zoonotic infection with FeLV.IMPORTANCE Domestic exposur
99 human-swine interfaces to reduce the risk of zoonotic infections and to inform pandemic planning.IMPO
100 deforestation may be particularly exposed to zoonotic infections because of the higher likelihood for
101 tions, the ability of these viruses to cause zoonotic infections further increases the public health
107 ologically appropriate serological tests for zoonotic infections, including that for F. tularensis.
109 on.IMPORTANCE Human monkeypox is an emerging zoonotic infectious disease caused by Monkeypox virus (M
113 nfluenza virus, in 1958, 16 different novel, zoonotic influenza A virus subtype groups in 29 countrie
116 need for continuous surveillance of emerging zoonotic influenza viruses inclusive of mammalian specie
120 In Malaysia, where both species are common, zoonotic knowlesi malaria has recently become dominant,
122 been associated with increasing incidence of zoonotic malaria caused by Plasmodium knowlesi; however,
123 ve decreased substantially, the incidence of zoonotic malaria from Plasmodium knowlesi continues to i
124 ionally identified 2 monoinfections with the zoonotic malaria Plasmodium cynomolgi, both in individua
125 tive to land cover to assess exposure to the zoonotic malaria Plasmodium knowlesi in Malaysian Borneo
127 The transmission routes and risk factors for zoonotic Middle East respiratory syndrome coronavirus (M
130 s OC43 and HKU1 are respiratory pathogens of zoonotic origin that have gained worldwide distribution.
135 ses are rodent-borne viruses causing serious zoonotic outbreaks worldwide for which no treatment is a
140 us (HeV) and Nipah virus (NiV) are bat-borne zoonotic para-myxoviruses identified in the mid- to late
142 Nipah virus (NiV) is a highly pathogenic zoonotic paramyxovirus that causes fatal encephalitis an
144 .IMPORTANCE Hendra virus and Nipah virus are zoonotic paramyxoviruses that cause lethal infections in
145 Nipah virus (NiV) and Hendra virus (HeV) are zoonotic paramyxoviruses that cause severe disease in bo
149 the presence of noncoding RNAs in the major zoonotic pathogen Campylobacter jejuni; however, few hav
152 iological agent of COVID-19, is considered a zoonotic pathogen mainly transmitted human to human.
153 r results supported the possibility that the zoonotic pathogen MERS-CoV, which also cocirculates in t
154 body termed mAb P-4G2, which neutralizes the zoonotic pathogen Puumala virus (PUUV), we provide a mol
155 disease-2019 (COVID-19) caused by the novel zoonotic pathogen severe acute respiratory syndrome coro
156 UK Equine Hospital, identifying an emerging zoonotic pathogen so far only sporadically recorded in t
160 roducing Escherchia coli (STEC) O157:H7 is a zoonotic pathogen that causes numerous food and waterbor
161 syndrome coronavirus (MERS-CoV) is a lethal zoonotic pathogen that was first identified in humans in
168 Escherichia coli and Staphylococcus spp.; a zoonotic pathogen: Campylobacter jejuni) and antimicrobi
169 t that vector-borne, generalist wildlife and zoonotic pathogens are the types of parasites most likel
170 crobiota, potentially increasing the risk of zoonotic pathogens being transmitted to humans, but the
172 the family Arenaviridae includes a number of zoonotic pathogens capable of causing fatal hemorrhagic
173 a (HeV) and Nipah (NiV) viruses are emerging zoonotic pathogens in the Henipavirus genus causing outb
175 uses (CoVs), several of which are related to zoonotic pathogens that cause severe disease in humans.
177 e capability to effectively monitor emerging zoonotic pathogens that constitute a major and evolving
178 However, microbial strain typing allows zoonotic pathogens to be categorised, and the relative f
179 s how genomic plasticity can allow important zoonotic pathogens to exploit altered niches in the face
180 Most efforts to predict novel reservoirs of zoonotic pathogens use information about host exposure a
182 ory syndrome (MERS) coronaviruses (CoVs) are zoonotic pathogens with high fatality rates and pandemic
183 virus encompass 2 highly pathogenic emerging zoonotic pathogens, Hendra virus (HeV) and Nipah virus (
184 e of DNA signatures of potentially dangerous zoonotic pathogens, including those from the genus Bacil
185 omma anatolicum, which is a known vector for zoonotic pathogens, such as Crimean Congo hemorrhagic fe
194 Tackling relapsing Plasmodium vivax and zoonotic Plasmodium knowlesi infections is critical to r
196 is a major emerging infectious disease with zoonotic potential and has reservoirs in dromedary camel
197 form of prion disease, and, importantly, the zoonotic potential and the risk that AS might represent
198 nd sialic acid is needed to anticipate their zoonotic potential and to generate effective vaccines an
199 gnify the emergence of viruses with enhanced zoonotic potential as well as improving understanding of
201 Europe, and highlight the need to assess the zoonotic potential of the new CWD strains detected in Eu
203 A virus haemagglutinin means the tropism and zoonotic potential of these viruses has not been fully d
206 investigated the working hypothesis that the zoonotic potential varies among S. equi subsp. zooepidem
207 s in mammals (including ~10,000 viruses with zoonotic potential), a reduction of two orders of magnit
208 ds are the natural reservoir of viruses with zoonotic potential, as well as contributing to the evolu
209 r viral traits are significant predictors of zoonotic potential, providing a novel framework to asses
210 ncerns about food safety, pathogenicity, and zoonotic potential, questions that are still unanswered.
211 cross the host species barrier and present a zoonotic potential, whereas other strains exhibit host s
220 mergence of influenza viruses with increased zoonotic potential.IMPORTANCE As of 2020, over 60 infect
221 ndance of two parasitic nematode genera with zoonotic potential: Anisakis spp. and Pseudoterranova sp
222 mal-adapting mutations that may increase its zoonotic potential; however, the wild-type and mutant vi
224 differences in the life history features of zoonotic reservoir hosts into pathogen transmission mode
228 Animal orders of established importance as zoonotic reservoirs including bats and rodents were unex
231 ized the genomics of vaccine-preventable and zoonotic respiratory viruses associated with clusters of
234 y, pathogen diversity, transmissibility, and zoonotic risk, and critical data gaps currently limit ou
239 the specter of potential future outbreaks of zoonotic SARS-CoV-like disease in humans, which largely
243 t groups, one overlapping with the classical zoonotic species of domestic livestock that exclusively
247 structure differs markedly between the main zoonotic subtype (isolation-by-distance) and the anthrop
249 age to poultry production systems and pose a zoonotic threat both in their own right and in the gener
250 at permit or prevent a virus from becoming a zoonotic threat is an ongoing area of investigation.
253 an antiviral MxA protein, a prerequisite for zoonotic transmission and stable introduction into human
254 a model for characterizing the potential for zoonotic transmission associated with swine IAV, we perf
255 from previous years, suggesting independent zoonotic transmission events and thus allaying concerns
256 S-CoV-2 receptor usage likely shifted during zoonotic transmission from bats into people, possibly in
259 during virus infection.IMPORTANCE Successful zoonotic transmission of influenza A virus into humans c
261 Our findings raise concerns about future zoonotic transmission of rubella-like viruses, but will
263 shedding in cattle after challenge and limit zoonotic transmission to humans, although the impact of
264 ribotype 078 raises questions about possible zoonotic transmission, and also the diversity of reservo
265 pically start from a single case of probable zoonotic transmission, followed by human-to-human transm
266 understanding potential natural reservoirs, zoonotic transmission, human-to-animal transmission, and
271 is particularly beneficial in the context of zoonotic transmissions, where pathogens must undergo ada
273 ystematic review and meta-analysis of global zoonotic tuberculosis showed that the same challenges an
279 Nipah Virus (NiV) is a highly fatal emerging zoonotic virus and a potential threat to global health s
281 many biological features with SARS-CoV, the zoonotic virus that caused the 2002 outbreak of severe a
282 Nipah virus (NiV) is an emerging bat-borne zoonotic virus that causes near-annual outbreaks of fata
283 ty.IMPORTANCE MERS-CoV is a recently emerged zoonotic virus that is still circulating in the human po
284 esented an example of invasion dynamics of a zoonotic virus where stochastic fadeout have played a ma
287 s required for the effective inactivation of zoonotic viruses belonging to the medically important fa
288 rol study for investigating the evolution of zoonotic viruses compared to single-host viruses, using
290 ssion is limited, there is a risk that these zoonotic viruses may acquire adaptive mutations enabling
292 he family Filoviridae, are highly pathogenic zoonotic viruses that cause severe disease in humans.
297 Bats serve as a reservoir for various, often zoonotic viruses, including significant human pathogens
298 nized as natural reservoir hosts of emerging zoonotic viruses, little is known about how they control