1  rodents (Rodentia) and even-toed ungulates (Artiodactyla).

2 close relationship between Arctocyonidae and Artiodactyla.

3 G genes occurred after the divergence of the Artiodactyla and Perissodactyla, but that at least one g

4 rth America, and the modern orders Primates, Artiodactyla, and Perissodactyla first appeared in Asia

5 ion as exemplified in analyses of Carnivora, Artiodactyla, and Primates.

6         The first known members of the order Artiodactyla appeared suddenly throughout the Holarctic

7           The relationships of hippos within Artiodactyla are challenging, and the immediate affiniti

8 report herein that M6P/IGF2R is imprinted in Artiodactyla, as it is in Rodentia and Marsupialia, but

9 onvincing support, included a Perissodactyla/Artiodactyla/Cetacea clade, an Insectivora/Chiroptera cl

10 the same wide-ranging types of analyses, was Artiodactyla/Cetacea.

11  the hindlimb, reviving the possibility that Artiodactyla evolved from an arctocyonid.

12 ing domestic cattle, and 7 other families of Artiodactyla including Cervidae, there were usually a fe

13   The origin of late Neogene Hippopotamidae (Artiodactyla) involves one of the most serious conflicts

14  family arose relatively recently within the Artiodactyla order in the lineage leading to modern day

15 omparative anatomy and molecular biology: is Artiodactyla paraphyletic?

16 nowledge of GH evolution in Cetartiodactyla (Artiodactyla plus Cetacea) we have cloned and characteri

17 attle, sheep, and most probably all ruminant Artiodactyla possess many, possibly 100 or more, PAG gen

18 f 82 nuclear genes from the mammalian orders Artiodactyla, Primates, and Rodentia using both approxim

19 , clarifying that Cetacea evolved from early Artiodactyla rather than Mesonychia and showing how earl

20 eans, is a large African even-toed ungulate (Artiodactyla) that grazes and has a semiaquatic lifestyl