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1 ents an important transmission hub for viral zoonoses.
2 of concern, as well as to future coronavirus zoonoses.
3 linking urbanization to gene pool spread and zoonoses.
4 e the annualized damages from emerging viral zoonoses.
5 esis that bats harbor exceptionally virulent zoonoses.
6 g putatively undetected or so far unrealized zoonoses.
7 orm molecular surveillance to predict future zoonoses.
8 e brucellosis, one of the most common global zoonoses.
9 are responsible for the majority of emerging zoonoses.
10 identified by this review, the majority were zoonoses.
11 ntal gene transfer can help predict emerging zoonoses.
12 l switching events; 13 anthroponoses and two zoonoses.
13 st assessment of the risks posed by emerging zoonoses.
14 aintenance of livestock pathogens, including zoonoses.
15 erent members of one protein family to cause zoonoses.
16 nt illnesses with a documented potential for zoonoses.
17 rience increased vulnerability to tick-borne zoonoses.
18 oaches aimed at finding and predicting novel zoonoses.
19  enhanced biosurveillance of a vast array of zoonoses.
20 about antiviral mechanisms that suppress IAV zoonoses.
21 t on multiple fronts, especially as emerging zoonoses.
22 viral vectors for vaccines against bat-borne zoonoses.
23 well-suited to the study of livestock-origin zoonoses.
24 hip was between temperature and vector-borne zoonoses (56% of positive effects, mean Hedges' g = 0.36
25                  EID events are dominated by zoonoses (60.3% of EIDs): the majority of these (71.8%)
26      Several rodent-borne hantaviruses cause zoonoses accompanied by severe illness and death.
27 substantial implications for a wide range of zoonoses acquired at the wildlife-human interface for wh
28 the generality of alien species facilitating zoonoses across multiple host and parasite taxa worldwid
29 ings show that variation in the frequency of zoonoses among animal orders can be explained without in
30 ts in understanding the ecology of bacterial zoonoses and antimicrobial resistance.
31  reveal the potential clinical importance of zoonoses and arboviruses in febrile children in Tanzania
32 ly in tropical regions that contain the most zoonoses and are experiencing rapid warming.
33 Evidence from naturally occurring retroviral zoonoses and cross-species infections by animal retrovir
34 igate mechanisms of transspecies movement of zoonoses and has great potential to aid in rapid public
35 ue of lives lost each year to emerging viral zoonoses and have substantial cobenefits.
36             Retrospective studies of natural zoonoses and passaging in the lab have identified a mode
37                      We briefly review these zoonoses and present a case of a renal transplant recipi
38  to 272 high and 41 very high-risk candidate zoonoses and showed significantly elevated predicted zoo
39  predicting the risk of outbreaks of endemic zoonoses and the need to widen the context of studies of
40        Quantitative evidence for the risk of zoonoses and the spread of antimicrobial resistance rema
41 that could ultimately drive the emergence of zoonoses and the spread of antimicrobial resistance.
42 aits can help predict wildlife reservoirs of zoonoses and the vulnerability of populations to disease
43 nfectious disease processes such as emerging zoonoses and vaccine-preventable diseases, [Formula: see
44 o explain the extreme virulence of bat-borne zoonoses and, more generally, demonstrates how key diffe
45 ted number of 'missing viruses' and 'missing zoonoses' and therefore of highest value for future surv
46                                     Emerging zoonoses are a growing threat to global health and have
47 h the circumstances surrounding these recent zoonoses are becoming clearer, the nature and timescale
48                                    Bacterial zoonoses are diseases caused by bacterial pathogens that
49                                              Zoonoses are infectious diseases transmitted from animal
50 -human animals, the transmission dynamics of zoonoses are necessarily influenced by the ecology of th
51                     These diseases are often zoonoses associated with wilderness areas, and establish
52 pe similar to the A(H3N2)v genotype, causing zoonoses at North American agricultural fairs, underline
53 row host tropism, reducing the occurrence of zoonoses but also impairing the development of optimal a
54        Bats have been associated with recent zoonoses, but our bibliometric analysis of coauthor rela
55               Thus, the absence of SIVcpzPts zoonoses cannot be explained by an insufficient primate
56  diversity of pathogens, including multihost zoonoses capable of environmental transmission (e.g., Le
57 osis is one of the most prevalent tick-borne zoonoses caused by infection with Ehrlichia chaffeensis.
58 burden of disease, with endemic and enzootic zoonoses causing about a billion cases of illness in peo
59                                              Zoonoses comprise a long list of infectious diseases and
60 ronmental hazards, water and sanitation, and zoonoses control clearly show incremental benefits of On
61 ntify individual animals can be a barrier to zoonoses control.
62  to generate virulence predictions for viral zoonoses derived from diverse mammalian reservoirs, reca
63         Identifying the source of food-borne zoonoses (e.g. an animal reservoir or food product) is c
64       Defining prospective pathways by which zoonoses evolve and emerge as human pathogens is critica
65 ly test whether such "special reservoirs" of zoonoses exist, we used literature searches to construct
66 nvironmental surveillance to detect emerging zoonoses, fill gaps when clinical testing wanes, and inf
67 ion and environmental changes on the risk of zoonoses for which there are epidemiological interaction
68                                              Zoonoses frequently emerge from congregate interfaces wh
69 te one of the most important groups of viral zoonoses globally.
70                            To prevent future zoonoses, governments must establish effective legislati
71 riants and the threat of future Sarbecovirus zoonoses have spurred the design of vaccines that can in
72 dity and shorter lifespans tend to host more zoonoses; however, the causes of this association remain
73  and data on human outbreaks of rodent-borne zoonoses, identifying matches between empirical evidence
74 ites, pathogens and the environment, placing zoonoses in an ecological context, while identifying key
75 l or transmissible vaccines against emerging zoonoses in inaccessible animal populations.
76 important pathogens in Africa, causing viral zoonoses in livestock and humans.
77 value of conceptualizing prophylaxis against zoonoses in terms of genetic, rather than species, diver
78 plasmosis (HGA), one of the major tick-borne zoonoses in the United States.
79 at cause brucellosis, one of the most common zoonoses in the world.
80 ortant infectious diseases are the result of zoonoses, in which pathogens that normally infect animal
81  scapularis is the main vector of tick-borne zoonoses including the pathogens causing Lyme disease in
82 as natural hosts for several important viral zoonoses, including Ebola, Marburg, Nipah, Hendra, and r
83 rvoir in North America for agents of several zoonoses, including Lyme disease, babesiosis, anaplasmos
84 lyses suggest that the virulence of emerging zoonoses is correlated with but not completely predictab
85 he most frequent life-threatening tick-borne zoonoses, is caused by Ehrlichia chaffeensis that lacks
86                     The multihost ecology of zoonoses leads to complex dynamics, and analytical tools
87 ce that climate sensitivity is common across zoonoses, likely leading to substantial yet complex effe
88 uggesting exposure to vectors and associated zoonoses may be greater for people entering this habitat
89 nd become enzootic in swine, nascent reverse zoonoses may result in virus detections that are difficu
90 and epidemiology of the flea-borne bacterial zoonoses mentioned above with an emphasis on recent adva
91 typhus, and plague are three flea-associated zoonoses of cats of concern in the USA.
92  were the result of at least two independent zoonoses of distinct viral lineages that acquired the sa
93 febrile children, underscoring the recurrent zoonoses of divergent CoVs.
94 d diversity in the region, including reverse zoonoses of human H1N1/2009 pandemic and H3N2 viruses.
95  domestic dogs (FRD) are not only vectors of zoonoses of public health concern, but also pose direct
96                  Of the 13 known independent zoonoses of simian immunodeficiency viruses to humans, o
97 e monetary and non-monetary impacts of these zoonoses on human health, agriculture and society must b
98                                              Zoonoses originating from wildlife represent a significa
99                We observe an average of ~5.9 zoonoses per alien zoonotic host.
100 mammals versus birds, the observed number of zoonoses per animal order increased as a function of the
101                             IMPORTANCE Viral zoonoses pose a significant threat to human health, and
102                                  The rate of zoonoses remains uncertain in both countries, and gaps i
103      Progress in understanding and combating zoonoses requires a new generation of models that addres
104         Effective prediction of future viral zoonoses requires an in-depth understanding of the heter
105 hine learning models that identify candidate zoonoses solely using signatures of host range encoded i
106  with the public-health risks posed by prion zoonoses such as bovine spongiform encephalopathy, has f
107                                   Flea-borne zoonoses such as plague (Yersinia pestis) and murine typ
108     Prior to emergence in human populations, zoonoses such as SARS cause occasional infections in hum
109  hosts for biological agents responsible for zoonoses, such as coronaviruses (CoVs).
110 ectors of a diversity of medically important zoonoses, such as Lyme disease.
111 cting and preventing the emergence of future zoonoses that cause pandemics.
112 s were unexceptional, maintaining numbers of zoonoses that closely matched expectations for mammalian
113                  In the case of rodent-borne zoonoses, there is strong conceptual support, but limite
114          We determined exposure to the three zoonoses using serological (Rose Bengal test for Brucell
115                                    Bacterial zoonoses were frequently detected including Brucella spp
116 atural forest also increases the threat from zoonoses, where new vector-borne pathogens spill over fr
117  orthologs of arenaviral host species enable zoonoses, whereas mice and rats are not infectable becau
118   Globally, it is one of the most widespread zoonoses, with 500,000 new cases reported each year.
119 cases in Cameroon are the result of repeated zoonoses, with two distinct zoonotic lineages circulatin
120 us Leptospira, is one of the most widespread zoonoses worldwide.

 
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