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1 atory, systemic, and reproductive disease of equids.
2 l nervous system (CNS) disease in humans and equids.
3 ent serotypes, causes devastating disease in equids.
4 s causing neurological disease in humans and equids.
5 , occasionally causing disease in humans and equids.
6 almost exclusively in strains cultured from equids.
7 tion and disease in experimentally immunized equids.
8 a browser, unlike the grazing diet of modern equids.
9 l redundancy compared to the donor faeces of equids.
10 , sex chromosome regulation and evolution in equids.
11 ment and lifestyle on the gut microbiomes of equids.
12 rations, with shared benefits for humans and equids.
13 n and 31 ancient donkeys, as well as 15 wild equids.
17 replication during acute disease in infected equids and serve as resilient reservoirs of virus infect
18 upporting a broad host range for EqHBV among equids and suggesting that horses might be suitable for
19 ls denoted by the selective culling of adult equids and the recovery of tanged and hafted projectile
22 e species of middle to late Pleistocene NWSL equid, and demonstrate that it falls outside of crown gr
24 complete reproductive isolation, and promote equids as a fundamental model for understanding the inte
25 products contribute to molecular studies of equid biology and advance research on X-linked condition
26 resolution record of continental climate and equid body size change shows a directional size decrease
27 aracterized the Prdm9 gene in all species of equids by analyzing sequence variation of the ZF domains
29 cument intentional breeding of highly valued equids called kungas for use in diplomacy, ceremony, and
30 clinical symptoms in experimentally infected equids coincided with rapid widespread seeding of viral
31 e extinct 'New World stilt-legged', or NWSL, equids constitute a perplexing group of Pleistocene hors
32 cant amounts of C(4) grasses were present in equid diets beginning at 9.9 Ma and in rhinocerotid diet
33 n and replication in experimentally infected equids during acute disease episodes and during asymptom
35 notably the suid Notochoerus, the hipparion equid Eurygnathohippus, the giraffid Sivatherium, and th
39 nthropogenic forces can dramatically reshape equid gastrointestinal microbiomes, which has broader im
46 ly protective against the diseases caused by equid herpesvirus 1 (EHV-1), especially the neurologic f
47 that a single-nucleotide polymorphism in the equid herpesvirus type 1 DNA polymerase gene is associat
48 , we report that the nonneurovirulent strain equid herpesvirus type 1 strain NY03 caused lethal neuro
49 of EHV-1 and EHV-4, and did not detect other equid herpesviruses such as EHV-2, EHV-3, EHV-5, or seve
50 er-dependent fauna (for example, crocodiles, equids, hippopotamids and proboscideans)(2-6), sustained
55 ecline and demise of two Alaskan Pleistocene equids, I selected a large number of fossils from the la
56 re balanced view of the virus as a threat to equids in a diverse range of settings, thus leading to a
58 ing of 2-meter wells to groundwater by feral equids increased the density of water features, reduced
59 re we analyse (87)Sr/(86)Sr for 79 bovid and equid individuals representing 18 species from four loca
62 he identification and precise demarcation of equid/Perissodactyl-specific features that for the first
66 te from these data that rhinos diverged from equids prior to the occurrence of the mutations causing
68 those of captive khulans (n = 12) and other equids-Przewalski's horse (n = 82) and domestic horse (n
70 proximity to surface water was stronger for equids relative to ruminants, regardless of body size.
71 Osteological and biomolecular study of these equid remains demonstrates their successful reproduction
72 zoological analysis of identifiable domestic equid remains from two contexts associated with the init
77 blood methylation data from three additional equid species (plains zebra, Grevy's zebras and Somali a
78 (MHC) class I genes isolated from a range of equid species and more distantly related members of the
79 ontained genes and alleles that are found in equid species and one group specific to the rhinoceros.
81 ve figured centrally in that debate, because equid species dominated North American late Pleistocene
82 pha1, alpha2 and theta globin genes from six equid species have been determined to investigate relati
84 horoughbreds and 42 samples from three other equid species that the T-allele was ancestral and there
85 the sequence and number of ZF domains among equid species, ranging from five domains in the Tibetan
91 of climate produced from 16 serially sampled equid teeth spanning ~12,500 years of LRJ and Upper Pala
92 ckness virus (AHSV) is a lethal arbovirus of equids that is transmitted between hosts primarily by bi
93 an ancient mutation-conserved in all extant equids-that increases mitochondrial respiration while de
94 d from Parascaris and massively amplified in equids, to horse and donkey X chromosomes and three auto
95 d the genomes of one of these ~4500-year-old equids, together with an ~11,000-year-old Syrian wild as
99 tebrate richness and activity were higher at equid wells than at adjacent dry sites, and, by mimickin
101 midges and causes African horse sickness in equids, with mortality reaching up to 95% in naive horse