|
-
|
Hannah, S. Lieberman, et al., “Want to Prevent Pandemics? STOP Spillovers,” Nature 605 (2022): 419–422 |
N |
2022 |
|
-
|
Daszak, N. D. Wolfe, et al., “The Global Virome Project,” Science 359 (2018): 872–874, |
D |
2018 |
|
-
|
Dunavan, and J. Diamond, “Origins of Major human Infectious Diseases,” Nature 447 (2007): 279–283, |
N |
2007 |
|
-
|
Olarte‐Castillo, and G. R. Whittaker, “Backyard Zoonoses: The Roles of Companion Animals and Peri‐domestic Wildlife,” Science Translational Medicine 15 (2023): adj0037, |
A |
2023 |
|
-
|
Seifert, K |
M |
2020 |
|
-
|
Hu, L. Zhang, et al., “Virome Landscape of Wild Rodents and Shrews in Central China,” Microbiome 13 (2025): 63, |
N |
2025 |
|
-
|
‐B |
X.‐B |
2023 |
|
-
|
Teillard, P. Boettcher, G. De' Besi, and B. Besbes, “Review: Domestic Herbivores and Food Security: Current Contribution, Trends and Challenges for a Sustainable Development,” Animal 12 (2018): s188–s198, |
A |
2018 |
|
-
|
fao |
Food and Agriculture Organization of the |
2025 |
|
-
|
Murwira, A. Caron, D. Cornélis, P. Gandiwa, and M. de Garine‐Wichatitsky, “Spatial Overlap Between Sympatric Wild and Domestic Herbivores Links to Resource Gradients,” Remote Sensing Applications: Society and Environment 2 (2015): 56–65, |
F |
2015 |
|
-
|
Jackwood, C |
W |
2019 |
|
-
|
Selleck, P. Hooper, et al., “A Morbillivirus that Caused Fatal Fisease in Horses and Humans,” Science 268 (1995): 94–97, |
K |
1995 |
|
-
|
T.‐Y. Lam, M. M. M. Ahmed, et al., “Co‐circulation of Three Camel Coronavirus Species and Recombination of MERS‐CoVs in Saudi Arabia,” Science 351 (2016): 81–84, |
J |
2016 |
|
-
|
Biswas, L. Guan, et al., “Pathogenicity and Transmissibility of Bovine H5N1 Influenza Virus,” Nature 633 (2024): 426–432, |
A |
2024 |
|
-
|
Beltrán‐Alcrudo, R. Kock, and S. M. Mor, “Global Trends in Infectious Diseases at the Wildlife–Livestock Interface,” Proceedings of the National Academy of Sciences 112 (2015): 9662–9667, |
A |
2015 |
|
-
|
Fine, C. Hollinger, et al., “Outbreak of Peste des Petits Ruminants Among Critically Endangered Mongolian Saiga and Other Wild Ungulates, Mongolia, 2016–2017,” Emerging Infectious Diseases 26 (2020): 51–62, |
M |
2020 |
|
-
|
Wang, H. Sun, et al., “Contagious Caprine Pleuropneumonia in Endangered Tibetan Antelope,” Emerging Infectious Disease 19 (2013): 2051–2053, |
Z |
2053 |
|
-
|
Liu, T. Chi, et al., “Prevalence and Genetic Characterization of Bovine Viral Diarrhea Virus in Dairy Cattle in Northern China,” BMC Veterinary Research 21 (2025): 250, |
Y |
2025 |
|
-
|
Bucafusco, J. M. Schamma, et al., “Assessment on Different Vaccine Formulation Parameters in the Protection Against Heterologous Challenge with FMDV in Cattle,” Viruses 14 (2022): 1781 |
S |
2022 |
|
-
|
Zhang, H. Wang, et al., “Viromics‐based Precision Diagnosis of Reproductive Abnormalities in Cows Reveals a Reassortant Akabane Disease Virus,” BMC Veterinary Research 20 (2024): 539, |
Y |
2024 |
|
-
|
Li, F. Hao, et al., “Research Progress on Emerging Viral Pathogens of Small Ruminants in China During the Last Decade,” Viruses 14 (2022): 1288 |
L |
2022 |
|
-
|
Xie, J. Luo, R. Shao, K. Jia, and S. Li, “Lumpy skin disease outbreaks in China, Since 3 August 2019,” Transboundary and Emerging Diseases 68 (2021): 216–219, |
G |
2021 |
|
-
|
Shao, G. Dai, et al., “Pathogenic Infection Characteristics and Risk Factors for Bovine respiratory Disease Complex Based on the Detection of Lung Pathogens in Dead Cattle in Northeast China,” Journal of Dairy Science 106 (2023): 589–606, |
Y |
2022 |
|
-
|
Zereen, M. L. Rana, M. G. Hossain, M. Shimada, and S. Saha, “Foot‐and‐Mouth Disease in Asia,” Virus Research 351 (2025): 199514, |
M |
2024 |
|
-
|
Bahoussi, A. Ahmad, M. Sikandar, and L. Xing, “Bovine Viral Diarrhea Virus in China: A Comparative Genomic and Phylogenetic Analysis With Complete Genome sequences,” Frontiers in Veterinary Science 9 (2022), 992678 |
P |
2022 |
|
-
|
Kock, Peste Des Petits Ruminants Virus, ed |
R |
2025 |
|
-
|
China Statistical Yearbook‐2024, (2025), |
National Bureau of Statistics |
2024 |
|
-
|
Xiao, Z. Feng, and J. Ye, “Habitat Distributions and Abundance of Four Wild Herbivores on the Qinghai–Tibetan Plateau: A Review,” Land 14 (2025): 23 |
T |
2025 |
|
-
|
Qu, X. Yan, et al., “Comprehensive Evaluation of RNA and DNA Viromic Methods Based on Species Richness and Abundance Analyses Using Marmot Rectal Samples,” mSystems 7 (2022): e00422–00430, |
Y |
2022 |
|
-
|
Dolja, M. Krupovic, et al., “Global Organization and Proposed Megataxonomy of the Virus World,” Microbiology and Molecular Biology Reviews 84 (2020): e00019–00061, |
E |
2020 |
|
-
|
Nieuwenhuijse, V. T. M. Phan, and P. G. M. Koopmans, “Virus Metagenomics in Farm Animals: A Systematic Review,” Viruses 12 (2020): 107 |
T |
2020 |
|
-
|
Richey, C. McInnes, et al., “Zoonotic Transmission of Bovine Papular Stomatitis Virus,” Veterinary Record 169 (2011): 235–236 |
P |
2011 |
|
-
|
Broor and P |
S |
2007 |
|
-
|
Fouchier, and E. C. Holmes, “Evolutionary Dynamics of Human and Avian Metapneumoviruses,” Journal of General Virology 89 (2008): 2933–2942, |
M. de Graaf |
2008 |
|
-
|
Liu, T. Hu, et al., “A Compendium of 8,176 Bat RNA Viral Metagenomes Reveals Ecological Drivers and Circulation Dynamics,” Nature Microbiology 10 (2025): 554–568, |
X |
2025 |
|
-
|
moa |
Ministry of Agriculture and Rural Affair |
2024 |
|
-
|
Dennehy, “Evolutionary Ecology of Virus Emergence,” Annals of the New York Academy of Sciences 1389 (2017): 124–146, |
J |
2017 |
|
-
|
Crespo‐Bellido and S |
A |
2023 |
|
-
|
Tulman, D. G. Diel, et al., “Coinfection With Multiple Strains of Bovine Papular Stomatitis Virus,” Archives of Virology 160 (2015): 1527–1532, |
T |
2015 |
|
-
|
Duchêne, and E. C. Holmes, “Comparative Analysis Estimates the Relative Frequencies of Co‐Divergence and Cross‐Species Transmission Within Viral Families,” PLOS Pathogens 13 (2017): 1006215, |
J |
2017 |
|
-
|
Patel, M. A. Levy, et al., “Global Trends in Emerging Infectious Diseases,” Nature 451 (2008): 990–993, |
K |
2008 |
|
-
|
Tasnim, R. Masud, et al., “A Systematic Review on Reverse‐zoonosis: Global Impact and Changes in Transmission Patterns,” Journal of Advanced Veterinary and Animal Research 11 (2024): 601–617, |
Z |
2024 |
|
-
|
van Dorp, and F. Balloux, “The Evolutionary Drivers and Correlates of Viral Host Jumps,” Nature Ecology & Evolution 8 (2024): 960–971, |
C |
2024 |
|
-
|
Ritchie, and H. H. T. Prins, “Global Environmental Controls of Diversity in Large Herbivores,” Nature 415 (2002): 901–904, |
H |
2002 |
|
-
|
Costi, E. S |
M |
2024 |
|
-
|
Ferrari, A. Fanelli, et al., “Wildlife Health Surveillance: Gaps, Needs and Opportunities,” Revue Scientifique et Technique (International Office of Epizootics) 42 (2023): 161–172 |
M |
2023 |
|
-
|
Amit, J. Friedman, and A. Bashan, “Complexity–Stability Trade‐Off in Empirical Microbial Ecosystems,” Nature Ecology & Evolution 6 (2022): 693–700, |
Y |
2022 |
|
-
|
Stombaugh, J. I. Gordon, J. K. Jansson, and R. Knight, “Diversity, Stability and Resilience of the Human Gut Microbiota,” Nature 489 (2012): 220–230, |
C |
2012 |
|
-
|
Oechslin, and S. Moineau, “Phage Diversity, Genomics and Phylogeny,” Nature Reviews Microbiology 18 (2020): 125–138, |
M |
2020 |
|
-
|
Liang and F |
G |
2021 |
|
-
|
Qu, T. Li, J. Li, Q. Lin, and X. Li, “Pika Population Density Is Associated with the Composition and Diversity of Gut Microbiota,” Frontiers in Microbiology 7 (2016): 758 |
H |
2016 |
|
-
|
Tang, and J |
A |
2021 |
|
-
|
Fastl, G. Chaters, et al., “Burden Assessment of Antimicrobial Use and Resistance in Livestock in Data‐Scarce Contexts,” Revue Scientifique et Technique (International Office of Epizootics) 43 (2024): 168–176 |
J |
2024 |
|
-
|
Hatfull, V. K. Mutalik, and R. T. Schooley, “Phage Therapy: From Biological Mechanisms to Future Directions,” Cell 186 (2023): 17–31, |
S |
2022 |
|
-
|
Chan, J. L. Koff, and P. E. Turner, “Phage Therapy: A Renewed Approach to Combat Antibiotic‐Resistant Bacteria,” Cell Host & Microbe 25 (2019): 219–232, |
K |
2019 |
|
-
|
Camarillo‐Guerrero, A. Almeida, G. Rangel‐Pineros, R. D. Finn, and T. D. Lawley, “Massive Expansion of human Gut Bacteriophage Diversity,” Cell 184 (2021): 1098–1109, |
L |
2021 |
|
-
|
Clooney, T. D. S. Sutton, et al., “The human Gut Virome is Highly Diverse, Stable, and Individual Specific,” Cell Host & Microbe 26 (2019): 527–541, |
A |
2019 |
|
-
|
Gong, X. Yan, et al., “Viral Metagenome‐Based Precision Surveillance of Pig Population at Large Scale Reveals Viromic Signatures of Sample Types and Influence of Farming Management on Pig Virome,” Msystems 6 (2021): 10–1128 |
B |
2021 |
|
-
|
moa |
Ministry of Agriculture and Rural Affair |
2023 |
|
-
|
‐M |
H.‐M |
2001 |
|
-
|
Sun, T. Wang, et al., “Node Role of Wild Boars in Virus Circulation Among Wildlife and Domestic Animals,” Nature Communications 16 (2025): 8938, |
Z |
2025 |
|
-
|
Assaf, T. Brettin, et al., “Introducing the Bacterial and Viral Bioinformatics Resource Center (BV‐BRC): A Resource Combining PATRIC, IRD and ViPR,” Nucleic Acids Research 51 (2023): D678–D689, |
R |
2023 |
|
-
|
Bolduc, and O. Zablocki, “Taxonomic Assignment of Uncultivated Prokaryotic Virus Genomes is Enabled by Gene‐sharing Networks,” Nature Biotechnology 37 (2019): 632–639, |
H |
2019 |