Coelurosauria Huene, 1914
Definition- (Ornithomimus velox <- Allosaurus fragilis) (suggested)
Other definitions- (Passer domesticus <- Allosaurus fragilis) (Holtz et al., 2004; modified from Holtz, 1996; modified from Gauthier, 1986)
(Passer domesticus <- Allosaurus fragilis, Sinraptor dongi, Carcharodontosaurus saharicus) (Xu et al., 2011)
= Coelurosauridae Cope, 1882
= Coelurosauria sensu Gauthier, 1986
Definition- (Passer domesticus <- Allosaurus fragilis) (modified)
= Metatheropoda Ji and Ji, 2001
= Megaraptora sensu Benson, Carrano and Brusatte, 2010
Definition- (Megaraptor namunhuaiquii <- Chilantaisaurus tashuikouensis, Neovenator salerii, Carcharodontosaurus saharicus, Allosaurus fragilis)
= Coelurosauria sensu Xu et al., 2011
Definition- (Passer domesticus <- Allosaurus fragilis, Sinraptor dongi, Carcharodontosaurus saharicus)
Metatheropoda- Metatheropoda was named in a cladogram by Ji and Ji (2001) as a clade within Coelurosauria containing Compsognathus, Sinosauropteryx and Maniraptoriformes. Which coelurosaurs were excluded is not specified (though tyrannosauroids are a likely candidate) and the clade was not defined. The caption merely listed "down-like protofeathers" as a diagnosis, which suggests it was named to encompass feathered coelurosaurs. This idea is complicated by their inclusion of Compsognathus, which they place in a new subclade Aptilonia. Though Aptilonia is not defined either, the etymology and pairing with Sinosauropteryx's Eoptilonia suggests it implies a lack of feathers in Compsognathus, though this is in all probability preservational. As feathers are probably symplesiomorphic for coelurosaurs (Sciurumimus) if not dinosaurs (Tianyulong, Kulindadromeus), Metatheropoda seems like an unnecessary clade.
Coelurosauria defined- Sereno's (in press) definition differs from the standard one by including Sinraptor and Carcharodontosaurus as external specifiers. Sinraptor's inclusion is superfluous, as an (Allosaurus, Carcharodontosaurus (Sinraptor, Passer)) topology has never been advocated. If Carcharodontosaurus is a tyrannosauroid (Paul, 1988; Kurzanov, 1989; Molnar et al., 1990), this redefinition would exclude tyrannosauroids from Coelurosauria. This wouldn't necessarily be a bad thing, especially as most of the evidence indicates tyrannosauroids are basal to anything else called a coelurosaur nowdays except perhaps Tugulusaurus, Coelurus, Tanycolagreus, Calamosaurus, Proceratosaurus, Bagaraatan and Dryptosaurus. The latter is especially true if carcharodontosaurids have anything to do with tyrannosaurids, as that set of character transformations leaves tyrannosaurids developing their coelurosaurian characters convergently with maniraptoriformes. So the only topology which suffers by using Carcharodontosaurus as an external specifier is Paul's (1988), which would exclude compsognathids, Coelurus, and Ornitholestes from Coelurosauria (in addition to Proceratosaurus and tyrannosauroids). But since Allosaurus would have to be a coelurosaur for any of these latter taxa to be coelurosaurs in Paul's topology, Carcharodontosaurus' inclusion as an external specifier doesn't add any further harm. One thing I object to is the use of Passer as an internal specifier for Coelurosauria, as birds were nor originally classified as coelurosaurs in Huene, 1914 or by anyone until the 1970's at least. Huene included what would today be called coelophysids, coelurids, compsognathids, Ornitholestes and ornithomimids. The best internal specifier for Coelurosauria in my opinion is Ornithomimus. It's always been a coelurosaur, and has always been placed closer to birds than Allosaurus (unlike Compsognathus, Coelurus or Ornitholestes- Paul, 1988; Novas, 1992). Thus I would suggest (Ornithomimus velox <- Allosaurus fragilis, Carcharodontosaurus saharicus) as a definition for Coelurosauria.
References- Samman, 2007. Assessing craniocervical functional morphology in coelurosaurian theropods. Journal of Vertebrate Paleontology. 27(3), 139A.
Xu and Zhao, 2007. Coelurosaurian phylogeny revisited: Recovering phylogenetic signals from subtle morphological variations. Journal of Vertebrate Paleontology. 27(3), 169A.
Turner, 2008. Phylogenetic history and body size evolution in coelurosaur theropods. Journal of Vertebrate Paleontology. 28(3), 154A.
Zhang, Kearns, Benton and Zhou, 2009. The ultrastructure of skin and feathers of Cretaceous birds and dinosaurs. Journal of Vertebrate Paleontology. 29(3), 206A.
Zanno and Makovicky, 2010. Quantitative analysis of herbivorous ecomorphology in theropod dinosaurs: Patterns of character correlation and progression. Journal of Vertebrate Paleontology. Program and Abstracts 2010, 192A.
Loewen, Zanno, Irmis, Sertich and Sampson, 2011. Campanian theropod evolution and intracontinental endemism on Laramidia. Journal of Vertebrate Paleontology. Program and Abstracts 2011, 146.
Xu, You, Du and Han, 2011. An Archaeopteryx-like theropod from China and the origin of Avialae. Nature. 475, 465-470.
Balanoff, Bever, Rowe and Norell, 2012. The origin of the avain brain based on a volumetric analysis of endocranial evolution within Coelurosauria. Journal of Vertebrate Paleontology. Program and Abstracts 2012, 59.
Brusatte, 2013. The phylogeny of coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. Journal of Vertebrate Paleontology. Program and Abstracts 2013, 96.
Larson, Brown and Evans, 2013. Disparity dynamics of small theropod (Coelurosauria: Dinosauria) tooth assemblages from the Late Cretaceous of North America. Journal of Vertebrate Paleontology. Program and Abstracts 2013, 159.
Torices, Bradley and Currie, 2013. Ontogenetic variability in Upper Cretaceous theropod teeth. Journal of Vertebrate Paleontology. Program and Abstracts 2013, 226.

Bicentenaria Novas, Ezcurra, Agnolin, Pol and Ortiz, 2012
B. argentina Novas, Ezcurra, Agnolin, Pol and Ortiz, 2012
Early Cenomanian, Late Cretaceous
Candelaros Formation of the Rio Limay Subgroup of the Neuquen Group, Rio Negro, Argentina
Holotype
- (MPCA 865) (adult) incomplete jugal, quadratojugal, incomplete quadrate, partial ectopterygoid, basisphenoid fragment, surangulars (one incomplete), angular, incomplete prearticulars, articular
Paratype- (MPCA 866) (at least three adults; ~3 m; ~40 kg) ~130 elements including two partial premaxillae, seventeen fragmentary dorsal vertebrae including third and fourth dorsal centra, several dorsal rib fragments including proximal anterior dorsal rib, six partial sacra, two sacral centra, twenty caudal vertebrae, two fragmentary scapulae, coracoid fragment, proximal humerus, two distal humeri, distal radius, three proximal ulnae, eight manual unguals, partial ilium, five proximal pubes, four incomplete femora (~310 mm), two incomplete tibiae, distal tibia, partial astragalus, metatarsal I, four fragmentary metatarsals including distal metatarsals III and IV, fifteen pedal phalanges, eight pedal unguals
(juvenile) maxillary fragment, distal femur
Diagnosis- (modified after Novas et al., 2012) second premaxillary tooth with mesial serrations limited to base of crown; anterior quadratojugal process twice as long as dorsal process; lateral quadrate condyle much larger than medial condyle; surangular with raised trapezoidal dorsal margin in lateral view; retroarticular process dorsoventrally depressed, transversely wide and spoon-shaped; proximal humerus anteroposteriorly compressed; deep fossa proximal to ectocondyle on distal humerus; manual ungual III with proximodorsal lip.
Comments- The material was discovered in 1998. Novas et al. (2012) included it in a version of the TWG analysis that recovered Bicentenaria sister to Tyrannoraptora, but closer to it than Tugulusaurus.
Reference- Novas, Ezcurra, Agnolin, Pol and Ortiz, 2012. New Patagonian Cretaceous theropod sheds light about the early radiation of Coelurosauria. Revista del Museo Argentino de Ciencias Naturales. 14(1), 57-81.

Gasosaurus Dong and Tang, 1985
G. constructus Dong and Tang, 1985
Aalenian-Bajocian, Middle Jurassic
Xiashaximiao Formation, Sichuan, China

Holotype- (IVPP V7264) four cervical centra, seven dorsal vertebrae, first sacral vertebra, second sacral vertebra, third sacral vertebra, fourth sacral vertebra, fifth sacral vertebra, seven caudal vertebrae, humerus, ilium, pubis (345 mm), ischium (305 mm), femur (425 mm), tibia (370 mm), fibula, astragalus, metatarsal II, metatarsal III, pedal ungual IV
Paratype- ?(IVPP V7265) three teeth
Referred- material (Holtz, 2000)
Comments- Traditionally associated with megalosauroids, Holtz (2000) recently found it to be a basal coelurosaur in his analyses. This was based on the upturned femoral head, anterior trochanter cleft from the head, and proximal fibula being >75% the proximal tibial width. However, he also indicated new undescribed specimens suggest Gasosaurus is a carnosaur, perhaps a sinraptorid (Currie pers. comm. 1998 to Holtz). Carrano et al. (2012) found that the proximal femur is broken, so that the seemingly high anterior trochanter is an illusion. They believed it most likely to be a non-coelurosaur tetanurine and stated the holotype is being restudied (Hone pers. comm.). When conservatively entered into Carrano et al.'s matrix, Gasosaurus emerges as a non-allosauroid carnosaur. Yet it only takes one more step to move it to Coelurosauria, and their matrix does not include some coelurosaur characters present in the taxon such as a preacetabular process subequal in length to the postacetabular process, and an anterodorsally concave pubic peduncle. Nor does it include many coelurosaurs. It is here provisionally retained in Coelurosauria pending restudy.
References- Dong and Tang, 1985. A new Mid-Jurassic theropod (Gasosaurus constructus gen. et sp. nov.) from Dashanpu, Zigong, Sichuan Province, China. Vertebrata PalAsiatica. 23(1), 77-82.
Holtz, 2000. A new phylogeny of the carnivorous dinosaurs. Gaia. 15, 5-61.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.

Lourinhanosaurus Mateus, 1998
L. antunesi Mateus, 1998
= Allosaurus antunesi (Mateus, 1998) Paul, 2010
Early Tithonian, Late Jurassic
Sobral Unit of Lourinha Formation, Portugal

Holotype- (ML 370) (4 m) cervical vertebrae, dorsal vertebrae, sacral vertebrae, caudal vertebrae, chevrons, ilia, partial pubes, partial ischia, partial femora, tibia, fibula, proximal metatarsal, 32 gastroliths
Referred- (ML 555) femur (Antunes and Mateus, 2003)
(ML 565) adult teeth, ~300 embryonic elements including maxilla, four teeth, vertebrae, scapulae, ilium, femora, tibiae and metatarsi, ~100 eggs, nest (Mateus and Mateus, 1997)
(ML 1194) eggshells (Ribeiro et al., 2013)
distal caudal vertebra (Mateus, pers. comm, 2002)
Diagnosis- (after Mateus, 1998) all vertebral centra are longer than tall; proximal caudal neural spines with well-developed spike-like anterior process; pubic blade perforated by large vertical ellipsoidal foramen; anterior trochanter well separated from the main body axis of the femur in lateral view.
(after Carrano et al., 2012) medial condyle of tibia half the transverse width of fibular condyle.
Comments- The specimen had 32 gastroliths and the enveloping sediment preserved the negative imprint of 3 additional gastroliths. The maximum observed gastrolith length is 22 millimetres. Near the pebbles there were three small bone fragments that seem to be food remains. The gastroliths have been found in the rib cage below the eleventh dorsal vertebra. The high number, concentration and relative size of the gastroliths suggest that they belong to this specimen, and that they had not been swallowed when eating other dinosaur's stomach. Mateus (pers. comm., 2002) refers one distal caudal previously referred to Megalosaurus insignis (Lapparent and Zbyszewski, 1957) to Lourinhanosaurus.
Eggshells belong to Preprismatoolithus.
Relationships- Though Mateus (1998) originally referred this taxon to Allosauroidea and Holtz et al. (2004) later found it to be a carnosaur, Allain (2001) recovered it as a megalosaurid in his unpublished analysis while Mateus et al. (2006) refer it to Eustreptospondylidae without explanation. Benson (2008, 2010) found it to be a sinraptorid, and in a more extensive analysis (Benson et al., 2010) placed it sister to Streptospondylus in that clade. Carrano et al. (2012) later found it to be a basal coelurosaur, though only two more steps were needed to make it a basal carnosaur or sister to Avetheropoda, so neither option is unlikely.
References- Lapparent and Zbyszewski, 1957. Les dinosauriens du Portugal. Mémoires du Service géologique du Portugal. 2, 1-63.
Mateus and Mateus, 1997. Eggs, nest and embryos of theropod dinosaur in Upper Jurassic level of Lourinha, Portugal. Documents of the International Conference Dinosaurs in Mediterranean. Tunis 30.
Mateus, Mateus, Antunes, Mateus, Taquet, Ribeiro and Manuppella, 1997. Couvee, oeufs et embryons d'un Dinosaure Theropode du Jurassique de Lourinha (Portugal). C.R Acad. Sci. Paris, Sciences de la terre et des planètes, 325: 71-78.
Mateus, 1998. Lourinhanosaurus antunesi, a new Upper Jurassic Allosauroid (Dinosauria: Theropoda) from Lourinhã (Portugal). Memórias da Academia de Ciências de Lisboa. 37: 111-124.
Mateus, Mateus, Antunes, Mateus, Taquet, Ribeiro and Manuppella, 1998. Upper Jurassic theropod dinosaur embryos from Lourinhã (Portugal). Memórias da Academia de Ciências de Lisboa. 37: 101-110.
Mateus, Taquet, Antunes, Mateus and Ribeiro, 1998. Theropod dinosaur nest from Lourinha, Portugal. Journal of Vertebrate Paleontology, 18(3) 61A.
Allain, 2001. The phylogenetic relationships of Megalosauridae within basal tetanurine theropods. Journal of Vertebrate Paleontology. 22(3), 31A.
Mateus, Antunes and Taquet, 2001. Dinosaur ontogeny: The case of Lourinhanosaurus (Late Jurassic, Portugal). Journal of Vertebrate Paleontology, 21 (Suppl. 3): 78A.
Ricqles, Mateus, Antunes and Taquet, 2001. Histomorphogenesis of embryos of Upper Jurassic Theropods from Lourinhã (Portugal). Comptes rendus de l'Académie des sciences - Série IIa - Sciences de la Terre et des planètes. 332(10): 647-656.
Allain, 2002a. Les Megalosauridae (Dinosauria, Theropoda). Nouvelle découverte et révision systématique: Implications phylogénétiques et paléobiogéographiques. Unpublished thesis. 329 pp.
Antunes and Mateus, 2003. Dinosaurs of Portugal. Comptes Rendus Palevol 2, Systematic Paleontology: 77–95.
Cunha, Mateus and Antunes, 2004, The sedimentology of the Paimogo dinosaur nest site (Portugal, Upper Jurassic): Abstract Book of the IAS [International Association of Sedimentologists] 23rd Meeting, Coimbra, Portugal, p. 93.
Holtz, Molnar and Currie, 2004. Basal Tetanurae. In Weishampel, Dodson and Osmolska. The Dinosauria Second Edition. University of California Press. 861 pp.
Benson, 2008. A new theropod phylogeny focussing on basal tetanurans, and its implications for European 'megalosaurs' and Middle Jurassic dinosaur endemism. Journal of Vertebrate Paleontology. 51A.
Castanhinha, Araujo and Mateus, 2009. Dinosaur eggshell and embryo localities in Lourinha Formation, Late Jurassic, Portugal. Journal of Vertebrate Paleontology. 29(3), 76A.
Benson, 2010. A description of Megalosaurus bucklandii (Dinosauria: Theropoda) from the Bathonian of the UK and the relationships of Middle Jurassic theropods. Zoological Journal of the Linnean Society. 158(4), 882-935.
Benson, Brusatte and Carrano, 2010. A new clade of large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97, 71-78.
Paul, 2010. The Princeton Field Guide to Dinosaurs. Princeton University Press. 320 pp.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.
Mateus, Carrano and Taquet, 2012. Osteology of the embryonic theropods from the Late Jurassic of Paimogo, Portugal. Journal of Vertebrate Paleontology. Program and Abstracts 2012, 137.
Ribeiro, Holwerda and Mateus, 2013. Theropod egg sites from the Lourinha Formation, Portugal. Journal of Vertebrate Paleontology. Program and Abstracts 2013, 198.
Mateus, Antunes, Taquet and Ricqlès, in preparation. The osteology of the embryos of the theropod dinosaur Lourinhanosaurus antunesi from Portugal.

Sciurumimus Rauhut, Foth, Tischlinger and Norell, 2012
S. albersdoerferi Rauhut, Foth, Tischlinger and Norell, 2012
Late Kimmeridgian, Late Jurassic
Painten Formation, Bavaria, Germany

Holotype- (BMMS BK 11) (719 mm; juvenile) skull (79 mm), sclerotic ring, mandibles (73.2 mm), hyoids, (cervical series 69 mm) atlas, axis, third cervical vertebra, fourth cervical vertebra, fifth cervical vertebra, sixth cervical vertebra, seventh cervical vertebra, eighth cervical vertebra, ninth cervical vertebra, tenth cervical vertebra, cervical ribs, (dorsal series 102 mm) first dorsal vertebra, second dorsal vertebra, third dorsal vertebra, fourth dorsal vertebra, fifth dorsal vertebra, sixth dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra, ninth dorsal vertebra, tenth dorsal vertebra, eleventh dorsal vertebra, twelfth dorsal vertebra, thirteenth dorsal vertebra, dorsal ribs, gastralia, (sacrum 37.3 mm) first sacral centrum, fourth sacral ventrum, fifth sacral centrum, about sixty caudal vertebrae (432 mm), chevrons, scapula, coracoids, clavicles, humeri (26.8 mm), radii (17 mm), ulnae, distal carpals I, metacarpals I, phalanges I-1, manual unguals I, metacarpals II (11 mm), phalanges II-1, phalanges II-2, manual unguals II, metacarpals III, phalanges III-1, phalanges III-2, phalanges III-3, manual unguals III, ilium, pubes, ischia, femora (50.6 mm), tibiae (54.2 mm), fibulae, calcaneum, distal tarsal IV, metatarsal I, phalanx I-1, pedal ungual I, metatarsals II, phalanges II-1, phalanges II-2, pedal unguals II, metatarsals III (32.1 mm), phalanges III-1, phalanges III-2, phalanges III-3, pedal unguals III, metatarsals IV, phalanges IV-1, phalanges IV-2, phalanges IV-3, phalanges IV-4, pedal unguals IV, pedal claw sheaths, metatarsals V, hindlimb muscle, skin impressions, feathers
Diagnosis- (after Rauhut et al., 2012) axial neural spine symmetrically hatchet-shaped in lateral view; posterior dorsal neural spines with rectangular edge anteriorly and lobe-shaped dorsal expansion posteriorly; anterior margin of ilium with semioval anterior process in its dorsal half.
Comments- In 2011 a complete juvenile theropod skeleton was announced at the Munich Show Mineralientage München. Rauhut and Foth (2011) had given a presentation on this specimen the previous month, and the next year Rauhut et al. (2012) described it as Sciurumimus albersdoerferi. Rauhut et al. coded it for three analyses- Smith et al.'s (2007) found it as an orionidan more closely related to Monolophosaurus and Avetheropoda; Choiniere et al.'s (2010) found it as an orionidan in a polytomy with Afrovenator, spinosauroids and Monolophosaurus+Avetheropoda; Benson et al. (2010) found it as a basal megalosaurid. This is interesting as the specimen is extremely similar to the supposed basal coelurosaur Juravenator, though both are juveniles. When Juravenator is added to the former two matrices with Sciurumimus (it was not added to Benson et al.'s inexplicably), it ends up sister to Sciurumimus in the same positions described above outside Coelurosauria. Yet when Juravenator is added and Sciurumimus is not, Juravenator is a coelurosaur as usual. This suggests supposed basal coelurosaurs like Juravenator may actually be more basal taxa like megalosauroids or carnosaurs and only seem derived due to paedomorphic characters. However, Smith et al.'s and Choiniere et al.'s matrices both involve large amounts of incorrectly missing data (Mortimer and Marjanovic, in prep.) making their results questionable. Similarly, Benson et al. concentrated on basal tetanurines and only included three coelurosaurs, so may not have sampled coelurosaur diversity well. Cau (online, 2012) included Sciurumimus in his much larger unpublished analysis and found it to be a basal coelurosaur by Chuandongocoelurus, Tugulusaurus and Zuolong, with Juravenator a more derived coelurosaur as shown on this site. This position is provisionally accepted here, as Cau used all of the data from Benson's analysis in addition to numerous other characters and taxa.
References- Rauhut and Foth, 2011. New information on Late Jurassic theropod dinosaurs from Southern Germany. IV Congresso Latinoamericano Paleontologia de Vertebrados.
Cau, online 2012. http://theropoda.blogspot.com/2012/07/sciurumimus-albersdoerferi-rauhut-et-al.html
Rauhut, Foth, Tischlinger and Norell, 2012. Exceptionally preserved juvenile megalosauroid theropod dinosaur with filamentous integument from the Late Jurassic of Germany. Proceedings of the National Academy of Sciences. 109(29), 11746-11751.
Foth, Haug, Haug, Tischlinger and Rauhut, 2014. New details on the integumental structures in the juvenile megalosauroid Sciurumimus albersdoerferi from the Late Jurassic of Germany using different auto-fluorescence imaging technique. Journal of Vertebrate Paleontology. Program and Abstracts 2014, 131-132.

Tugulusaurus Dong, 1973
T. faciles Dong, 1973
Early Cretaceous
Lianmugin Formation of Tugulu Group, Xinjiang, China

Holotype- (IVPP V4025) dorsal rib, four incomplete mid caudal vertebrae (23, 25, 34 mm), metacarpal I (26 mm), manual phalanx I-1 (54 mm), manual ungual I (70 mm), femora (one proximal) (215 mm), tibia (~240 mm), astragalus (32 mm wide), astragalar fragment, calcaneum, distal metatarsal III, distal metatarsal IV, pedal phalanx IV-? (27 mm), pedal ungual III
Diagnosis- (after Rauhut and Xu, 2005) proximal mid-caudal vertebrae with neural arch placed only on anterior two thirds of centrum and centrum considerably broader than high (ratio width/height ca. 1.5); caudal centra rapidly increasing in length distally; minimal length of metacarpal I less than width of this bone; tibia with pronounced, semicircular lateral expansion of lateral malleolus.
Comments- The tibia is referred to as a radius in the translation of Dong 1973, which explains the rather odd statement that the radius exceeds femoral length in Glut (1997). Although Dong states Tugulusaurus differs from other ornithomimids in that the proximal third metatarsal does not constrict, the proximal end is unpreserved.
Relationships- Dong (1973) refers this genus to the Coelurosauria based on hollow long bones and tibia longer than femur, and to the Ornithomimidae based on the outline and characteristics of the metatarsus and phalanges. Molnar thought the tibiofemoral ratio was too small for an ornithomimid. Rauhut and Xu (2005) found the taxon to be a coelurosaur more basal than tyrannoraptorans. They referred it to Coelurosauria based on the medial side of metacarpal I forming a sharp edge, the absence of deep extensor pits on its metacarpals, reduced fibular facet on the astragalus, groove at the base of the astragalar acsending process and absence of a groove across the astragalar condyles. It was more primitive than other coelurosaurs in having a laterally restricted astragalar ascending process which is low, and a tibia with a distinct step to brace the ascensing process. When entered into a modified version of Senter's (2007) matrix with Rauhut and Xu's data added, the results agree with theirs. Additionally, the high tibiofemoral ratio groups Tugulusaurus with coelurosaurs more derived than Gasosaurus.
References- Dong, 1973. Reports of paleontological expediation to Sinkiang (II), pterosaurian fauna from Wuerho, Sinkiang. Memoirs of the Institute of Vertebrate Paleontology and Paleoanthropology Academia Sinica. 11, 45-52.
Glut, 1997. Dinosaurs - The Encyclopedia. McFarland Press, Jefferson, NC. 1076pp.
Rauhut and Xu, 2005. The small theropod dinosaurs Tugulusaurus and Phaedrolosaurus from the Early Cretaceous of Xinjiang, China. Journal of Vertebrate Paleontology. 25(1), 107-118.
Senter, 2007. A new look at the phylogeny of Coelurosauria (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 5(4), 429-463.

Coelurosauria incertae sedis

"Beelemodon" Bakker, 1997
Kimmeridgian-Tithonian, Late Jurassic
Morrison Formation, Wyoming, US

Material- (TATE 546) (~1.5-4 m) tooth (7.1 mm long, FABL 5.4 mm)
(TATE coll.) tooth (~9 mm)
Diagnosis- Currently indeterminate pending more detailed comparison to several theropod taxa.
Description- This taxon is still a nomen nudum, as it is not yet diagnosed, nor does it have a species name. Bakker describes it as an "omnivorouscarnivorous dinosaur of uncertain relations" and an "enigmatic dinosaur". It is supposedly "coyote-to-wolf size". Although using tooth size to determine total length is extremely risky, comparison to various theropods indicates a length of 1.5-4 meters is probable, depending on body form. It is unclear whether postcranial remains can be referred to the taxon, as only teeth are described and illustrated. A single tooth is illustrated in side view and cross section. Another tooth is plotted in the "denticle-width vs. crown height" graph, indicating a slightly larger specimen is known as well.
The illustrated tooth is slightly recurved, laterally compressed (50% as wide as anteroposteriorly long) and missing its distal tip. Fluting is present on the illustrated side. The root is constricted, the mesial carina lacks serrations and the distal carina has serrations extending to the base. The serrations are small (4.3 per mm, ~35 on the whole crown), pointed and project slightly distally. The cross section indicates it was fairly symmetrical labiolingually, narrowing anteriorly and exhibiting a slight mesial expansion labially(?) and a slight distal expansion lingually(?).
Comments- At first glance, these specimens look very similar to ornithischian premaxillary teeth. The posterior two premaxillary teeth of Lesothosaurus have mesial serrations, but lack them distally except at the tip. This is the reverse of the case in "Beelemodon". The serrations are comparatively larger (~15 per tooth if they extended as basally as in "Beelemodon") and do not extend to the base of the crown. Drinker has a very similar tooth morphology, with serrations present only on the distal carina. These serrations are slightly larger (25-30 per tooth) and have longer interdenticle slits. The tooth itself is not recurved, but is otherwise similar in shape. Galtonia also has similarily shaped teeth, but with larger serrations and mesial serrations present apically. "Beelemodon" is obviously based on theropod maxillary or dentary teeth however, as the premaxillary teeth of most theropods have serrations displaced so that the distance between them is much longer labially than lingually. Troodontids, tyrannosaurids and ornithischians have premaxillary teeth that not only have the latter character, but are also much wider labiolingually than "Beelemodon". The cross section of "Beelemodon" is very similar to theropod maxillary and dentary teeth.
While "Beelemodon" is theropod, placing it within that clade is a more difficult task. The constricted root is known in Compsognathus, Pelecanimimus, enigmosaurs, parvicursorines, troodontids, Richardoestesia, Microraptor and birds. Therefore, chances are pretty good this is a coelurosaur. Compsognathus has some teeth that have unserrated mesial carinae and serrated distal carinae. These have larger serrations relative to crown height (20-25 per tooth). They are shaped similarily and have similar serration morphology. Pelecanimimus has yet to be described in detail, but has both anterior and posterior carinae unserrated. Therizinosaurs differ in having crowns that are less recurved, more elongate and labiolingually wider, with much larger posterior serrations (8-10 per tooth) and equally sized anterior serrations. Protarchaeopteryx lacks serrations. The highly elongate, needle-like teeth of Caudipteryx lack serrations too, so are very dissimilar. Mononykus has unserrated carinae, more elongate and less recurved crowns. Archaeopteryx has teeth that are completely unserrated, lack distal carinae and are much wider labiolingually. They are similarily proportioned and have unserrated mesial carinae. Some troodontid teeth lack mesial serrations, but have them distally, and are transversely compressed. The teeth of "Beelemodon" differ from troodontids in being less recurved, lacking hooked serrations and having comparatively smaller serrations (compared to 15-20 per tooth). Microraptor is similar in having crowns with unserrated mesial carinae and distal carinae with distally projecting serrations. It differs in having larger serrations in comparison to crown height (20-25 per tooth), longer blood grooves and a wider crown. Ornithurines (sensu Gauthier) have unserrated crowns without carinae and are very wide, so are similar to Archaeornithoides, but dissimilar to "Beelemodon". Dromaeosaurids also sometimes lack anterior serrations, are laterally compressed and have similar amounts of serrations (15-35), but are more recurved and lack basal constriction.
Therefore, the greatest resemblence is to Compsognathus, although a deinonychosaur might also be expected to evolve a similar tooth, judging by comparisons with Microraptor, Saurornitholestes and Morrison 'velociraptorine' teeth. Are there any theropods already known from the Morrison Formation that could have "Beelemodon" teeth? Although Morrison compsognathids are not known, both Coelurus and Ornitholestes are close phylogenetically and have poorly described or unknown teeth. Although reported Morrison 'velociraptorine' teeth lack constricted roots (Britt 1991), it is not inconceivable "Paleopteryx" had a mix of avian and dromaeosaur characters in its teeth, like Microraptor. The undescribed Morrison troodontid may have similar teeth, as its serrations are smaller than later troodontids, though the one tooth photographed so far has a more elongate crown. There are therefore several taxa to which "Beelemodon" could be reasonably referred. However, as it is currently impossible to chose one over another, they should be left separate. Given the amount of variation in serration number in a single theropod genus (Allosaurus- 20-35; Saurornitholestes- 15-35), there is no way to separate "Beelemodon" from Compsognathus at this point. Because of this, it must remain indeterminate. The fluting or serration morphology may eventually prove diagnostic, but this cannot be determined from the available literature. I recommend classifying "Beelemodon" as a provisionally indeterminate coelurosaurian nomen nudum until further research is done.
Reference- Bakker, 1997. Raptor family values: Allosaur parents brought great carcasses into their lair to feed their young. In Wolberg, Sump and Rosenberg (eds). Dinofest International, Proceedings of a Symposium, Academy of Natural Sciences. 51-63.

Iliosuchidae Paul, 1988
Iliosuchus Huene, 1932
I. incognitus Huene, 1932
= Megalosaurus incognitus (Huene, 1932) Romer, 1966
Middle Bathonian, Middle Jurassic
Stonesfield Slate, England

Holotype- (BMNH R83) incomplete ilium
Referred- (OUM J29780) partial ilium (~93 mm) (Galton, 1976)
Comments- Foster and Chure (2000) and Galton and Molnar (2005) referred OUM J28971 to Iliosuchus, but it was removed by Benson (2009).
This taxon is traditionally allied with Stokesosaurus and thus with tyrannosauroids due to the vertical ilial ridge. The concave anterior edge on the pubic peduncle is also a tyrannosauroid-like character. Yet both are actually widespread among basal coelurosaurs. The ilial ridge was lost in coelurosaurs as close to birds as compsognathids though, so Iliosuchus is probably less derived than that family. The reduced ischial peduncle is similar to coelurosaurs and Concavenator, and the mediolaterally narrow pubic peduncle is similar to most avetheropods. Benson and Carrano et al. (2012) considered Iliosuchus an indeterminate avetheropod or juvenile Megalosaurus, despite not considering Megalosaurus to be an avetheropod. Yet Iliosuchus differs from Megalosaurus in the characters noted above (Megalosaurus' vertical ridge is much lower) in addition to having a more anteriorly angled pubic peduncle which lacks a concave posterior margin. It may also possess a unique combination of characters when compared to other taxa, even if it lacks autapomorphies. It is provisionally retained here as a valid genus of coelurosaur.
References- Phillips, 1871. Geology of Oxford and the Valley of the Thames: Oxford at the Clarendon Press. 523 pp.
Huene, 1932. Die fossile Reptil-Ordnung Saurischia, ihre Entwicklung und Geschichte. Monographien zur Geologie und Palaeontologie. 4(1), viii + 361 pp.
Galton, 1976. Iliosuchus, a Jurassic dinosaur from Oxfordshire and Utah. Palaeontology. 19, 587-589.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster, New York.
Foster and Chure, 2000. An ilium of a juvenile Stokesosaurus (Dinosauria, Theropoda) from the Morrison Formation (Upper Jurassic: Kimmeridgian), Meade County, South Dakota. Brigham Young University Geology Studies. 45, 5-10.
Galton and Molnar, 2005. Tibiae of small theropod dinosaurs from Southern England. In Carpenter (Ed.). The Carnivorous Dinosaurs. 3-22.
Benson, 2009. An assessment of variability in theropod dinosaur remains from the Bathonian (Middle Jurassic) of Stonesfield and New Park Quarry, UK and taxonomic implications for Megalosaurus bucklandii and Iliosuchus incognitus. Palaeontology. 52(4), 857-877.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.

"Kagasaurus" Hisa, 1988
Hauterivian, Early Cretaceous
Kuwajima Formation of the Itoshiro Subgroup of the Tetori Group, Japan
Material
- (FPM 85050-1; Kaga-ryu) (~6 m) partial anterior tooth (>19.5 mm) (Manabe et al., 1989)
? tooth (Azuma, 1991)
Comments- The first tooth was discovered in 1985 and referred to Carnosauria. This was illustrated and described in detail by Manabe et al. (1989), who assigned it to Carnosauria fam. indet.. This was based on comparison to a supposedly carnosaurian tooth (NSMP17178-17180) from Lufeng. Between 1985 and 1990 an additional tooth was discovered, referred to Megalosauridae indet (Azuma, 1991). Hisa (1988) referred to at least one of the teeth as "Kagasaurus", which is a nomen nudum because it wasn't associated with a description. Manabe et al. state FPM 85050-1 has the nickname Kaga-ryu, while Azuma calls both teeth Kaga-ryu. Dong et al. (1990) regard the teeth as Megalosauridae indet.. Whether both teeth are referrable to the same taxon is unknown, as the second has yet to be described.
FPM 85050-1 preserves on the the basal two-thirds of a tooth with a FABL 10.6 mm and a basal width of 5.6 mm. The lingual face is flat and the labial one convex, indicating this is probably a premaxillary or anterior dentary tooth. The mesial carina lacks serrations, while the distal carina has 17 serrations per 5 mm. The serrations are rounded and angled slightly apically.
The flat lingual face is present in abelisaurids, at least some carnosaurs and most coelurosaurs (except those taxa which lack carinae). Abelisaurids and carnosaurs always have mesial serrations, often extending to the base of the crown. Some basal coelurosaurs and dromaeosaurids have anterior teeth which lack mesial serrations, making "Kagasaurus" likely to be a member of one of these groups.
References- Hisa, 1988. Utan Scientific Magazine. 4(24).
Manabe, Hasegawa and Azuma, 1989. Two new dinosaur footprints from the Early Cretaceous Tetori Group of Japan. Gillette and Lockley (eds.). Dinosaur Tracks and Traces. Cambridge University Press, Cambridge. 309-312.
Dong, Hasegawa and Azuma, 1990. The Age of Dinosaurs in Japan and China. Fukui, Japan: Fukui Prefectural Museum. 65 pp.
Azuma, 1991. Early Cretaceous Dinosaur Fauna from the Tetori Group, central Japan. Research on Dinosaurs from the Tetori Group (1). Professor S. Miura Memorial Volume, 55-69.

undescribed possible coelurosaur (Seeley, 1887)
Barremian, Early Cretaceous
Upper Weald Clay Formation of the Weald Clay Group, England

Material- incomplete pubis (Seeley, 1887)
Comments- Seeley (1887) mentions a "pubis, imperfect distally, of a type very similar to Coelurus, from Tilgate" when discussing Aristosuchus, though the specimen has not been located since.
Reference- Seeley, 1887. On Aristosuchus pusillus Owen, being further notes on the fossils described by Sir R. Owen as Poikilopleuron pusillus. Owen. Quarterly Journal of the Geological Society of London. 43, 221-228.

unnamed Coelurosauria (Lydekker, 1888)
Barremian, Early Cretaceous
Wessex Formation, England

Material- (BMNH R899) partial manual ungual (Lydekker, 1888)
(BMNH R5194) proximal femur (Galton, 1973)
(BMNH R6426) proximal ischium (Naish, 2002)
(BMNH R9230) tibia (171.8 mm) (Carrano, 1998)
(Dinosaur Expeditions Centre coll.) two distal metatarsals (Mattsson pers. comm., 2015)
(IWCMS 1995.208) ulna (Hutt, 2001)
(MIWG 5137) tibia (Naish, 1999)
(MIWG 5823) vertebra (Hutt, 2001)
(MIWG 5824) vertebra (Hutt, 2001)
Comments- Lydekker (1888) referred a manual ungual (BMNH R899) to Aristosuchus, but Naish (2002) notes it has a low and distally positioned flexor tubercle unlike the paratype ungual so may be from another species. It was illustrated in Naish et al. (2001).
BMNH R5194 was originally catalogued as Hypsilophodon, but described by Galton (1973) and referred to Aristosuchus.
Carrano (1998) listed the tibia R9230 as Calamosaurus foxi, though it has not been mentioned in the published literature to my knowledge.
Naish (1999) described the tibia MIWG 5137 as possibly being Aristosuchus. It has since been figured in Naish et al. (2001).
Hutt (2001) listed IWCMS 1995.208, MIWG 5823 and MIWG 5824 as Aristosuchus sp., but the specimens are undescribed.
Naish (2002) illustrated partial ischium BMNH R6426 as a possible Aristosuchus specimen.
Mattsson (pers. comm., 2015) informs me of two distal metatarsals discovered in 1996 and initially identified as testudine elements, which are now on display at the Dinosaur Expeditions Centre.
These specimens may belong to Aristosuchus, Calamosaurus, Calamospondylus (difficult to determine as the type is lost and poorly described), Ornithodesmus, Thecocoelurus and/or Yaverlandia and have been compared to basal tyrannosauroids, coelurids and compsognathids. Additionally, femur MIWG 6214 (Naish, 2000), tibia BMNH R186 (Lydekker, 1888), and the two fragmentary skeletons exhibited as Calamosaurus at the Dinosaur Expeditions Centre (Mattsson, pers. comm. 2015) may belong to the same taxa, though these have been recently hypothesized to be ornithomimosaurs (Allain et al., 2014).
References- Lydekker, 1888. Catalogue of the Fossil Reptilia and Amphibia in the British Museum (Natural History), Cromwell Road, S.W., Part 1. Containing the Orders Ornithosauria, Crocodilia, Dinosauria, Squamata, Rhynchocephalia, and Proterosauria. British Museum of Natural History, London. 309 pp.
Galton, 1973. A femur of a small theropod dinosaur from the Lower Cretaceous of England. Journal of Paleontology. 47, 996-1001.
Carrano, 1998. The evolution of dinosaur locomotion: Functional morphology, biomechanics, and modern analogs. PhD Thesis, The University of Chicago. 424 pp.
Naish, 1999. Studies on Wealden Group theropods - An investigation into the historical taxonomy and phylogenetic affinities of new and previously neglected specimens. Masters thesis, University of Portsmouth. 184 pp.
Naish, 2000. A small, unusual theropod (Dinosauria) femur from the Wealden Group (Lower Cretaceous) of the Isle of Wight, England. Neues Jahrbuch für Geologie und Paläontologie Monatshefte. 2000, 217-234.
Hutt, 2001. Catalogue of Wealden Group Dinosauria in the Museum of Isle of Wight Geology. In Martill and Naish (eds). Dinosaurs of the Isle of Wight. The Palaeontological Association. 411-422.
Naish, Hutt and Martill, 2001. Saurichian dinosaurs 2: Theropods. In Martill and Naish (eds). Dinosaurs of the Isle of Wight. The Palaeontological Association. 242-309.
Naish, 2002. The historical taxonomy of the Lower Cretaceous theropods (Dinosauria) Calamospondylus and Aristosuchus from the Isle of Wight. Proceedings of the Geologists' Association. 113, 153-163.
Naish, 2011. Theropod dinosaurs. In Batten (ed.). English Wealden Fossils. The Palaeontological Association. 526-559.
Allain, Vullo, Le Loeuff and Tournepiche, 2014. European ornithomimosaurs (Dinosauria, Theropoda): An undetected record. Geologica Acta. 12(2), 127-135.

unnamed Coelurosauria (Ostrom, 1970)
Late Aptian, Early Cretaceous
Cloverly Formation, Montana, Wyoming, US
Material
- (AMNH coll.) pedal phalangeal fragment
(YPM 5174) incomplete metatarsal II
(YPM 5284) incomplete metatarsal IV
(YPM 5286) incomplete pedal ungual (~35 mm)
Comments- Ostrom (1970) referred these to Ornithomimus sp. based on being supposedly virtually indistinguishable from O. velox, though he did note the ungual was not identical to ornithomimids'. However, Holtz (1992) noted the metatarsals were more robust than ornithomimids', that there are no facets or buttresses for a wedge-shaped metatarsal III, and that metatarsal II resembled Allosaurus and Ornitholestes posteriorly more than it does ornithomimids. Indeed, judging by Ostrom's figure, metatarsal II differs from Ornithomimus in having a less ventrally oriented medial condyle and more proximally placed ventral convexity, while metatarsal IV lacks the marked posterior buttress and has more transversely expanded condyles. The pedal ungual has a more developed posterodorsal process, more obvious side grooves, and less developed side flanges. It resembles Dromiceiomimus in these characters except for the side flange development. Even basal ornithomimosaurs like Harpymimus, Garudimimus and Beishanlong seem more like ornithomimids in having distally placed ventral convexity on metatarsal II and less expanded distal condyles on metatarsal IV, so the metatarsals may be from a taxon like Nedcolbertia, Microvenator or another coelurosaur. The ungual does resemble those of ornithomimids, but not those of basal ornithomimosaurs. The specimens did not belong to the same individuals, and may be from different taxa as well.
References- Ostrom, 1970. Stratigraphy and paleontology of the Cloverly Formation (Lower Cretaceous) of the Bighorn Basin area, Wyoming and Montana. Peabody Mus. Nat. Hist., Yale Univ., Bull. 35, 234 pp.
Holtz, 1992. An unusual structure of the metatarsus of Theropoda (Archosauria: Dinosauria: Saurischia) of the Cretaceous. PhD Thesis, Yale University. 347 pp.

possible Coelurosauria (Jurcsak, 1982)
Berriasian-Hauterivian, Early Cretaceous
Bauxite of Cornet, Romania

Material- (MTCO 16499) cervical vertebra
(MTCO 17245) caudal centrum
Comments- These were assigned to Aristosuchus sp. by Jurcsak (19820 and Jucsak and Popa (1983). They may not belong to the same taxon, and the relationship of either with Aristosuchus is uncertain.
References- Jurcsak, 1982. Occurrences nouvelles des Sauriens mesozoiques de Roumanie. Vertebrata Hungarica. 21, 175-184.
Jurcsak and Popa, 1983. La faune de dinosauriens du Bihor (Roumanie). In Buffetaut, Mazin and Salmon (eds.). Actes du Symposium paleontologique Georges Cuvier. 325-335.

unnamed possible coelurosaur (Marshall, 1989)
Maastrichtian, Late Cretaceous
El Molino Formation, Bolivia
Material
- (MHNC 3702) incomplete tooth (~18 mm)
Comments- Marshall (1989) referred this to Coelurosauria based on its small size, but based on the completely serrated carinae and absence of wrinkles, it may be a juvenile abelisaur instead.
Reference- Marshall, 1989. El primer diente de dinosaurio en Bolivia. Revista Técnica de Yacimientos Petrolíferos Fiscales Bolivia. 10(3-4), 129-130.

undescribed Coelurosauria (Metcalf and Walker, 1994)
Early Bathonian, Middle Jurassic
Chipping Norton Formation, England
Material
- (GLRCM coll.; B) tooth (2.3 mm; FABL 2.6 mm)
(GLRCM coll.; G) tooth (1.9 mm; FABL 1.7 mm)
Comments- These two teeth were labeled as "dromaeosaur-like" by Metcalf and Walker (1994).
Teeth B and G in their figure 18.7 exhibit similar morphology, so may belong to the same taxon. Mesial serrations are present apically, while the crowns are short and slightly recurved. B and G have DSDIs of 1.17 and 1.4 respectively. Serrations are fairly flat and not hooked apically, but are taller than wide on the distal carina. Serration density is 5-6/mm on B, and 12/mm on G. G may have a constricted base, though blood grooves are not apparent on either specimen.
They resemble those referred to posterior teeth of cf. Compsognathus sp. by Zinke (1998) except that B has a slightly lower serration count.
References- Metcalf and Walker, 1994. A new Bathonian microvertebrate locality in the English Midlands. in Fraser and Sues (eds.). In the Shadow of the Dinosaurs- Mesozoic Small Tetrapods, Cambridge (Cambridge University Press). 322-332.
Zinke, 1998. Small theropod teeth from the Upper Jurassic coal mine of Guimarota (Portugal). Palaontologische Zeitschrift. 72(1/2) 179-189.

unnamed Coelurosauria (Rich and Vickers-Rich, 1994)
Early Aptian, Early Cretaceous
Wonthoggi Formation of the Strzelecki Group, Victoria, Australia
Material
- (NMV P186353) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P186457) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P198947) tooth (21 x 9.5 x 5 mm) (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P198958) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P199070) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P210025) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P210084) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P212859) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P221187) (juvenile) dorsal centrum (60 mm) (Kool, 1997)
(NMV P221204) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P221205) tooth (3.5 x 2 x 1 mm) (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P229111) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P230871) tooth (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV coll.) 14 anterior teeth (mean 10 mm), 75 lateral teeth (mean 11.1 mm) (Benson, Rich, Vickers-Rich and Hall, 2012)
Comments- Rich and Vickers-Rich (1994) reported the first eight theropod teeth to be discovered at the Flat Rocks site, more of which were reported in successive Dinosaur Dreaming field reports and briefly mentioned in papers describing new taxa from the site. They have recently been described by Benson et al. (2012), who state more detailed work is being done by Salisbury, Currie and Novas on the more than ninety teeth known by then. While Kool (2003) noted that preliminary study by Currie of the forty teeth known at the time indicated the presence of four taxa of small theropod, and Rich (2004) stated study by Salisbury indicated three taxa, Benson et al. described only one morphology as being present. Rich and Vickers-Rich identified the teeth as dromaeosaurid, which has been followed by most later authors who identified them past Theropoda. This was based on the lack of mesial serrations, but this is known in many other coelurosaurs (e.g. Orkoraptor, compsognathids, most troodontids). Benson et al. labeled them as possible megaraptorans.
NMV P221187 was first reported by Kool (1997) as a juvenile theropod. Benson et al. referred this to Neovenatoridae instead of Tyrannosauridae based on the ventral median keel, but this is present in Tyrannosaurus and other coelurosaurs as well.
References- Rich and Vickers-Rich, 1994. Digs at Dinosaur Cove and Flat Rocks 1994. Excavation Report. Dinosaur Cove 1993 - 1994 & Inverloch 1994. 10-13.
Kool, 1997. Dinosaur Dreaming 1997 Field Report. Dinosaur Dreaming 1997. Flat Rocks Site Report. 1-2.
Kool, 2003. Dinosaur Dreaming 2003: Field report. Dinosaur Dreaming 2003 Report. 3-11.
Rich, 2004. Research update. Dinosaur Dreaming 2004 Field Report. 7-9.
Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polar diversity and climate-driven dinosaur provinciality. PLoS ONE. 7(5), e37122.

unnamed Coelurosauria (Rich and Vickers-Rich, 1994)
Early Albian, Early Cretaceous
Eumeralla Formation of the Otway Group, Victoria, Australia
Material
- (NMV 180880) incomplete pubis (Benson, Rich, Vickers-Rich and Hall, 2012)
(NMV P186343) (small) tooth (Rich and Vickers-Rich, 1994)
(NMV P230845) incomplete femur (Benson, Rich, Vickers-Rich and Hall, 2012)
Comments- NMV P186343 was mentioned by Rich and Vickers-Rich (1994) as a theropod tooth. Currie et al. (1996) believed it was dromaeosaurid-like. It is possibly the specimen photographed on Pigdon's website, which is highly recurved, with only distal serrations (2.5-3/mm). Besides basal dromaeosaurids, this is known in many other coelurosaurs (e.g. Orkoraptor, compsognathids, most troodontids).
References- Rich and Vickers-Rich, 1994. Dig at Dinosaur Cove 1993. Excavation Report. Dinosaur Cove 1993 - 1994 & Inverloch 1994. 1-8.
Currie, Vickers-Rich and Rich, 1996. Possible oviraptorosaur (Theropoda, Dinosauria) specimens from the Early Cretaceous Otway Group of Dinosaur Cove, Australia. Alcheringa. 20(1-2), 73-79.
Rich and Vickers-Rich, 1997. Future directions for dinosaur research in Australia. in Wolberg, Stump and Rosenberg (eds). Dinofest International, Proceedings of a Symposium sponsered by Arizona State University. A Publication of The Academy of Natural Sciences. 275-277.
Long, 1998. Dinosaurs of Australia and New Zealand and other animals of the Mesozoic Era. Harvard University Press. 192 pp.
http://home.alphalink.com.au/~dannj/austdino.htm
Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polar diversity and climate-driven dinosaur provinciality. PLoS ONE. 7(5), e37122.

undescribed coelurosaur (Kirkland, Lucas and Estep, 1998)
Early Albian, Early Cretaceous
Ruby Ranch Member of Cedar Mountain Formation, Utah, US

Material- tibia
Comments- Kirkland et al. (1998) list Coelurosauridae new genus and species under the Middle Cedar Mountain Formation, which includes the Ruby Ranch and Poison Strip Members. Coelurosauridae is a misspelling of Coelurosauria. Kirkland (online) stated the tibia of a small theropod is known, which is presumably the same record.
Reference- Kirkland, Lucas and Estep, 1998. Cretaceous dinosaurs of the Colorado Plateau. in Lucas, Kirkland and Estep (eds.). Lower and Middle Cretaceous Terrestrial Ecosystems. New Mexico Museum of Natural History and Science Bulletin. 14, 79-89.
Kirkland, online. https://scientists.dmns.org/sites/kencarpenter/Cedar%20Mountain%20storage/Dinosaurs.aspx

unnamed probable coelurosaur (Molnar, 1999)
Albian, Early Cretaceous
Griman Creek Formation, New South Wales, Australia
Material
- (AM F103591) (juvenile) partial dorsal centrum
Comments- Molnar (1999) found this most closely resembles "Ichthyornis" minusculus, an enantiornithine. This was based on the D-shaped articular surface, which differs from Ichthyornis' circular surface. However, taxa such as Confuciusornis and Microraptor also have D-shaped articulations, as do some of Microvenator's centra. Unfortunately, the distribution is hard to establish since small theropods generally don't preserve dorsal centra in anterior or posterior view. The small size (centrum height 5.9 mm) probably constrains it to Coelurosauria, even though it is a juvenile.
Reference- Molnar, 1999. Avian tibiotarsi from the Early Cretaceous of Lightning Ridge, N.S.W. In Tomida, Rich and Rich (eds). Proceedings of the Second Gondwanan Dinosaur Symposium, National Sciences Museum Monographs. 15, 197-209.

unnamed possible Coelurosauria (Barco and Ruiz-Omeñaca 2001)
Tithonian-Berriasian, Late Jurassic-Early Cretaceous
Villar del Arzobispo Formation, Spain
Material
- (LC-1) partial tooth (?x15.1x10.2 mm) (Suñer, Santisteban and Galobart, 2005)
(MPZ01/98) partial tooth (Barco and Ruiz-Omeñaca 2001)
References- Barco and Ruiz-Omeñaca, 2001. Primeros dientes de terópodos (Dinosauria, Saurischia) en la Formación Villar del Arzobispo (Titónico-Berriasiense): Yacimientos Cuesta Lonsal y Las Cerradicas 2 (Galve, Teruel). Publicaciones del Seminario de Paleontología de Zaragoza. 5, 239-246.
Suñer, Santisteban and Galobart, 2005. Nuevos restos de Theropoda del Jurásico Superior-Cretácico Inferior de la Comarca de Los Serranos (Valencia). Revista Española de Paleontologia. N. Extra X, 93-99.

unnamed possible coelurosaur (Clark, 2005)
Late Bajocian-Early Bathonian, Middle Jurassic
Vlatos Sandstone Formation, Scotland
Material
- (GLAHM 101240) (~2 m) incomplete mid caudal vertebra (31 mm)
Comments- While it was originally referred to Coelophysoidea (Clark, 2005), Brusatte and Clark (2015) found the vertebra is most similar to basal coelurosaurs.
References- Clark, 2005. Tracking dinosaurs in Scotland. Open University Geological Society Journal. 26, 30-35.
Brusatte and Clark, 2015. Theropod dinosaurs from the Middle Jurassic (Bajocian-Bathonian) of Skye, Scotland. Scottish Journal of Geology. 51(2), 157-164.

unnamed Coelurosauria (Knoll and Ruiz-Omenaca, 2005)
Beriassian, Early Cretaceous
Ksar Metlili Formation, Morocco
Material
- (MNHN SA 2004/1; Morphotype I) tooth (?x8.2x4 mm)
(MNHN SA 2004/3C; Morphotype I) tooth (2.8x1.8x.7 mm)
(MNHN SA 2004/3E; Morphotype I) tooth (3.4x1.9x.8 mm)
(MNHN SA 2004/3F; Morphotype I) tooth (?x?x.6 mm)
(MNHN SA 2004/4B; Morphotype I) tooth (1.5x1.1x.4 mm)
(MNHN SA 2004/4D; Morphotype I) tooth (2.3x1.5x.9 mm)
(MNHN SA 2004/4E; Morphotype III) tooth (?x1.6x.7 mm)
(MNHN SA 2004/5A; Morphotype II) tooth (?x2.6x1.3 mm)
(MNHN SA mcm 153; Morphotype I) partial tooth (?x1.9x1 mm)
(MNHN SA mcm 162; Morphotype I) tooth (1.5x1.2x.5 mm)
(MNHN SA mcm 166; Morphotype I) tooth (1.5x?x.6 mm)
Comments- These are referred to Maniraptora by Knoll and Ruiz-Omenaca (2009) as they lack mesial serrations. However, these are also absent in several other coelurosaurs (e.g. Orkoraptor, Sinocalliopteryx).
Reference- Knoll and Ruiz-Omenaca, 2005. Theropod teeth from the Berriasian of Anoual (Morocco). Journal of Vertebrate Paleontology. 25(3), 78A.
Knoll and Ruiz-Omenaca, 2009. Theropod teeth from the basalmost Cretaceous of Anoual (Morocco) and their palaeobiogeographical significance. Geological Magazine. 146(4), 602-616.

undescribed coelurosaur (Gasulla, Ortega, Escaso and Sanz, 2006)
Early Aptian, Early Cretaceous
Arcillas de Morella Formation, Spain
Material
- (CMP-3-743) distal tibia
Reference- Gasulla, Ortega, Escaso and Sanz, 2006. Diversidad de terópodos del Cretácico Inferior (Fm. Arcillas de Morella, Aptiense) en los yacimientos del Mas de la Parreta (Morella, Castellón). In Fernández-Martínez (ed.). XXII Jornadas de Paleontología de la Sociedad Española de Paleontología. Libro de resúmenes, 124-125.

unnamed coelurosaur (Canudo, Filippi, Salgado, Garrido, Cerda, Garcia and Otero, 2009)
Late Coniacian-Early Santonian, Late Cretaceous
Plottier Formation of the Rio Neuquen Subgroup, Neuquen, Argentina
Material
- (MAU-PV-PH-447/1) tooth (~23.3 mm)
(MAU-PV-PH-447/3) tooth (21.2 mm)
(MAU-PV-PH-447/5) tooth (19.6 mm)
(MAU-PV-PH-447/8) tooth (14.14 mm)
(MAU-PV-PH-462) tooth
Comments- Canudo et al. (2009) referred these to Maniraptora based on the absence of mesial serrations, but this is known for several more basal theropods too.
Reference- Canudo, Filippi, Salgado, Garrido, Cerda, Garcia and Otero, 2009. Theropod teeth associated with a sauropod carcass in the Upper Cretaceous (Plottier Formation) of Rincón de los Sauces. Actas de las IV Jornadas Internacionales sobre Paleontología de Dinosaurios y su Entorno. 321-330.

undescribed coelurosaur (Austen, Brockhurst and Honeysett, 2010)
Valanginian, Early Cretaceous
Wadhurst Clay of the Hastings Group, England
Material
- (BEXHM : 2010.3) cervical centrum
Comments- Austen et al. (2010) compared this to Ornithodesmus, but Naish and Sweetman (2011) correctly noted they do not share comparable elements.
References- Austen, Brockhurst and Honeysett, 2010. Vertebrate fauna from Ashdown Brickworks, Bexhill, East Sussex. Wealden News. 8, 13-23.
Naish and Sweetman, 2011. A tiny maniraptoran dinosaur in the Lower Cretaceous Hastings Group: Evidence from a new vertebrate-bearing locality in southeast England. Cretaceous Research. 32(4), 464-471.

undescribed coelurosaur (Torices, Barroso-Barcenilla, Cambra-Moo, Perez and Serrano, 2011)
Late Campanian-Early Maastrichtian, Late Cretaceous
Villalba de la Sierra Formation, Spain
Material
- ungual
Comments- Torices et al. (2011) mention Coelurosauridae indet..
Reference- Torices, Barroso-Barcenilla, Cambra-Moo, Perez and Serrano, 2011. Vertebrate microfossil analysis in the palaeontological site of 'Lo Hueco' (Upper Cretaceous, Cuenca, Spain). Journal of Vertebrate Paleontology. Program and Abstracts 2011, 205.

unnamed coelurosaur (Azevedo, Simbras, Furtado, Candeiro and Bergqvist, 2012)
Campanian-Maastrichtian, Late Cretaceous
Presidente Prudente Formation, Brazil
Material
- (UFRJ-DG 390-R) proximal fibula
Reference- Azevedo, Simbras, Furtado, Candeiro and Bergqvist, 2012. First Brazilian carcharodontosaurid and other new theropod dinosaur fossils from the Campanian-Maastrichtian Presidente Prudente Formation, São Paulo State, Southeastern Brazil. Cretaceous Research. 40, 131-142.

unnamed possible coelurosaur (Lanser and Heimhofer, 2015)
Late Barremian-Early Aptian, Early Cretaceous
Balve-Beckum quarry, Germany
Material
- (LWL MN Ba 14) anterior tooth (12.7x5.5x4.6 mm)
Reference- Lanser and Heimhofer, 2015. Evidence of theropod dinosaurs from a Lower Cretaceous karst filling in the northern Sauerland (Rhenish Massif, Germany). Paläontologische Zeitschrift. 89(1), 79-94.

Xinjiangovenator Rauhut and Xu, 2005
X. parvus Rauhut and Xu, 2005
Early Cretaceous
Lianmugin Formation of Tugulu Group, Xinjiang, China

Holotype- (IVPP V 4024-2) (2.5-4.2 m) tibia (312 mm including tarsal), fibula, astragalus, calcaneum
Diagnosis- (after Rauhut and Xu, 2005) fibular condyle of tibia extending farther posteriorly than lateral side of proximal end of this bone; fibula with longitudinal groove on anterior side of proximal end.
Comments- The holotype was found in the same horizon (but a different site) as Phaedrolosaurus, and was originally referred to it.
The tibia is not fused with the fibula and astragalocalcaneum, contra Dong (1973).
Phylogenetic relationships- Rauhut and Xu (2005) ran Xinjiangovenator in an analysis that resulted with it being placed sister to Bagaraatan inside Paraves. They assigned it to Maniraptora incertae sedis. When added to a modified version of Senter's (2007) matrix, including the characters from Rauhut and Xu, Xinjiangovenator has a highly unstable position. It is at least as derived as Fukuiraptor and tyrannoraptorans, yet can be excluded from Tyrannosauroidea, Ornithomimosauria, Alvarezsauridae, Therizinosauria and Paraves. This makes it most probably an oviraptorosaur or basal coelurosaur.
References- Dong, 1973. Reports of paleontological expediation to Sinkiang (II), pterosaurian fauna from Wuerho, Sinkiang. Memoirs of the Institute of Vertebrate Paleontology and Paleoanthropology Academia Sinica. 11, 45-52.
Rauhut and Xu, 2005. The small theropod dinosaurs Tugulusaurus and Phaedrolosaurus from the Early Cretaceous of Xinjiang, China. Journal of Vertebrate Paleontology. 25(1), 107-118.

Megaraptora Benson, Carrano and Brusatte, 2010
= "Megaraptora" Benson, Carrano and Brusatte, 2009 online
Definition- (Megaraptor namunhuaiquii <- Baryonyx walkeri, Chilantaisaurus tashuikouensis, Neovenator salerii, Carcharodontosaurus saharicus, Allosaurus fragilis, Tyrannosaurus rex, Passer domesticus) (Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013)
Other definitions- (Megaraptor namunhuaiquii <- Chilantaisaurus tashuikouensis, Neovenator salerii, Carcharodontosaurus saharicus, Allosaurus fragilis) (Benson, Carrano and Brusatte, 2010)
Comments- Benson et al.'s paper was originally released online in November 2009 but not officialy published until January 2010.
The taxa included in this clade have had a controversial history. Hucknull et al. (2009) noted similarities between Australovenator, Fukuiraptor and "Allosaurus" "robustus". I noted early on (online, 2008) that Aerosteon and Orkoraptor were extremely similar. Benson et al. (2010) were the first to propose a relationship between all of these taxa though, along with Megaraptor. They placed them in their new clade Megaraptora, which they found to be sister to Chilantaisaurus and Neovenator within Carcharodontosauridae (their Carcharodontosauria). While my analysis incorporating their data agrees megaraptorans form a clade, it places that clade in Coelurosauria. Notably, Benson et al. only include three coelurosaurs in their analysis, so did not test strongly for this possibility. Novas et al. (2013) later reevaluated Benson et al.'s characters and used a different dataset to place megaraptorans in Tyrannosauroidea, more derived than Dilong and proceratosaurids, sister to Xiongguanlong and tyrannosaurids. This was strengthened by the description of Megaraptor's Dilong-like skull by Porfiri et al. (2014) and their analysis,
Unfortunately, the original definition of Megaraptora assumes a carnosaurian relationship, so does not include any coelurosaur external specifiers and would be synonymous with Coelurosauria in my and Novas et al.'s (2013) phylogenies. To avoid this, Novas et al. added Passer domesticus and Tyrannosaurus rex to the definition.
References- Mortimer, online 2008. http://scienceblogs.com/tetrapodzoology/2008/10/unhappy_with_aerosteon.php#comment-1144175
Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009. New Mid-Cretaceous (Latest Albian) dinosaurs from Winton, Queensland, Australia. PLoS ONE. 4(7), e6190.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.

unnamed megaraptoran (Huene, 1929)
Mid Cenomanian-Turonian, Late Cretaceous
Lower Bajo Barreal Formation, Chubut, Argentina
Material
- (Ameghino coll.) distal caudal centrum (115 mm)
Comments- Huene (1929) assigned this to an otherwise unknown group of theropods, derived in having caudal pleurocoels. Mendez et al. (2012) noted strong resemblences to their new Brazilian megaraptoran caudal MPMA 08-003-94, showing Huene was correct.
References- Huene, 1929. Los Saurisquios y Ornitisquios del Cretáceo Argentino. Anales del Museo de La Plata (Serie 2). 3, 1-194.
Mendez, Novas and Iori, 2012. First record of Megaraptora (Theropoda, Neovenatoridae) from Brazil. Comptes Rendus Palevol. 11, 251-256.

undescribed Megaraptora (Porfiri, Calvo, Juárez Valieri and Santos, 2008)
Santonian, Late Cretaceous
Bajo de la Carpa Formation Rio Colorado Subgroup, Neuquen, Argentina
Material
- (MAU-Pv-LI-548) two vertebrae (Mendez, Filippi and Garrido, 2015)
?(MUCPv-1162) (~8 m) seven dorsal vertebrae, partial ribs, five sacral vertebrae, incomplete ilium, incomplete ?ischium (Porfiri, Calvo, Juárez Valieri and Santos, 2008)
Comments- Porfiri et al. (2008) announced MUCPv-1162 as a tetanurine, "possibly an allosauroid related to the Carcharodontosauridae." Novas et al. (2013) suggested it may be megaraptoran based on the "complex pneumatic dorsal and sacral vertebrae with tall neural spines inclined forward."
References- Porfiri, Calvo, Juárez Valieri and Santos, 2008. A new large theropod dinosaur from the Bajo de La Carpa Formation (Late Cretaceous) of Neuquén, Patagonia. III Congreso Latinoamericano de Paleontología de Vertebrados. R202.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Mendez, Filippi and Garrido, 2015. Nuevos hallazgos de dinosaurios teropodos provenientes del sitto la invernada (Formacion Fajo de la Carpa), Rincon de los Sauces, Neuquen. XXIX Jornadas Argentinas de Paleontología de Vertebrados, resumenes. Ameghiniana. 52(4) suplemento, 28-29.

unnamed Megaraptora (Benson, Rich, Vickers-Rich and Hall, 2012)
Early Aptian, Early Cretaceous
Wonthoggi Formation of the Strzelecki Group, Victoria, Australia
Material
- (NMV P186153) (~8-9 m) partial manual ungual ?I
(NMV P208096) mid caudal centrum (36 mm)
Reference- Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polar diversity and climate-driven dinosaur provinciality. PLoS ONE. 7(5), e37122.

unnamed megaraptoran (Mendez, Novas and Iori, 2012)
Maastrichtian, Late Cretaceous
Sao Jose do Rio Preto Formation, Brazil
Material
- (MPMA 08-003-94) distal caudal centrum (118 mm)
Reference- Mendez, Novas and Iori, 2012. First record of Megaraptora (Theropoda, Neovenatoridae) from Brazil. Comptes Rendus Palevol. 11, 251-256.

unnamed possible neovenatorid (Krumenacker and Scofield, 2015)
Late Albian-Cenomanian, Early-Late Cretaceous
Wayan Formation, Idaho, US
Material
- (IMNH 2251/49872) (juvenile) anterior dorsal centrum (49.9 m)
Reference- Krumenacker, Simon, Scofield and Varricchio, 2016. Theropod dinosaurs from the Albian-Cenomanian Wayan Formation of eastern Idaho. Historical Biology. DOI: 10.1080/08912963.2015.1137913

"Allosaurus" "robustus" Chure, 2000 vide Glut, 2003
Early Aptian, Early Cretaceous
Wonthoggi Formation of Strzelecki Group, Victoria, Australia

Material- (NMV Pl50070) (~4.8 m) astragalus (~108 mm wide)
Diagnosis- (suggested) astragalar ascending process tall as in other coelurosaurs; astragalar ascending process is primitively restricted to the lateral body compared to Fukuiraptor, Australovenator and other coelurosaurs except Coelurus. Differs from Coelurus in plesiomorphically having a bulbous medial condyle in anterior view.
Other diagnoses- Of the characters listed by Molnar et al. (1980), the astragalus does not seem more robust than Fukuiraptor. The absence of a pit on the posterior base of the astragalar ascending process is primitive. Many other taxa such as Torvosaurus, Sinraptor, Fukuiraptor, Australovenator, Coelurus and Appalachiosaurus have the vertical groove on the posterior face of the ascending process.
Comments- Chure (2000) is the first person to publish the name Allosaurus "robustus", previously confined to a museum label. Names in theses aren't usually listed in this website, and this one is only because it was later published by Glut (2003). Glut's work includes a caveat to the effect that it is not available to establish new taxonomy however, so the name remains unofficial.
Molnar et al. (1981) initially described this specimen as Allosaurus sp., which was disputed by Welles (1983) who argued it resembled 'ornithomimoid' tarsi more. Molnar et al. (1983) countered Welles, though no other supposed allosaurid genera were compared in either of Molnar et al.'s works. In addition, Welles' 'ornithomimoid' type refers to a grade of tarsus encompassing Maniraptoriformes, and not ornithomimosaurs in particular. Chure (1998) again disputed an allosaurid relationship in an abstract, though he acknowledged it could be allosauroid. This was elaborated on in Chure's (2000) thesis, where he assigns it to Avetheropoda, but not Allosauridae. The resolution of "robustus"' identity occured when Azuma and Currie (2000) described their new supposed basal carnosaur Fukuiraptor, which has an extremely similar astragalus. Subsequently, Hocknull et al. (2009) found their new supposed basal carcharodontosaurid Australovenator was extremely similar to Fukuiraptor and "robustus" as well, referring the latter to Australovenator sp.. Benson et al. (2010) agreed these three taxa were closely related, creating the clade Megaraptora for them and viewing "robustus" as an indeterminate member. Comparing all three taxa, the ascending process reaches further laterally and angles more laterally in Fukuiraptor and "robustus" than in Australovenator. The ascending process is pointed and 20% taller in Fukuiraptor than Australovenator or "robustus". It reaches further medially in Fukuiraptor and Australovenator compared to "robustus". The ventomedial angle of the astragalar body is intermediate in Fukuiraptor between Australovenator and "robustus". In both Fukuiraptor and "robustus", the transverse condylar groove angles dorsomedially, whereas it angles ventromedially in Australovenator. Fukuiraptor and Australovenator have a shorter straight lateroventral edge to the astragalar body. Thus there seems no reason to believe "robustus" is closer to Australovenator than to Fukuiraptor, besides provenance. As Megaraptora has recently been placed in both Allosauroidea and Coelurosauria by different authors, Molnar's and Welles' early arguments were each prescient and Chure's compromise accurate.
Agnolin et al. (2005) argued "robustus" was probably an abelisauroid, which was officially published by Agnolin et al. (2010). They argued several characters support this. They claim the ascending process lacks apical tapering, but both "robustus" and Australovenator have a roughly parallel basal portion and a tapered apical portion created by a medal slope. The difference is one of degree, where the slope in "robustus" is longer. A vertical groove on the posterior ascending process' surface probably corresponds to the ridge found in the middle of the process' articular surface in some abelisauroid tibiae. The ridge has since been identified in numerous tetanurines including the megaraptoran Aerosteon, and both Australovenator and Fukuiraptor exhibit the groove. The anterior ridge along the lateral ascending process' edge is caused by the fibula articulating along that edge. This was originally thought to be an Allosaurus character by Molnar et al., and said to be present in Xenotarsosaurus by Agnolin et al., but is found in several other theropods including Fukuiraptor as well. Finally, their 2010 paper argued "robustus" has a broad posterior ascending process peaking near the middle of the astragalar body, but according to Molnar et al.'s original stereophotos, this is a misinterpretation. Instead, the labeled "plap" is merely the posterior wall of the normal ascending process, and the lower medially placed posterior ascending process is like that in Fukuiraptor and Australovenator. I conclude there is no reason to doubt "robustus"' megaraptoran placement, and similar arguments were made by Fitzgerald et al. (2012).
References- Molnar, Flannery and Rich, 1981. An allosaurid theropod dinosaur from the early Cretaceous of Victoria, Australia. Alcheringa. 5, 141-146.
Welles, 1983. Allosaurus (Saurischia, Theropoda) not yet in Australia. Journal of Paleontology. 57, 196.
Molnar, Flannery and Rich, 1985. Aussie Allosaurus after all. Journal of Paleontology. 59, 1511-1513.
Chure, 1998. A reassessment of the Australian Allosaurus and its implications for the Australian refugium concept. Journal of Vertebrate Paleontology. 18(3), 34A.
Azuma and Currie, 2000. A new carnosaur (Dinosauria: Theropoda) from the Lower Cretaceous of Japan. Canadian Journal of Earth Sciences. 37(12), 1735-1753.
Chure, 2000. A new species of Allosaurus from the Morrison Formation of Dinosaur National Monument (Utah-Colorado) and a revision of the theropod family Allosauridae. Ph.D. dissertation, Columbia University, 1-964.
Glut, 2003. Dinosaurs - The Encyclopedia - Supplement 3. McFarland Press, Jefferson, NC.
Agnolin, Ezcurra and Pais, 2005. Systematic reinterpretation of the pigmy Allosaurus from the Lower Cretaceous of Victoria (Australia). Ameghiniana. 42, 13R.
Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009. New Mid-Cretaceous (Latest Albian) dinosaurs from Winton, Queensland, Australia. PLoS ONE. 4(7), e6190.
Agnolin, Ezcurra, Pais and Salisbury, 2010. A reappraisal of the Cretaceous non-avian dinosaur faunas from Australia and New Zealand: Evidence for their Gondwanan affinities. Journal of Systematic Palaeontology. 8(2), 257-300.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polar diversity and climate-driven dinosaur provinciality. PLoS ONE. 7(5), e37122.
Fitzgerald, Carrano, Holland, Wagstaff, Pickering, Rich and Vickers-Rich, 2012. First ceratosaurian dinosaur from Australia. Naturwissenschaften. 99, 397-405.

Rapator Huene, 1932
R. ornitholestoides Huene, 1932
Late Albian, Early Cretaceous
Griman Creek Formation, New South Wales, Australia

Holotype- (BMNH R3718) metacarpal I (70 mm)
Referred- ?(LRF 100-106) (~6 m) rib fragments, gastralial fragments, proximal ulna, proximal manual ungual ?I, ilial fragment, ?fibular fragments, incomplete metatarsal III (350 mm), fragments (Bell, Cau, Fanti and Smith, 2015)
Diagnosis- (after Hocknull et al., 2009) differs from Australovenator in- more concave proximal articular surface.
(after White et al., 2013) differs from Australovenator in- less tapered proximomedial process; more laterally concave distal shaft; medial condyle projects less medially due to less ventromedial angling; medial condyle angled less transversely; deeper trochlea both distally and ventrally; dorsal longitudinal ridge proximal to medial condyle; medial condyle transversely compressed in ventral view; more distally restricted metacarpal II facet; medial condyle only slightly concave medially in distal view; no transverse ridge on medial half of proximal surface; dorsal edge of proximal surface more concave.
(after Bell et al., 2015) proximal end of metatarsal III strongly asymmetrical in medial/lateral view with trapezoidal anterior process extending further distally along the shaft than the posterior process giving a ball-peen hammer-shaped profile; contact for metatarsal II on metatarsal III divided into anterior and posterior halves by shallow, longitudinal groove.
Differs from Australovenator in- more robust anterior process on ulna; more gracile manual ungual I with sharply defined median ridge on proximal articular surface; prominent, broad groove between articular facet and flexor tubercle on manual ungual I (also in Megaraptor); metatarsal III with well-developed lateral ridge on proximal shaft; distal articular surface of metatarsal III as wide as it is long.
Comments- Originally identified as a compsognathid metacarpal I similar to Ornitholestes and Oviraptor (Huene, 1932), Molnar (1992) suggested it was an abelisaurid based on biogeography. Headden (DML, 2000) later noticed similarities between it and alvarezsaurid phalanx I-1, which was the conclusion published by Holtz et al. (2004). Salisbury et al. (2007) stated it may belong to a Nqwebasaurus-like basal coelurosaur, presumably as a metacarpal I once more. Agnolin et al. (2010) confirmed it was a first metacarpal but found it to be most similar to Megaraptor and Australovenator, especially the latter. They incorrectly called it a nomen dubium, despite saying it and Australovenator differ from Megaraptor in having a more dorsoventrally developed mediodistal condyle and a metacarpal II facet lying in almost the same plane as the lateral margin of the shaft, and that it differs from Australovenator in several other features. Agnolin et al. made it a nomen dubium because of its fragmentary condition (irrelevant), the absence of autapomorphies (irrelevant given the unique combination of characters) and absence of clear differences with Australovenator (which could only make it a senior synonym of the latter, as no other taxon was presented as having no/subtle differences from Rapator). White et al. (2013) explicitly compared the two genera based on a more complete metacarpal I of Australovenator and digital scans of each, finding Rapator differs in numerous details. The authors viewed these as "sufficient differences to warrant assignment to separate genera", but this seems premature without analyzing variation in other taxa. The genera are kept separate here due to the combination of morphological and stratigraphic difference.
Bell et al. (2015) described a fragmentary postcranium from the same formation as Rapator. They referred to this as Megaraptoridae indet., though listed several characters distinguishing it from Australovenator and other megaraptorids. Given the locality and lack of megaraptoran diversity in other formations, this specimen is here provisionally referred to Rapator although it cannot be directly compared since metacarpal I is unpreserved.
References- Huene, 1932. Die fossile Reptil-Ordnung Saurischia, ihre Entwicklung und Geschichte. Monographien zur Geologie und Palaeontologie. 4(1), 361 pp.
Molnar, 1992. Paleozoogeographic relationships of Australian Mesozoic tetrapods. In Chatterjee and Hotton (eds.). New Concepts in Global Tectonics. Texas Technical Press, USA. 259-265.
http://dml.cmnh.org/2000Mar/msg00555.html
Holtz, Molnar and Currie, 2004. Basal Tetanurae. In Weishampel, Dodson and Osmolska (eds.). The Dinosauria Second Edition. University of California Press. 861 pp.
Salisbury, Agnolin, Ezcurra and Pias, 2007. A critical reassessment of the Creaceous non-avian dinosaur faunas of Australia and New Zealand. Journal of Vertebrate Paleontology. 27(3), 138A.
Agnolin, Ezcurra, Pais and Salisbury, 2010. A reappraisal of the Cretaceous non-avian dinosaur faunas from Australia and New Zealand: Evidence for their Gondwanan affinities. Journal of Systematic Palaeontology. 8(2), 257-300.
White, Falkingham, Cook, Hocknull and Elliott, 2013. Morphological comparisons of metacarpal I for Australovenator wintonensis and Rapator ornitholestoides: Implications for their taxonomic relationships. Alcheringa. 37(4), 435-441.
Bell, Cau, Fanti and Smith, 2015. A large-clawed theropod (Dinosauria: Tetanurae) from the Lower Cretaceous of Australia and the Gondwanan origin of megaraptorid theropods. Gondwana Research. DOI 10.1016/j.gr.2015.08.004

Chilantaisaurus Hu, 1964
C. tashuikouensis Hu, 1964
Aptian-Albian, Early Cretaceous
Ulanhushi Formation of the Dashigou Group, Nei Mongol, China

Lectotype- (IVPP V2884.1) humerus (580 mm)
Paralectotypes- (IVPP V2884.2) manual ungual I (250 mm straight, 260 mm along curve)
(IVPP V2884.3) fragmentary ilium
(IVPP V2884.4) femora (1.19 m)
(IVPP V2884.5) tibiae (954 mm)
(IVPP V2884.6) partial fibula
(IVPP V2884.7) metatarsal II (415 mm), metatarsals III (460 mm), incomplete metatarsals IV
Referred- ?(IVPP V2884.8; lost) tooth (Hu, 1964)
?(IVPP V2884) distal caudal centrum (Hu, 1964)
Diagnosis- (after Benson and Xu, 2008) subrectangular, anteromedially curving deltopectoral crest that protrudes almost as far anteriorly as it is long proximodistally and bears a pitted scar on its anterior surface; obliquely oriented ulnar condyle.
Comments- The paralectoptype specimens probably belong to the same individual as the lectotype humerus. A mid caudal vertebra (part of IVPP V2884) originally referred to Chilantaisaurus by Hu (1964) is that of a sauropod instead (Rauhut pers. comm. to Benson and Xu, 2008). The distal caudal centrum was referred to Dinosauria indet. by Benson and Xu, while they refer the tooth to Theropoda indet..
Relationships- Originally placed in Megalosauridae sensu lato by Hu (1964), both Paul (1988) and Molnar et al. (1990) considered it part of a paraphyletic Allosauridae more closely related to tyrannosaurids than Allosaurus and Acrocanthosaurus based on its posteriorly reduced metatarsal III. Chilantaisaurus was later identified as a megalosauroid by Chure (2000) and Rauhut (2000) based on its straight humerus and elongate manual ungual I. The latter author found it to be the sister taxon of Spinosauridae based on the form of the tibial surface that articulates with the astragalar ascending process, being a rounded medially limited ridge in both Chilantaisaurus and Cristatusaurus. Benson and Xu (2008) found that Chilantaisaurus had some characters suggestive of avetheropod affinities (m. cuppedicus fossa; proximally wedge-shaped metatarsal III), and shared a prominent ulnar epicondyle with allosauroids, and a weakly hooked preacetabular process and reduced fourth trochanter with coelurosaurs. Yet they also noted the anteriorly flat distal humerus and large humerofemoral ratio are unlike allosauroids. They noted that Coelurus also has a rounded medially limited ridge on its distal tibia, and that some avetheropods have straight humeri and an elongate manual ungual I too. The low astragalar ascending process is unlike coelurosaurs and most carnosaurs however. Most recently, Benson et al. (2010) and Carrano et al. (2012) found it to be a megaraptoran, while Novas et al. (2013) found it to be unresolved in Avetheropoda less derived than Tyrannoraptora(including megaraptorans)+Compsognathidae, and Porfiri et al. (2014) recovered it as the most basal coelurosaur.
When constrained in Carrano et al.'s matrix, it takes only one extra step to place it in Carcharodontosauridae, showing either position is about as likely. It takes 7 more steps to make it a spinosaurid, so this is less probable.
References- Hu, 1964. [Carnosaurian remains from Alashan, Inner Mongolia]. Vertebrata PalAsiatica. 8, 42-63.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster, New York. 464 pp.
Molnar, Kurzanov and Dong, 1990. Carnosauria. In Weishampel, Dodson and Osmolska (eds.). The Dinosauria. Berkeley: University of California Press. 169-209.
Chure, 2000. A new species of Allosaurus from the Morrison Formation of Dinosaur National Monument (Utah-Colorado) and a revision of the theropod family Allosauridae. Ph.D. thesis. Columbia University. 964 pp.
Rauhut, 2000. The interrelationships and evolution of basal theropods (Dinosauria, Saurischia). Ph.D. thesis. University of Bristol. 440 pp.
Benson and Xu, 2008. The anatomy and systematic position of the theropod dinosaur Chilantaisaurus tashuikouensis Hu, 1964 from the Early Cretaceous of Alanshan, People’s Republic of China. Geological Magazine. 145(6), 778-789.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.

Siats Zanno and Makovicky, 2013
S. meekerorum Zanno and Makovicky, 2013
Cenomanian, Late Cretaceous
Mussentuchit Member of Cedar Mountain Formation, Utah, US
Holotype
- (FMNH PR 2716) (subadult; ~3.9 tons) teeth(?), possible cervical fragments, fourth(?) dorsal centrum (167.2 mm), two partial anterior dorsal neural arches, incomplete fifth dorsal vertebra (165.9 mm), thirteenth(?) dorsal centrum (179.5 mm), several dorsal fragments, sacral(?) centrum, first caudal neural arch, second caudal neural arch, third caudal neural arch, five distal caudal vertebrae (~122.6, 134.3, ~121.4, 117.5, 111 mm), five fragmentary caudal vertebrae, mid caudal chevron, partial ilium, proximal ischia, partial fibula, phalanx II-1 (~170.4 mm), distal metatarsal III, phalanx III-2 (~136.3 mm), phalanx IV-3 (60 mm), distal metatarsal II or IV
Paratype- (FMNH PR 3059) mid caudal neural arch, chevron, pedal phalanx, fragments
Diagnosis- (after Zanno and Makovicky, 2013) anteroposteriorly expanded centrodiapophyseal laminae yet lacking well developed infradiapophyseal fossae on proximal caudals; anteroposterior elongation of anterior dorsal centra; abbreviated, transversely broad neural spines on dorsal vertebrae (neural spine height ~50% maximum height of centrum); transversely flattened, axially concave ventral surface yielding subtriangular cross-section on distal caudal vertebrae; transversely concave acetabular rim of iliac pubic peduncle; truncated lateral brevis shelf with notched posterior end; brevis fossa with subparallel mediolateral margins; supraacetabular crest truncated above midpoint of acetabular rim.
Comments- Zanno and Makovicky (2013) include this in a modified version of Carrano et al.'s tetanurine matrix and find it to be a megaraptoran more derived than Chilantaisaurus, in a polytomy with Fukuiraptor+Australovenator and Megaraptor+Aerosteon. Porfiri et al. (2014) listed numerous characters dissimilar to other megaraptorans, though they did not include it in an analysis or propose a precise alternative reletionship, merely stating "Siats lacks clear derived characters linking it with Megaraptora, and even Coelurosauria." Resolution will require an analysis including all of the proposed characters.
References- Zanno, Makovicky and Gates, 2012. A new giant carcharodontosaurian allosauroid from the Lower Cretaceous Cedar Mountain Formation of Central Utah. Journal of Vertebrate Paleontology. Program and Abstracts 2012, 199.
Zanno and Makovicky, 2013. Neovenatorid theropods are apex predators in the Late Cretaceous of North America. Nature Communications. 4, 2827.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.

Orkoraptor Novas, Ezcurra and Lecuona, 2008
O. burkei Novas, Ezcurra and Lecuona, 2008
Cenomanian, Late Cretaceous
Mata Amarilla Formation (= Pari Aike Formation), Santa Cruz, Argentina
Holotype
- (MPM-Pv 3457) postorbital, quadratojugal (82 mm), coronoid(?), eight teeth, atlantal intercentrum, fragmentary atlantal neurapophysis, eight fragmentary ribs, two proximal (~3-4) caudal vertebrae (90 mm), three incomplete chevrons, proximal tibia (~700 mm)
Paratype- (MPM-Pv 3458) three teeth
Referred- ?(MPM-Pv 10004) incomplete fibula (Ramirez and Baczko, 2009)
Campanian-Maastrichtian, Late Cretaceous
Cerro Fortaleza Formation, Santa Cruz, Argentina

(MPM-Pv coll.) several teeth (Lacovara et al., 2014)
Diagnosis- (modified after Novas et al., 2008) teeth with unserrated and transversely wide mesial margins; teeth with a median depression flanked by two longitudinal and narrow furrows on the lingual surface; quadratojugal with a short jugal process.
Comments- This taxon was discovered in 2001 and announced in a 2004 abstract, but not described until 2008. Varela (2011) revised the age and nomenclature of the formation Orkoraptor was found in. Contra Novas et al.'s (2008) suggestion of a more distal placement for the caudals (~14-18), their central proportions match those around caudals 3 and 4 of Neovenator. The illustrated chevron is probably around the twentieth based on comparison to Allosaurus. Originally, Novas et al. (2004) identified the coronoid as a nasal.
Ramirez and Baczko (2009) described MPM-PV 10004 briefly in an abstract, stating its posteriorly closed proximomedial fibular fossa and moderately developed iliofibularis tubercle were similar to tetanurines. It was said to be less robust than carcharodontosaurids, and most similar to megaraptorans and basal coelurosaurs like tyrannosauroids, which given the recent referral of megaraptorans to Coelurosauria may both be true. Finally, they noted it might be referrable to Orkoraptor from the same formation, and indeed its size (incomplete but >639 mm) matches that genus' estimated tibial length. Thus it is provisionally referred here.
Novas et al. (2004) originally suggested relationships with spinosaurids, Megaraptor and undescribed megaraptoran MCF-PVPH 411. Once described, Novas et al. (2008) found it to be a coelurosaur most probably related to compsognathids or dromaeosaurids in their version of the TWG analysis. The postorbital is almost identical to Aerosteon, a supposed carnosaur that also has proximal caudal pleurocoels. Benson et al. (2010) found it to be a member of their newly formed carcharodontosaurid clade Megaraptora, though with an uncertain position within that group. Recent analyses by Novas et al. (2013) and Porfiri et al. (2014) which place Megaraptora inside Tyrannosauroidea could work with all of these hypotheses.
References- Novas, Lecuona, Calvo and Porfiri, 2004. Un teropodo del Cretacico Superior de la Provincia de Santa Cruz. Ameghiniana. 41(4), 59R.
Novas, Ezcurra and Lecuona, 2008. Orkoraptor burkei nov. gen. et sp., a large theropod from the Maastrichtian Pari Aike Formation, Southern Patagonia, Argentina. Cretaceous Research. 29, 468-480.
Ramirez and Baczko, 2009. Material de Theropoda (Dinosauria) de la Formación Pari Aike (Cretácico Superior), Santa Cruz, Argentina. Ameghiniana. 46(4S), 74R.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Varela, 2011. Sedimentología y modelos deposicionales de la Formación Mata Amarilla, Cretácico de la cuenca austral, Argentina. PhD thesis, Universidad Nacional de La Plata. 287 pp.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Lacovara, Lamanna, Ibiricu, Poole, Schroeter, Ullmann, Voegele, Boles, Carter, Fowler, Egerton, Moyer, Coughenour, Schein, Harris, Martinez and Novas, 2014. A gigantic, exceptionally complete titanosaurian sauropod dinosaur from southern Patagonia, Argentina. Scientific Reports. 4, 6196.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.

Fukuiraptor Azuma and Currie, 2000
?= "Tsuchikurasaurus" unpublished
F. kitadaniensis Azuma and Currie, 2000
Barremian, Early Cretaceous
Kitadani Formation of the Akaiwa Subgroup of the Tetori Group, Japan

Holotype- (FPDM 9712201-9712228) (~4.2 m) (subadult) maxillary fragment, dentary fragment, premaxillary tooth (>17 mm), two maxillary teeth (26, 31.3mm), dentary tooth (34 mm), dorsal centrum (77.5 mm), three proximal dorsal ribs, distal caudal vertebra (26.7 mm), humerus (230 mm), ulna (211 mm), manual ungual I (121 mm straight, 154 mm on curve), phalanx II-1 (64.9 mm), manual ungual II (107.5 mm straight, 150 mm on curve), several manual phalanges, two pubic fragments, two ischial fragments, femur (507 mm), proximal tibia, astragalus (85.5 mm), metatarsal I (~70 mm), phalanx I-1 (67 mm), metatarsal II (297.5 mm), metatarsal III (297.5 mm), phalanx III-1 (99.2 mm), phalanx III-2 (77.4 mm), phalanx IV-2 (38 mm)
....(FPDM 96082443) humerus (242 mm)
....(FPDM 97080206) distal fibula
Paratypes- (FPDM 9712229) maxillary fragment, tooth
(FPDM 9712230) dentary fragment
(FPDM 9712231) tooth
(FPDM 9712232) tooth
(FPDM 9712233) dentary tooth (18.8 mm)
(FPDM 9712234) maxillary tooth (12.6 mm)
(FPDM 9712235) maxillary tooth (25 mm)
(FPDM 9712236) dentary tooth (18.5 mm)
(FPDM 9712237) tooth
(FPDM 9712238) tooth
(FPDM 9712239) tooth (>18 mm)
Referred- (FPDM-V96080810) maxillary tooth (50 mm) (Currie and Azuma, 2006)
(FPDM-V96081134) tooth (Currie and Azuma, 2006)
?(FPDM-V970730003) (~1.10 m) (juvenile) incomplete femur (Currie and Azuma, 2006)
(FPDM-V97080208) maxillary tooth (Currie and Azuma, 2006)
?(FPDM-V97080937) (~1.10 m) (juvenile) femur (Currie and Azuma, 2006)
?(FPDM-V9708102884) partial femur (Currie and Azuma, 2006)
(FPDM-V97081128) dentary tooth (33.4 mm)(Currie and Azuma, 2006)
(FPDM-V97081201) (~1.71 m) (juvenile) femur (196 mm) (Currie and Azuma, 2006)
(FPDM-V970813046) (~925 mm) (juvenile) femur (116.3 mm) (Currie and Azuma, 2006)
?(FPDM-V97081330) (~1.08 m) (juvenile) femur (134.9 mm) (Currie and Azuma, 2006)
(FPDM-V970821039) (~978 mm) (juvenile) femur (122.7 mm) (Currie and Azuma, 2006)
(FPDM-V97082330) maxillary tooth (17 mm) (Currie and Azuma, 2006)
(FPDM-V97082367) maxillary tooth (?23 mm) (Currie and Azuma, 2006)
?(FPDM-V97082553) humerus (Currie and Azuma, 2006)
(FPDM-V97082574) maxillary tooth (33 mm) (Currie and Azuma, 2006)
(FPDM-V97082728) maxillary tooth (>41 mm) (Currie and Azuma, 2006)
?(FPDM-V97120001) (~1.10 m) (juvenile) proximal femur (Currie and Azuma, 2006)
?(FPDM 9712240) fifth cervical centrum (58 mm) (Azuma and Currie, 2000)
....(FPDM 9712241) fifth cervical neural arch (Azuma and Currie, 2000)
?(FPDM 9712242) dorsal neural arch (Azuma and Currie, 2000)
?(FPDM 9712243) coracoid (58 mm deep) (Azuma and Currie, 2000)
(FPDM-V97122BNA3) (~1.65 m) (juvenile) femur (200 mm) (Currie and Azuma, 2006)
(FPDM-V97122BNA12) (~2.02 m) (juvenile) femur (244 mm) (Currie and Azuma, 2006)
(FPDM-V980721002) dentary tooth (18 mm) (Currie and Azuma, 2006)
(FPDM-V98072302) (~1.07 m) (juvenile) femur (134.2 mm) (Currie and Azuma, 2006)
(FPDM-V980724112) dentary tooth (Currie and Azuma, 2006)
(FPDM-V980801101) tooth (Currie and Azuma, 2006)
(FPDM-V980803001) premaxillary tooth (Currie and Azuma, 2006)
(FPDM-V980803120) maxillary tooth (>24 mm) (Currie and Azuma, 2006)
(FPDM-V980803123) tooth (Currie and Azuma, 2006)
(FPDM-V980804135) maxillary tooth (>17.6 mm) (Currie and Azuma, 2006)
(FPDM-V980804144) tooth (Currie and Azuma, 2006)
(FPDM-V980805018) (~735 mm) (juvenile) femur (92.2 mm) (Currie and Azuma, 2006)
(FPDM-V980805101) maxillary tooth (>33 mm) (Currie and Azuma, 2006)
(FPDM-V980806009) tooth (>27 mm) (Currie and Azuma, 2006)
(FPDM-V980810141) maxillary tooth (34 mm) (Currie and Azuma, 2006)
?(FPDM-V98081028) (~1.19 m) (juvenile) partial femur (Currie and Azuma, 2006)
(FPDM-V980813008) maxillary tooth (23 mm) (Currie and Azuma, 2006)
?(FPDM-V980813017) (~1.05 m) (juvenile) femur (Currie and Azuma, 2006)
(FPDM-V980815020) dentary tooth (>27.5 mm) (Currie and Azuma, 2006)
(FPDM-V980815176) dentary tooth (>25 mm) (Currie and Azuma, 2006)
(FPDM-V98081540) maxillary tooth (54.8 mm) (Currie and Azuma, 2006)
(FPDM-V980819055) maxillary tooth (>32 mm) (Currie and Azuma, 2006)
(FPDM-V980819173) tooth (Currie and Azuma, 2006)
(FPDM-V981200001) dentary tooth (>39 mm) (Currie and Azuma, 2006)
?(FPDM-V98120001) (~1.19 m) (juvenile) partial femur (Currie and Azuma, 2006)
?(FPDM-V98120002) (~1.42 m) (juvenile) partial femur (Currie and Azuma, 2006)
(FPDM-V981200012) dentary tooth (6 mm) (Currie and Azuma, 2006)
?(FPDM-V9812638) (~1.07 m) (juvenile) partial femur (Currie and Azuma, 2006)
?(FPDM-V99090901) (~1.02 m) (juvenile) distal femur (Currie and Azuma, 2006)
?(Tsuchikura-ryu) tooth (Azuma, 1991)
Diagnosis- (after Azuma and Currie, 2000) narrow dentary (~30% of depth) (also in Eotyrannus); teeth with oblique blood grooves (also in Megalosaurus and tyrannosaurids); ulnohumeral ratio >90%.
Other diagnoses- Of the other diagnostic characters listed by Azuma and Currie (2000), fused interdental plates are also present in Fukuiraptor and Eotyrannus. Larger hands with better developed unguals than Allosaurus and a tall astragalar ascending process are primitive for coelurosaurs. The supposedly broader than long pubic peduncle of the ilium is based on what is probably an ornithopod pubis (see below).
Comments- The supposed ilium is more probably a Fukuisaurus pubis (Jansma, pers. comm. 2004).
The first discovered element of Fukuiraptor may be a tooth from the type quarry nicknamed Tsuchikura-ryu by Azuma (1991) and referred to Megalosauridae. Currie and Azuma (2006) note 89% of the teeth from that quarry are from Fukuiraptor, whose teeth do possess the generalized carnosaur/megalosaur morphology. While several other Japanese nicknames have been inappropriately transformed into nomina nuda in the published literature, "Tsuchikurasaurus" is so far restricted to the internet, specifically due to the IVPP's dinosaur.net site.
In 1991, jaw fragments were found in the quarry and identified as dromaeosaurid based on their fused interdental plates. This was followed by the discovery of a manual ungual I, astragalus and metatarsal III in 1993. Azuma and Currie (1995) described these remains in an abstract as those of a giant dromaeosaurid, which was associated in the paleontological community with the name "Kitadanisaurus" through the late 1990's. Azuma and Currie (2000) later described the material in more detail, along with more elements that made up a partial skeleton. Their new taxon Fukuiraptor was identified as a basal carnosaur instead of a dromaeosaurid, though dromaeosaurid material is known from the quarry (including the original "Kitadanisaurus" tooth). Thus "Kitadanisaurus" is not a synonym of Fukuiraptor, contra Olshevsky (DML, 2000).
Most of the elements listed under 'holotype' were found associated in one small area of the Kitadani quarry. The left humerus was given the separate call number FPMN 96082443. The paratype maxillary fragment, dentary fragment, nine teeth, cervical centrum and neural arch which fits it, dorsal neural arch and coracoid were found in the same level, but in different areas of the quarry. They are all the right size to belong to the holotype, but this can not be proven. At least fourteen individuals are preserved in the type quarry, based on femoral number. The more similar-sized pairs of femora possibly belong to single individuals (99090901 and 980813017; 9812638 and 97080937; 970730003 and 97120001; 98081028 and 98120001). The provisionally referred femora are similar to Fukuiraptor and not obviously dromaeosaurid. Several other specimens (humerus, manual phalanx I-1, three manual unguals, three tibiae, pedal phalanx III-2) were found in the quarry. Some are not referrable to Fukuiraptor (a straight manual ungual and humerus), but others may be. Novas et al. (2013) suggested only the more recurved teeth with mesial serrations limited to the apex were referrable to Fukuiraptor, with the others being carcharodontosaurid. Yet there are intermediate morphologies (e.g. FPDM-V97082728), so that Currie and Azuma's identification of teeth with limited mesial serrations as anterior teeth (vs. posterior teeth with extensive mesial serrations) seems likely.
Azuma and Currie (2000) found Fukuiraptor to be a basal carnosaur in their phylogenetic analysis, as did Holtz (2001) and Holtz et al. (2004). Hucknull et al. (2009) found it to be a non-carcharodontosaurid carnosaur more derived than Sinraptor, while Benson (2010) placed it as the sister group of Avetheropoda. Benson et al. (2010) added more characters and taxa to Benson's earlier analysis and found Fukuiraptor was in their new clade Megaraptora within Carcharodontosauridae, sister to Australovenator. My unpublished research incorporating most of the data from these analyses agrees with Benson et al.'s in placing it in Megaraptora, but also agrees with Longrich's (2001) in placing it as a very basal coelurosaur, though more recent analyses by Novas et al. (2013) and Porfiri et al. (2014) place Megaraptora even deeper within Coelurosauria as tyrannosauroids.
References- Azuma, 1991. Early Cretaceous Dinosaur Fauna from the Tetori Group, central Japan. Research on Dinosaurs from the Tetori Group (1). Professor S. Miura Memorial Volume, 55-69.
Azuma and Currie, 1995. A new giant dromaeosaurid from Japan. Journal of Vertebrate Paleontology. 15(3), 17A.
http://www.dinosaur.net.cn/museum/Tsuchikurasaurus.htm
Azuma and Currie, 2000. A new carnosaur (Dinosauria: Theropoda) from the Lower Cretaceous of Japan. Canadian Journal of Earth Sciences. 37(12), 1735-1753.
http://dml.cmnh.org/2000Dec/msg00399.html
Holtz, 2001. Pedigree of the tyrant kings: New information on the origin and evolution of the Tyrannosauridae. Journal of Vertebrate Paleontology. 21(3), 62A-63A.
Longrich, 2001. Secondarily flightless maniraptoran theropods? Journal of Vertebrate Paleontology. 21(3), 74A.
Holtz, Molnar and Currie, 2004. Basal Tetanurae. In Weishampel, Dodson and Osmolska. The Dinosauria Second Edition. University of California Press. 861 pp.
Currie and Azuma, 2006. New specimens, including a growth series of Fukuiraptor (Dinosauria, Theropoda) from the Lower Cretaceous Kitadani Quarry of Japan. J. Paleont. Soc. Korea. 22(1), 173-193.
Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009. New Mid-Cretaceous (Latest Albian) dinosaurs from Winton, Queensland, Australia. PLoS ONE. 4(7), e6190.
Benson, 2010. A description of Megalosaurus bucklandii (Dinosauria: Theropoda) from the Bathonian of the UK and the relationships of Middle Jurassic theropods. Zoological Journal of the Linnean Society. Zoological Journal of the Linnean Society. 158(4), 882-935.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.
F. sp. indet. (Molnar, Obata, Tanimoto and Matsukawa, 2009)
Barremian Formation, Early Cretaceous
Lower Member of the Sebeyashi Formation, Japan
Material
- (NDC-P0001) lateral tooth (34.8 mm)
Comments- Molnar et al. (2009) referred this tooth to Fukuiraptor aff. kitadaniensis.
Reference- Molnar, Obata, Tanimoto and Matsukawa, 2009. A tooth of Fukuiraptor aff. F. kitadaniensis from the Lower Cretaceous Sebayashi Formation, Sanchu Cretaceous, Japan. Bulletin of Tokyo Gakugei University, Division of Natural Sciences. 61, 105-117.
F. sp. indet. (Chure, Manabe, Tanimoto and Tomida, 1999)
Late Cenomanian-Early Turonian, Late Cretaceous
Jobu Formation of Mifune Group, Japan

Material- (MDM 341) tooth (53 mm)
Comments- Originally referred to Carcharodontosauridae due to its enamel wrinkles, these are shared by Fukuiraptor, which is similarly known from Japan. Currie and Azuma (2006) found the width/FABL ratio and posterior serration size matched Fukuiraptor more closely than carcharodontosaurids.
Reference- Chure, Manabe, Tanimoto and Tomida, 1999. An unusual theropod tooth from the Mifune Group (Late Cenomanian to Early Turonian), Kumamoto, Japan. in Tomida, Rich, and Vickers-Rich (eds.). Proceedings of the Second Gondwanan Dinosaur Symposium. National Science Museum (Tokyo) Monographs. 15, 291-296.
Currie and Azuma, 2006. New specimens, including a growth series of Fukuiraptor (Dinosauria, Theropoda) from the Lower Cretaceous Kitadani Quarry of Japan. J. Paleont. Soc. Korea. 22(1), 173-193.

Megaraptoridae Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013
Diagnosis- (Megaraptor namunhuaiquii <- Fukuiraptor kitadaniensis, Chilantaisaurus tashuikouensis, Baryonyx walkeri, Neovenator salerii, Carcharodontosaurus saharicus, Allosaurus fragilis, Tyrannosaurus rex, Passer domesticus) (Novas et al., 2013)
Reference- Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.

undescribed Megaraptoridae (Casal, Ibiricu, Martinez, Luna, Gonzalez Svoboda and Ivany, 2015)
Coniacian-Maastrichtian, Late Cretaceous
Lago Colhue Huapi Formation, Chubut, Argentina
Reference
- Casal, Ibiricu, Martinez, Luna, Gonzalez Svoboda and Ivany, 2015. El registro fosil de la Formacion Lago Colhue Huapi (Coniaciano-Maastrichtiano), Grupo Chubut, Argentina. XXIX Jornadas Argentinas de Paleontología de Vertebrados, resumenes. Ameghiniana. 52(4) suplemento, 10-11.

Aerosteon Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2009
= "Aerosteon" Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2008 online
A. riocoloradensis Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2009
= "Aerosteon riocoloradensis" Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2008 online
Late Coniacian, Late Cretaceous
Plottier Formation of the Rio Neuquen Subgroup, Mendoza, Argentina

Holotype- (MCNA-PV-3137) (~9-10 m; subadult) prefrontal (68 mm), postorbital (114 mm long), quadrate (163 mm), posterior pterygoid, prearticular, maxillary or dentary tooth (38 mm), atlas (25 mm), third cervical vertebra (96 mm), fourth cervical vertebra (98 mm), sixth cervical vertebra (91 mm), eighth cervical vertebra, two cervical ribs, first dorsal vertebra (85 mm), fourth dorsal vertebra (71 mm), fifth dorsal vertebra, sixth dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra (88 mm), ninth dorsal vertebra, tenth dorsal vertebra (84 mm), eleventh dorsal vertebra (84 mm), fourteenth dorsal vertebra (102 mm), four dorsal ribs, gastralia, first sacral vertebral fragments, second sacral vertebra, third sacral vertebra, fourth sacral vertebra, partial fifth sacral centrum, fifth sacral transverse process, first caudal vertebra (93 mm), mid caudal centrum (100 mm), distal caudal centrum, furcula, scapula (570 mm), coracoid (276 mm), ilium (768 mm), pubes (620 mm)
Referred- ?(MCNA-PV-3075) manual ungual II (Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013)
?(MCNA-PV-3112) manual ungual I (Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013)
?(MCNA-PV-3138) incomplete pes including metatarsal II, metatarsal III, metatarsal IV and phalanges (Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2009)
(MCNA-PV-3139) tibia, incomplete fibula, astragalus, calcaneum (Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2009)
Diagnosis- (modified after Sereno et al., 2008) prefrontal with a very short ventral process; enlarged paraquadrate foramen located entirely within the quadrate; large tympanic diverticulum into the quadrate shaft above the articular condyle; anterior dorsal vertebra with very large parapophyses; dorsal neural spines with central pneumatic space (also in Acrocanthosaurus); posteriormost dorsal vertebra with anterodorsally inclined neural spine; posteriormost dorsal vertebra with a pneumatic canal within the transverse process (also in Neovenator); medial gastral elements coossified with anterior and posterior flanges; furcula with median pneumatocoel.
(after Carrano et al., 2012) robust, cylindrical transverse processes on proximal caudal vertebrae; fossa on lateral surface of coracoid dorsal to glenoid and (separate) subglenoid fossa.
Comments- Aerosteon was originally named in the online-only publication PLoS ONE, which does not satisfy the ICZN's requirement (Artcle 8.6) that publications be printed on paper and "contain a statement that copies (in the form in which it is published) have been deposited in at least 5 major publicly accessible libraries which are identified by name in the work itself." This requirement was only met in 2009, making Aerosteon a nomen nudum until that time.
Although originally thought to derive from the Campanian Anacleto Formation, Novas et al. (2013) determined it is actually from the Late Coniacian Plottier Formation.
Benson et al. (2010) tried running the referred hindlimb MCNA-PV-3139 as a separate OTU, and it also grouped with megaraptorans, suggesting it is properly referred to Aerosteon. The identity of the referred metatarsal and associated pes (MCNA-PV-3138) is less certain. Novas et al. (2013) listed megaraptoran manual unguals from the same locality which probably belong to the taxon, though they considered the tooth found with the holotype to be dubious and perhaps abelisaurid.
This taxon was originally referred to Carcharodontosauridae by Alcober et al. (1998), and later as a carnosaur most similar to Allosaurus (Sereno et al., 2008). Benson et al. (2010) are the first to include Aerosteon in a phylogenetic analysis, and found it to be a carcharodontosaurid in their new clade Megaraptora, closest to Megaraptor itself. However, several characters are more similar to coelurosaurs. These include the high angle between anterior and ventral postorbital processes, quadrate foramen, possible anterodorsal concavity on the preacetabular process, concave anterior pubic peduncle margin, and tall astragalar ascending process. Furthermore, the postorbital is almost identical to that of Orkoraptor, a basal coelurosaur that shares the presence of caudal pleurocoels with Aerosteon. Recent analyses by Novas et al. (2013) and Porfiri et al. (2014) which place Megaraptora inside Tyrannosauroidea may explain all of these characters.
References- Alcober, Sereno, Larsson, Martinez and Varricchio, 1998. A Late Cretaceous carcharodontosaurid (Theropoda: Allosauroidea) from Argentina. Journal of Vertebrate Paleontology. 18(3) 23A.
Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2008. Evidence for avian intrathoracic air sacs in a new predatory dinosaur from Argentina. PLoS ONE. 3(9), e3303.
Sereno, Martinez, Wilson, Varricchio, Alcober and Larsson, 2009. Evidence for avian intrathoracic air sacs in a new predatory dinosaur from Argentina. PLoS ONE. 3(9), e3303 [printed version].
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.
Aranciaga Rolando, Brisson Egli, Rozadilla and Novas, 2015. Megaraptoran metatarsals from the Upper Cretaceous of Mendoza, Argentina. XXIX Jornadas Argentinas de Paleontología de Vertebrados, resumenes. Ameghiniana. 52(4) suplemento, 16.

"Allosaurus" sibiricus Riabinin, 1915
= Antrodemus sibiricus (Riabinin, 1915) Huene, 1932
= Chilantaisaurus? sibiricus (Riabinin, 1915) Molnar, Kurzanov and Dong, 1990
Berraisian-Hauterivian, Early Cretaceous
Tignin Formation or Turgin Formation or Zugmar Formation, Chitinskaya Oblast, Russia

Holotype- (PIN coll.) distal metatarsal II (~300-400 mm)
Late Barremian-Mid Aptian, Early Cretaceous
Mogoito Member of Murtoi Formation, Buryatia, Russia
Referred
- ? bone (Ivanov, 1940)
Diagnosis- (suggested) (combination of) metatarsal II lateral condyle with ventral surface width ~46% of condylar depth; metatarsal II medial condyle dorsal surface ~73% as wide as surface of lateral condyle and angled 35 degrees from lateral edge of lateral condyle.
Comments- Note the description was actually published in 1915, though the volume was intended for 1914. The holotype was discovered in 1912 and deposited in what was then the Geological Museum of the Russian Academy of Sciences in Petrograd (Tolmachoff, 1924) (now St. Petersburg), which has since moved to Moscow. Riabinin (1915; partially translated in Chure, 2000) named it Allosaurus (?) sibiricus based on what he identified as a distal metatarsal IV. Huene (1932) said only that it did not permit exact characterization and probably belonged to an allosaurid (he renamed it Antrodemus? sibiricus as he thought that was a senior synonym of Allosaurus). Molnar et al. (1981) felt sibiricus resembled Ceratosaurus so closely that they "hesitate to accept it as an allosaurid". Molnar et al. (1990) on the other hand stated it was "almost identical with that of C. tashuikouensis in form and proportions of the distal condyle", so questionably referred it to Chilantaisaurus. Nessov (1995) agreed the species were similar and that sibiricus may belong in Chilantaisaurus. He noted stratigraphic data gave three possible formations the specimen was discovered in. Chure (2000) incorrectly said Riabinin did not illustrate the material, as he apparently had only a small portion of the original document. This error was repeated by Benson and Xu (2008). Chure excluded it from Allosauridae because he believed the distal outline was rectangular, but it is actually trapezoidal in both Allosaurus and sibiricus. Both Benson and Xu and Carrano et al. (2012) incorrectly credited Holtz et al. (2004) as being responsible for assigning it to Chilantaisaurus, though Carrano et al. correctly identified it as a second metatarsal. They believed it "too fragmentary to be assigned to a known taxon or identified as a distinct form" and noted similarity to Allosaurus, Neovenator, Torvosaurus and Afrovenator (though no metatarsal II has been reported for the latter).
Ivanov (1940) reported a bone referred to Allosaurus sibiricus from the Mortoi Formation, though without more data this referral is uncertain.
The holotype is ~70% the size of Chilantaisaurus tashuikouensis in distal width and depth, which would make it ~286 mm if similarly stout. If from an elongate metatarsus like Australovenator's though, it would be ~398 mm long. It differs from Allosaurus in having a more medially oriented dorsal curve to the lateral condyle, having a larger and more medially flaring medial condyle, having a lateral condyle which is recessed ventrally, and lacking the lateral flare on the ventral edge of Allosaurus' lateral condyle. Chilantaisaurus' medial condyle flares slightly more than Allosaurus' and it has a ventrally recessed lateral condyle, but it has the small medial condyle and a lateral flare like Allosaurus and has the dorsal curve oriented even further laterally. Of course, Riabinin and Molnar et al. were comparing sibiricus with the fourth metatarsals of Ceratosaurus, Allosaurus and Chilantaisaurus, not the second metatarsals (both fourth metatarsals differ from sibiricus in having a ventrally pointed medial condyle and lacking a ventrally inset medial condyle, while Allosaurus' element is much narrower, and Chilantaisaurus' has a larger dorsolateral bulge; Molnar et al. were correct that Chilantaisaurus' is more similar, but it is not almost identical). Taxa with similarly medially flaring medial condyles are Ceratosaurus, Torvosaurus, Sinraptor, Acrocanthosaurus, Fukuiraptor, Australovenator, Megaraptor and Harpymimus, though only Australovenator's and Acrocanthosaurus' are close in size. Taxa with a ventrally inset lateral margin are Rajasaurus, Megalosaurus, Chilantaisaurus, Fukuiraptor, Australovenator, Megaraptor, Appalachiosaurus and Alxasaurus. Overall, it is most similar to Australovenator, differing in being 9% broader compared to depth, a broader lateral condyle ventrally, and having a more medially oriented dorsal surface of the lateral condyle. Next most similar is Megaraptor, which it differs from in having a broader lateral condyle ventrally with ventral surface angled more laterally, and a less rounded dorsal surface of the lateral condyle. The amount of ventral inset of the lateral condyle and dorsal exposure of the medial condyle is in between these two taxa. This suggests sibiricus may be a megaraptoran, which is congruent with its age, size and location. As it is intermediate in two variables, more similar to Megaraptor in depth, more similar to Australovenator in the orientation of the lateral condyle's ventral surface, and differs from both in the lateral condyle's ventral width, placing it in any named genus is not possible. As it does differ from all known theropod metatarsals, it is not a nomen dubium, contra Rauhut (2003), Holtz et al. and Carrano et al..
References- Riabinin, 1915. Zamtka o dinozavry ise Zabaykalya [A note on a dinosaur from the trans-Baikal region]. Trudy Geologichyeskago Muszeyah Imeni Petra Velikago Imperatorskoy Academiy Nauk. 8(5), 133-140.
Tolmachoff, 1924. On dinosaurs in northern Asia. American Journal of Science. 5(7), 489-490.
Huene, 1932. Die fossile Reptil-Ordnung Saurischia, ihre Entwicklung und Geschichte. Monographien zur Geologie und Palaeontologie. 4(1), viii + 361 pp.
Ivanov, 1940. [On the age of the coal-bearing deposits of Transbaikalia]. Sovietskaya Geologiya. 11, 45-54.
Molnar, Flannery and Rich, 1981. An allosaurid theropod dinosaur from the early Cretaceous of Victoria, Australia. Alcheringa. 5, 141-146.
Molnar, Kurzanov and Dong, 1990. Carnosauria. In Weishampel, Dodson and Osmolska (eds.). The Dinosauria. Berkeley: University of California Press. 169-209.
Nessov, 1995. Dinozavri severnoi Yevrazii: Novye dannye o sostave kompleksov, ekologii i paleobiogeografii [Dinosaurs of northern Eurasia: new data about assemblages, ecology, and paleobiogeography]. Institute for Scientific Research on the Earth's Crust, St. Petersburg State University, St. Petersburg. 156 pp.
Chure, 2000. A new species of Allosaurus from the Morrison Formation of Dinosaur National Monument (Utah-Colorado) and a revision of the theropod family Allosauridae. Ph.D. thesis. Columbia University. 964 pp.
Rauhut, 2003. The interrelationships and evolution of basal theropod dinosaurs. Special Papers in Palaeontology. 69, 213 pp.
Holtz, Molnar and Currie, 2004. Basal Tetanurae. In Weishampel, Dodson and Osmolska (eds.). The Dinosauria Second Edition. University of California Press. 71-110.
Benson and Xu, 2008. The anatomy and systematic position of the theropod dinosaur Chilantaisaurus tashuikouensis Hu, 1964 from the Early Cretaceous of Alanshan, People’s Republic of China. Geological Magazine. 145(6), 778-789.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.

Australovenator Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009
A. wintonensis Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009
Cenomanian, Late Cretaceous
Winton Formation, Queensland, Australia

Holotype- (AODF 604) (~4.8 m) dentaries (342.6 mm), proximal first dorsal rib, proximal second or third dorsal rib, proximal seventh or eighth dorsal rib, dorsal rib shaft fragments, nine gastralial fragments, humeri (307.35, 303.35 mm), radii (one incomplete; 215.37, 211.28 mm), ulnae (265.58, 267.22 mm), radiale, distal carpal I, metacarpals I (78.38, 79.91 mm), phalanges I-1 (118.21, 111.1 mm), incomplete manual ungual I (150.95 mm straight, 190 mm on curve), metacarpal II (138.15 mm), phalanx II-1 (84.9 mm), phalanx II-2 (86.51 mm), incomplete manual ungual II, phalanx III-1 (73.11 mm), phalanges III-3 (39.44, 41.6 mm), manual ungual III (75.12 mm straight), partial ilium, femur (578 mm), tibiae (569, 564 mm), fibulae (538 mm; one incomplete), astragalus (105 mm wide), metatarsal I (66 mm), pedal unguals I (one incomplete; 66 mm), metatarsal II (284 mm), incomplete phalanx II-1 (~106 mm), incomplete phalanx II-2 (~64 mm), pedal ungual II (84mm), metatarsal III (322 mm), incomplete phalanx III-1 (~115 mm), phalanx III-2 (106 mm), phalanges III-3 (one partial; 73 mm), pedal ungual III (95 mm), incomplete metatarsal IV, phalanx IV-1 (82 mm), incomplete phalanx IV-2 (49 mm), phalanx IV-3 (46 mm), phalanx IV-4 (33 mm), pedal ungual IV (77 mm)
Paratypes- (AODF 822) anterior tooth (14x6.8x6 mm)
(AODF 823) lateral tooth (13.6x9.35.5 mm)
(AODF 824) lateral tooth (12.8x8.4x4.3 mm)
(AODF 825) lateral tooth (18.4x10x6.2 mm)
(AODF 826) lateral tooth (16.5x9.5x6.5 mm)
(AODF 827) tooth (19.8x9.7x? mm)
(AODF 828) lateral tooth (14.4x9.4x5.8 mm)
(AODF 829) lateral tooth (16.4x10.4x5.7 mm)
(AODF 830) tooth (16.3x11.7x? mm)
(AODF 831) anterior tooth (12.5x7.3x4.8 mm)
Referred- (AODF 664) anterior tooth (9x5.3x4.1 mm) (White, Bell, Cook, Poropat and Elliott, 2015)
(AODF 819) lateral tooth (17.8x8.3x10.2 mm) (White, Bell, Cook, Poropat and Elliott, 2015)
(AODF 820) lateral tooth (16.5x9.7x7.2 mm) (White, Bell, Cook, Poropat and Elliott, 2015)
Diagnosis- (after Hocknull et al., 2009) at least eighteen [nineteen based on White et al., 2015] dentary teeth (also in Compsognathus); dorsal ribs with pneumatic cavities (also in Aerosteon); olecranon process inflated in proximal view; round and discontinuous lateral tuberosity on ulna; distal extensor groove deep and narrow (also in Bagaraatan and Xiongguanlong); ventral process on anterior edge of lateral tibial condyle; proximal articular surface of fibula bevelled to be higher anteriorly (also in Scipionyx).
Other diagnoses- Hocknull et al. (2009) also included several characters which are primitive for coelurosaurs- gracile dentary; dentary with subparallel dorsal and ventral margins; rounded dentary symphysis, chin absent on dentary; primary row of dentary neurovascular foramina not decurved posteriorly; gastralia unfused; gastralia distally tapered; ulna straight; femoral flexor groove lacks cruciate ridge; lateral malleolus of tibia extends distal of medial malleolus; medial astragalar condyle transversely expanded; astragalus with tall ascending process; anterior groove across astragalar condyles; groove at base of astragalar ascending process; metatarsals elongate and gracile. Others are also present in Fukuiraptor- fused interdental plates; anterolateral groove on ulnar shaft; anterior trochanter extends proximally to near proximal greater trochanter edge; anterolateral process projects from antero proximal margin of astragalar lateral condyle. The general trend of a quadrangular first dentary alveolus, followed by several cicular alveoli and then transversely compressed alveoli is common in theropods. A dorsally directed femoral head is also present in Chilantaisaurus, Gasosaurus, Bagaraatan and tyrannosauroids. An anteromedially directed femoral head is also present in Megaraptor, Tugulusaurus and Xiongguanlong.
Comments- White et al. (2012) redescribed the forelimb including many new elements, finding a supposed distal manual ungual II to be an incomplete pedal ungual I, supposed manual phalanx II-2 is III-1, and supposed right metacarpal II is from the left side. Similarly, White et al. (2013) redescribed the hindlimb elements, finding metatarsal I is from the left side, and that some pedal phalanges were incorrectly identified. White et al. (2015) described a newly described dentary of the holotype, believed the isolated teeth found with the holotype were not referrable to that individual, and referred additional teeth from other localities.
Hocknull et al. (2009) included Australovenator in the carnosaur analysis of Brusatte and Sereno (2008) and found it emerges as the basalmost carcharodontosaurid. However, this did not include the astragalar characters they note are shared with Fukuiraptor, nor any coelurosaurs except Compsognathidae. Benson et al. (2010) using a larger dataset found it to be a megaraptoran carcharodontosaurid, but again included few coelurosaurs. The characters used by Hocknull et al. work with megaraptorans being coelurosaurian as well- of those noted as shared with Allosaurus and carcharodontosaurids, a slightly posteriorly forked dentary is present in most coelurosaurs, an elongate mediodistal femoral crest is present in Chilantaisaurus, Fukuiraptor, Stokesosaurus and Guanlong, and a constricted lateral tibial condyle is present in Fukuiraptor, Bagaraatan and tyrannosauroids. Of the two characters placing it in Carcharodontosauridae, a distally extending lateral tibial malleolus (>5% of tibial length) is present in Chilantaisaurus and tyrannosauroids (partially correlated with tibial robusticity and thus with size), and a dorsally directed femoral head is also present in Chilantaisaurus, Gasosaurus, Bagaraatan and tyrannosauroids.
References- Brusatte and Sereno, 2008. Phylogeny of Allosauroidea (Dinosauria: Theropoda): comparative analysis and resolution. Journal of Systematic Palaeontology. 6(2), 155-182.
Hocknull, White, Tischler, Cook, Calleja, Sloan and Elliot, 2009. New Mid-Cretaceous (Latest Albian) dinosaurs from Winton, Queensland, Australia. PLoS ONE. 4(7), e6190.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.
White, Cook, Hocknull, Sloan, Sinapius and Elliott, 2012. New forearm elements discovered of holotype specimen Australovenator wintonensis from Winton, Queensland, Australia. PLoS ONE. 7(6), e39364.
White, Benson, Tischler, Hocknull, Cook, Barnes, Poropat, Wooldridge, Sloan, Sinapius and Elliot, 2013. New Australovenator hind limb elements pertaining to the holotype reveal the most complete neovenatorid leg. PLoS ONE. 8(7), e68649.
White, Bell, Cook, Poropat and Elliott, 2015. The dentary of Australovenator wintonensis (Theropoda, Megaraptoridae); implications for megaraptorid dentition. PeerJ. 3:e1512.

Megaraptor Novas, 1998
= "Megaraptor" Shreeve, 1997
Diagnosis- (after Calvo et al., 2004) manual unguals I and II enlarged and highly transversely compressed.
(after Smith et al., 2008) proximocaudally expanded blade-like olecranon process that extends distally as a caudal olecranon crest; pronounced lateral tuberosity that is continuous distally with a distinct lateral crest.
M. namunhuaiquii Novas, 1998
= "Megaraptor namuhualquii" Shreeve, 1997
Late Turonian-Early Coniacian, Late Cretaceous
Portezuelo Formation of the Rio Neuquen Subgroup, Neuquen, Argentina

Holotype- (MCF-PVPH 79) ulna (332 mm), phalanx I-1 (188 mm), manual ungual I (339 mm), distal metatarsal III (~375 mm)
Referred- (MUCPv 341) (7 year old adult) ?sixth cervical vertebra (~84 mm), two proximal caudal vertebrae, three chevrons, incomplete scapula, coracoid, radius (~369 mm), ulna, semilunate carpal, ulnare, metacarpal I (106 mm), phalanx I-1 (182 mm), manual ungual I (350 mm), metacarpal II (170 mm), phalanx II-1 (108 mm), phalanx II-2 (104 mm), manual ungual II (235 mm), metacarpal III (119 mm), phalanx III-1 (56 m), phalanx III-2 (41 mm), phalanx III-3 (56 mm), manual ungual III (65 mm), metacarpal IV (40 mm), pubis (480 mm), metatarsal IV (Calvo et al., 2004)
(MUCPv 412) distal ulna (Porfiri, Calvo and Santos, 2007)
(MUCPv 413) proximal manual phalanx I-1 (Porfiri, Calvo and Santos, 2007)
(MUCPv 595) (6 year old juvenile) incomplete premaxillae, maxillae (one incomplete), nasals, frontal, partial braincase, axis, third cervical vertebra, fourth cervical vertebra, fifth cervical vertebra, sixth cervical vertebra, seventh cervical vertebra, eighth cervical vertebra (~49 mm), ninth cervical vertebra, tenth cervical vertebra, first dorsal vertebra, second dorsal vertebra, third dorsal vertebra, fourth dorsal vertebra, fifth dorsal vertebra, sixth dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra, tenth dorsal vertebra, eleventh dorsal vertebra, twelfth dorsal vertebra, dorsal ribs, eight gastralia, third sacral vertebra, fourth sacral vertebra, fifth sacral vertebra, four proximal caudal vertebrae, scapulae, coracoid, incomplete humeri (~232 mm), partial pubes (Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014)
(MUCPv 1353) (12 year old adult) specimen including forelimb elements and pubis (Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014)
Diagnosis- (after Novas, 1998; Lamanna, 2004; Calvo et al., 2004) cervical vertebrae with elongate elliptical pleurocoels; blade-like olecranon process of ulna; ulna stout and triangular in distal view; manual phalanx I-1 subquadrangular in proximal view, with dorsal portion wider than ventral portion; proximodorsal depression on manual ungual I absent; lateral vascular groove in manual ungual III absent; metatarsal III with deep and wide extensor ligament pit; distal end of metatarsal IV narrower than shaft.
(after Aranciaga Rolando et al., 2015) metacarpal I with tapered medial condyle; manual ungual I approaching length of ulna; manual digit II phalanges with ventromedial flanges.
Comments- This was first reported by Novas et al. (1996) in an abstract as a possibly maniraptoran tetanurine. Originally thought to have an enlarged hyperextensible pedal ungual II, a new specimen (Calvo et al., 2002) shows this is actually manual ungual I. Calvo et al. (2004) suggested Megaraptor was a non-avetheropod tetanurine, though without an analysis to back it up. Lamanna (2004) entered it in Rauhut's analysis and found it to be an allosauroid carnosaur. Smith et al. (2007) recovered Megaraptor as a carcharodontosaurine in their analysis, then later (2008) as the sister taxon of Spinosauridae. Benson (2010) recovered it as a carnosaur or sister taxon to Avetheropoda, but when more characters and taxa were added (Benson et al., 2010), it formed part of a larger clade within Carcharodontosauridae they named Megaraptora (closest to Aerosteon within that clade). Carrano et al. (2012) also recover it as a megaraptoran carcharodontosaurid, and as it takes 12 more steps to force it into Carcharodontosaurinae and 15 more steps to force it into Megalosauroidea, the latter two options are improbable. Most recently, Novas et al. (2013) and Porfiri et al. (2014) have recovered Megaraptora within Tyrannosauroidea, in part due to the Dilong-like skull of MUCPv 595.
References- Novas, Cladera and Puerta, 1996. New theropods from the Late Cretacoues of Patagonia. Journal of Vertebrate Paleontology. 16(3), 56A.
Novas, 1998. Megaraptor namunhuaiquii, gen. et sp. nov., a large-clawed, Late Cretaceous theropod from Patagonia. Journal of Vertebrate Paleontology. 18(1), 4-9.
Calvo, Porfiri, Veralli and Novas, 2002. Megaraptor namunhuaiquii (Novas, 1998), a new light about its phylogenetic relationships. Primer Congreso latinoamericano de Paleontología de Vertebrados. Santiago de Chile, Octubre del 2002. p.20.
Calvo, Porfiri, Veralli, Novas and Pobletei, 2004. Phylogenetic status of Megaraptor namunhuaiquii Novas based on a new specimen from Neuquén, Patagonia, Argentina. Ameghiniana (Rev. Asoc. Paleontol. Argent.). 41(4), 565-575.
Lamanna, 2004. Late Cretaceous dinosaurs and crocodiliforms from Egypt and Argentina. PhD Thesis. University of Pennsylvania. 305 pp.
Porfiri, Calvo and Santos, 2007. Evidencia de gregarismo en Megaraptor namunhuaiquii (Theropoda: Tetanurae), Patagonia, Argentina. in Díaz-Martínez and Rábano (eds.). 4th European Meeting on the Palaeontology and Stratigraphy of Latin America. 323-326.
Porfiri, Santos and Calvo, 2007. New information on Megaraptor namunhuaiquii (Theropoda: Tetanurae), Patagonia: Considerations on paleoecological aspects. Arquivos do Museu Nacional, Rio de Janeiro. 65(4), 545-550.
Smith, Makovicky, Hammer and Currie, 2007. Osteology of Cryolophosaurus ellioti (Dinosauria: Theropoda) from the Early Jurassic of Antarctica and implications for early theropod evolution. Zoological Journal of the Linnean Society. 151, 377-421.
Smith, Makovicky, Agnolin, Ezcurra, Pais and Salisbury, 2008. A Megaraptor-like theropod (Dinosauria: Tetanurae) in Australia: support for faunal exchange across eastern and western Gondwana in the Mid-Cretaceous. Proceedings of the Royal Society B. 275(1647), 2085-2093.
Benson, 2010. A description of Megalosaurus bucklandii (Dinosauria: Theropoda) from the Bathonian of the UK and the relationships of Middle Jurassic theropods. Zoological Journal of the Linnean Society. 158(4), 882-935.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Carrano, Benson and Sampson, 2012. The phylogeny of Tetanurae (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 10(2), 211-300.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.
Aranciaga Rolando, Agnolin, Brisson Edli and Novas, 2015. Osteologia del miembro anterior de Megaraptor namunhuaiquii y sus implicancias filogeneticas. XXIX Jornadas Argentinas de Paleontología de Vertebrados, resumenes. Ameghiniana. 52(4) suplemento, 5-6.
M. sp. nov. (Martinez, Lamanna, Smith, Casal and Luna, 1999)
Middle Cenomanian-Turonian, Late Cretaceous
Lower Member of Bajo Barreal Formation, Chubut, Argentina

Material- (UNPSJB-PV 944) (subadult) first dorsal vertebra (~64 mm), two dorsal ribs, three incomplete mid caudal vertebrae, partial manual ungual I (~294 mm), phalanx II-2, manual ungual II fragment, partial manual ungual III, femoral fragment, fibular fragment, distal metatarsal II, two fragmentary pedal phalanges
(UNPSJB-PV 958) manual ungual I (~370 mm), manual ungual III, fragmentary femur, fragmentary tibia, incomplete fibula, distal metatarsal I, metatarsal II (~280 mm), incomplete phalanx II-1, phalanx II-2 (~62 mm), phalanx III-2 (~71 mm), two fragmentary pedal phalanges, fragments
Diagnosis- proximodorsal depression on manual ungual I; lateral vascular groove in manual ungual III well defined.
References- Martinez, Lamanna, Smith, Casal and Luna, 1999. New Cretaceous theropod material from Patagonia. Journal of Vertebrate Paleontology. 19(3), 62A.
Lamanna, Martínez, Luna, Casal, Ibiricu and Ivany, 2004. Specimens of the problematic large theropod dinosaur Megaraptor from the Late Cretaceous of central Patagonia. Journal of Vertebrate Paleontology. 24(3), 252A.
Lamanna, 2004. Late Cretaceous dinosaurs and crocodiliforms from Egypt and Argentina. PhD Thesis. University of Pennsylvania. 305 pp.
M? sp. nov. (Smith, Makovicky, Agnolin, Ezcurra, Pais and Salisbury, 2008)
Late Aptian-Early Albian, Cretaceous
Eumeralla Formation of the Otway Group, Victoria, Australia
Material
- (NMV P186076) ulna (192.6 mm)
Diagnosis- distal ulna with circular outline.
Comments- Pigdon (DML, 1998) noted a supposedly dromaeosaurid ulna had been reported in the 1998 Flat Rocks Site Report, mentioned by Rich and Rich. Pidgon states (pers comm., 2007) that Rich and Rich had forgotten about suggesting a dromaeosaurid identity and that it may be the ulna photographed in Rich and Vickers-Rich (2003) and identified merely as theropod. Salisbury et al. (2007) stated it compared favorably to Megaraptor, which was expanded on in Smith et al.'s (2008) description and phylogenetic analysis. They referred it to cf. Megaraptor based on two characters- proximocaudally expanded blade-like olecranon process that extends distally as a caudal olecranon crest; pronounced lateral tuberosity that is continuous distally with a distinct lateral crest. Benson et al. (2010) claimed they were potentially more widespread within megaraptorans, referring the ulna to Neovenatoridae indet.. The proximocaudally expanding olecranon is indeed shared with Australovenator (but not Fukuiraptor), and the lateral tuberosity is even larger in Australovenator (unpreserved in Fukuiraptor). However, even if the blade-like olecranon is due to crushing as they say, the posterior olecranon crest is absent in Australovenator and Fukuiraptor, and the lateral crest emerging from the lateral tuberosity is absent in Australovenator at least. Thus pending further study, NMV V186076 is closer to Megaraptor than to other megaraptorans known from ulnae, but how it compares to Aerosteon or Orkoraptor is unknown.
References- Rich, 1998. Research Update. Dinosaur Dreaming 1998 Annual Report. Monash University.
http://dml.cmnh.org/1998Sep/msg00454.html
Rich and Vickers-Rich, 2003. Protoceratopsian? ulnae from the Early Cretaceous of Australia. Records of the Queen Victoria Museum. 113, 12 pp.
Salisbury, Agnolin, Ezcurra and Pais, 2007 A critical reassessment of the Cretaceous non-avian dinosaur faunas of Australia and New Zealand. Journal of Vertebrate Paleontology. 27(3), 138A.
Smith, Makovicky, Agnolin, Ezcurra and Salisbury, 2008. A Megaraptor-like theropod (Dinosauria: Tetanurae) from Australia; support for faunal exchange between Eastern and Western Gondwana in the Mid-Cretaceous. Journal of Vertebrate Paleontology. 28(3), 145A.
Smith, Makovicky, Agnolin, Ezcurra, Pais and Salisbury, 2008. A Megaraptor-like theropod (Dinosauria: Tetanurae) in Australia: Support for faunal exchange across Eastern and Western Gondwana in the Mid-Cretaceous. Proceedings of the Royal Society B. 275(1647), 2085-2093.
Benson, Carrano and Brusatte, 2010. A new clade of archaic large-bodied predatory dinosaurs (Theropoda: Allosauroidea) that survived to the latest Mesozoic. Naturwissenschaften. 97(1), 71-78.
Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polar diversity and climate-driven dinosaur provinciality. PLoS ONE. 7(5), e37122.

Murusraptor Coria and Currie, 2016
M. barrosaensis Coria and Currie, 2016
Coniacian, Late Cretaceous
Sierra Barrosa Formation of the Rio Neuquen Subgroup, Neuquen, Argentina

Holotype- (MCF-PVPH 411) (~6.5 m) lacrimal, prefrontal, postorbital, quadrate (149 mm), braincase, pterygoids, incomplete ectopterygoid, posterior mandible, thirty-one teeth (12.3-49.8 mm), anterior cervical rib, second dorsal neural arch, sixth dorsal neural arch, seventh dorsal neural arch, eighth dorsal neural arch, tenth dorsal neural arch, eleventh dorsal vertebra (82 mm), twelve dorsal ribs (first 631, seventh 710, , dorsal rib fragments, gastralia, partial fused first (110 mm) and second sacral vertebrae, third or fourth sacral neural arch, first caudal neural arch, two proximal caudal neural arches, proximal chevron (238 mm), incomplete manual ungual III (~62 mm), ilium (750 mm), proximal pubes, incomplete ischia, tibia (690 mm), calcaneum
Diagnosis- (after Coria and Currie, 2016) anterodorsal lacrimal process longer than height of ventral process; thick, shelf-like thickening on lateral surface of surangular ventral to groove between anterior surangular foramen and insert for uppermost intramandibular process of the dentary; sacral ribs hollow and tubelike; short ischia distally flattened and slightly expanded dorsoventrally.
Comments- Discovered in 2001, Coria and Currie (2002) and Paulina-Carabajal (2009) assign this specimen to Coelurosauria, the latter describing its braincase in detail. Novas et al. (2013) propose a megaraptoran affinity and Paulina-Carabajal and Coria (2015) refer to it as a "probable megaraptorid." The specimen was finally described in detail by Coria and Currie (2016) as Murusraptor, recovered as a megaraptorid in a version of Carrano et al.'s tetanurine analysis and as a megaraptoran in Novas et al.'s tetanurine analysis. Note the quadratojugal, palatine, hyoids and cervical vertebrae reported in 2001 must have been misidentified as they are not present in the final description, and that the sediments were reassigned from the Plottier Formation to the Sierra Barrosa Formation.
References- Coria, Currie, Eberth, Garrido and Koppelhus, 2001. Nuevos vertebrados fósiles del Cretácico Superior de Neuquén. Ameghiniana. 38, 6R-7R.
Coria and Currie, 2002. Un gran terópodo celurosaurio en el Cretácico Superior de Neuquén. Ameghiniana. 39, 9R.
Paulina-Carabajal, 2009. El neurocráneo de los dinosaurios Theropoda de la Argentina: Osteología y sus implicancias filogenéticas. PhD thesis, Universidad Nacional de La Plata. 554 pp.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Paulina-Carabajal and Coria, 2015. An unusual theropod frontal from the Upper Cretaceous of north Patagonia. Alcheringa. 39(4), 514-518.
Coria and Currie, 2016. A new megaraptoran dinosaur (Dinosauria, Theropoda, Megaraptoridae) from the Late Cretaceous of Patagonia. PLoS ONE. 11(7), e0157973.

Tyrannoraptora Sereno, 1999
Definition- (Tyrannosaurus rex + Passer domesticus) (Holtz et al., 2004; modified from Sereno, 1999)

Aristosuchus Seeley, 1887
A. pusillus (Owen, 1876) Seeley, 1887
= Poekilopleuron pusillus Owen, 1876
= Poekilopleuron minor Owen vide Cope, 1878
Barremian, Early Cretaceous
Wessex Formation, England

Holotype- (BMNH R178) (~2 mm) first sacral vertebra (25 mm), second sacral vertebra (29 mm), third sacral vertebra (24 mm), fourth sacral vertebra (23 mm), fifth sacral vertebra (21 mm), distal pubes
Paratypes- ....(BMNH R178a) dorsal vertebra (21 mm)
....(BMNH R178b) two incomplete distal caudal vertebrae (28 mm)
....(BMNH R179) incomplete manual ungual
Comments- The type material was discovered in 1866 (Naish, 2002; Blows, 1983), though not described by Owen until a decade later as a new species of Poekilopleuron. As Fox (in Blows, 1983) wrote the bones "were found in the compass of a dinner plate", the paratypes probably belong to the same individual as the holotype. Cope (1878) wrote "Owen has recently described an English species of Laelaps under the name Poecilopleuron minor", which might be a mistake as pusillus means 'very small'.
Lydekker (1888) referred an additional manual ungual (BMNH R899) to the taxon, but Naish (2002) notes it has a low and distally positioned flexor tubercle unlike the paratype ungual so may be from another species. Galton (1973) referred both the tibia BMNH R186 and proximal femur BMNH R5194 to Aristosuchus, but neither can be compared to the type material and are more properly Coelurosauria incertae sedis (though the tibia has been referred to Ornithomimosauria by Allain et al., 2014). Naish (1999) described the tibia MIWG 5137 as possibly being Aristosuchus. Hutt (2001) listed IWCMS 1995.208, MIWG 5823 and MIWG 5824 as Aristosuchus sp., but the specimens are undescribed though the vertebrae may be comparable to the type specimens. Naish (2002) illustrated partial ischium BMNH R6426 as a possible Aristosuchus specimen. Any of these specimens may be referrable to Aristosuchus, which may also be synonymous with Calamosaurus and/or Calamospondylus.
Jurcsak (1982) referred a cervical vertebra and caudal centrum from the Cornet Bauxite of Romania to Aristosuchus sp., but there is no rationale for this and the specimens cannot be compared to the type.
References- Owen, 1876. Supplement (No. VII) to the Monograph on the Fossil Reptilia of the Wealden and Purbeck Formations. Palaeontographical Society Monograph. 30, 1-7.
Cope, 1878. The affinities of the Dinosauria. The American Naturalist. 12, 57-58.
Seeley, 1887a. On Aristosuchus pusillus Ow., being further notes on the fossils described by Sir R. Owen as Poikilopleuron pusillus, Ow. Geological Magazine. 47, 234-235.
Seeley, 1887b. On Aristosuchus pusillus Owen, being further notes on the fossils described by Sir R. Owen as Poikilopleuron pusillus. Owen. Quarterly Journal of the Geological Society of London. 43, 221-228.
Lydekker, 1888. Catalogue of the Fossil Reptilia and Amphibia in the British Museum (Natural History), Cromwell Road, S.W., Part 1. Containing the Orders Ornithosauria, Crocodilia, Dinosauria, Squamata, Rhynchocephalia, and Proterosauria. British Museum of Natural History, London. 309 pp.
Galton, 1973. A femur of a small theropod dinosaur from the Lower Cretaceous of England. Journal of Paleontology. 47, 996-1001.
Jurcsak, 1982. Occurrences nouvelles des Sauriens mesozoiques de Roumanie. Vertebrata Hungarica. 21, 175-184.
Blows, 1983. William Fox (1813-1881), a neglected dinosaur collector of the Isle of Wight. Archives of Natural History. 11, 299-313.
Naish, 1999. Studies on Wealden Group theropods - An investigation into the historical taxonomy and phylogenetic affinities of new and previously neglected specimens. Masters thesis, University of Portsmouth. 184 pp.
Hutt, 2001. Catalogue of Wealden Group Dinosauria in the Museum of Isle of Wight Geology. In Martill and Naish (eds). Dinosaurs of the Isle of Wight. The Palaeontological Association. 411-422.
Naish, Hutt and Martill, 2001. Saurichian dinosaurs 2: Theropods. In Martill and Naish (eds). Dinosaurs of the Isle of Wight. The Palaeontological Association. 242-309.
Naish, 2002. The historical taxonomy of the Lower Cretaceous theropods (Dinosauria) Calamospondylus and Aristosuchus from the Isle of Wight. Proceedings of the Geologists' Association. 113, 153-163.
Naish, 2011. Theropod dinosaurs. In Batten (ed.). English Wealden Fossils. The Palaeontological Association. 526-559.
Allain, Vullo, Le Loeuff and Tournepiche, 2014. European ornithomimosaurs (Dinosauria, Theropoda): An undetected record. Geologica Acta. 12(2), 127-135.

"Arkansaurus" Sattler, 1983
"A. fridayi" Braden, 1998
Aptian-Albian, Early Cretaceous
Trinity Group, Arkansas, US

Material- (UAM 74-16) metatarsal II (350 mm), phalanx II-1 (105 mm), phalanx II-2 (70 mm), metatarsal III (393 mm), phalanx III-1 (84 mm), phalanx III-2 (70 mm), metatarsal IV (355 mm), phalanx IV-1 (60 mm), three partial pedal unguals
Comments- A partial dorsal vertebra, caudal vertebra, scapular fragment and femoral fragment are also known from the Trinity Group, but were not associated with the specimen.
References- Quinn, 1973. Arkansas dinosaur. Geological Society of America Abstracts with Program. 5, 276-277.
Sattler, 1983. The Illustrated Dinosaur Dictionary. New York: Lothrop, Lee, and Shepard Books.
Braden, 1998. The Arkansas dinosaur "Arkansaurus fridayi". Arkansas Geological Commission.
Kirkland, Britt, Whittle, Madsen and Burge, 1998. A small coelurosaurian theropod from the Yellow Cat Member of the Cedar Mountain Formation (Lower Cretaceous, Barremian) of Eastern Utah. in Lucas, Kirkland and Estep (eds.). Lower and Middle Cretaceous Ecosystems. New Mexico Museum of Natural History and Science Bulletin. 14, 239-248.
Hunt, 2002. An Early Cretaceous theropod foot from Southwestern Arkansas as a possible track maker in Central Texas and Southwestern Utah. Journal of Vertebrate Paleontology. 22(3), 68A.
Hunt, 2003. An Early Cretaceous theropod foot from Southwestern Arkansas. Proceedings Journal of the 2003 Arkansas Undergraduate Research Conference. 87-103.

Bagaraatan Osmolska, 1996
B. ostromi Osmolska, 1996
Maastrichtian, Late Cretaceous
Nemegt Formation, Mongolia

Holotype- (ZPAL MgD-I/108) (~3 m; adult) (mandible ~230 mm) anterior dentary, posterior mandible, sacral neural spine, twenty-five caudal vertebrae (80, 65, 44, 37 mm), several chevrons, partial ilia, proximal pubis, proximal ischium, proximal and distal femur (~315 mm), tibia (365 mm, 380 mm with tarsus), fibula (~350 mm), astragalocalcaneum, pedal phalanx II-2 (37 mm), pedal phalanx IV-1 (34 mm)
Diagnosis- antarticular present; lateral longitudinal ridge present on proximal caudal prezygopophyses; two large fossae on the lateral postacetabular surface; anterior and greater trochanters with minimal separation; accessory trochanter; posterior trochanter present; tibiofibular crest powerfully developed; tibia broader mediolaterally than long anteroposteriorly in proximal view; tibia, fibula, astragalus and calcaneum fused.
Comments- The holotype was discovered in 1970 and initially announced by Gradzinski and Jerzykiewicz (1972) as a "coeluroid dinosaur", but not described until 1996 by Osmolska. She placed it in Avetheropoda and noted resemblences to supposed Iren Dabasu avimimid femur PIN 2549-100, which has been subsequently identified as troodontid. Csiki and Grigorescu (1998) remarked on similarities between it, several European maniraptoriforms (Elopteryx, Heptasteornis, Bradycneme) and supposed ceratosaur distal femur FGGUB R.351 which is now thought to be a hadrosaurid metatarsal. Holtz (2000) placed it outside Tyrannoraptora, but more derived than Proceratosaurus, Ornitholestes, Coelurus and Scipionyx. Longrich (2001) placed it in the Maniraptora in his unpublished analysis, in a trichotomy with alvarezsaurids and avepectorans. By 2002, it was appearing as a basal tyrannosauroid or basal maniraptoran (sister to enigmosaurs + paravians) in Holtz's unpublished analyses (DML, 2002). Coria et al. (2002) refer it to the Troodontidae without discussion. Rauhut (2003) found it to be a maniraptoran in a trichotomy with enigmosaurs and paravians. Holtz (2004) resolves it as the basalmost tyrannosauroid. Carr (2005) found it to be the sister taxon of Bistahieversor, both being sister to Tyrannosauridae, based on cranial characters. When the hindlimb characters in Carr (2005) are combined with these (personal observation), Bagaraatan is resolved as an albertosaurine sister to Appalachiosaurus. Finally, Brusatte (2013) strongly suspects Bagaraatan is a chimaera of tyrannosauroid and other coelurosaurian elements, which will be the subject of a paper written by Makovicky, himself and others. Based on general morphology and the above results, it may end up that the mandible, vertebrae and pelvis are tyrannosauroid while the hindlimb is troodontid.
References- Gradzinski and Jerzykiewicz, 1972. Additional geographical and geological data from the Polish-Mongolian paleontological expedition. Palaeontologica Polonica. 27, 17-30.
Osmolska, 1996. An unusual theropod dinosaur from the Late Cretaceous Nemegt Formation of Mongolia. Acta Palaeontologica Polonica. 41, 1-38.
Csiki and Grigorescu, 1998. Small theropods from the Late Cretaceous of the Hateg Basin (Western Romania) - An unexpected diversity at the top of the food chain. Oryctos. 1, 87-104.
Holtz, 2000. A new phylogeny of the carnivorous dinosaurs. Gaia 15. 5-61.
Longrich, 2001. Secondarily flightless maniraptoran theropods? Journal of Vertebrate Paleontology. 21(3), 74A.
Coria, Chiappe and Dingus, 2002. A new close relative of Carnotaurus sastrei Bonaparte 1985 (Theropoda: Abelisauridae) from the Late Cretaceous of Patagonia. Journal of Vertebrate Paleontology. 22, 460-465.
Rauhut, 2003. The interrelationships and evolution of basal theropod dinosaurs. Special Papers in Palaeontology. 69, 1-213.
Holtz, 2004. Tyrannosauroidea. In Weishampel, Dodson and Osmolska. The Dinosauria Second Edition. University of California Press. 861 pp.
Carr, 2005. Phylogeny of Tyrannosauroidea (Dinosauria: Coelurosauria) with special reference to North American forms. PhD thesis, University of Toronto. 1170 pp.
Brusatte, 2013. The phylogeny of basal coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. PhD thesis, Columbia University. 944 pp.

"Dryosaurus" grandis Lull, 1911
= Ornithomimus affinis Gilmore, 1920
= Coelosaurus affinis (Gilmore, 1920) Matthew and Brown, 1922
= Archaeornithomimus affinis (Gilmore, 1920) Russell, 1972
Late Aptian-Early Albian, Early Cretaceous
Arundel Formation, Maryland, US

Syntypes- ?(Goucher College 2609) phalanx
(USNM 5453) pedal phalanx II-1 (82 mm)
?(USNM 5652) partial astragalus (78 mm wide)
?(USNM 5684) distal metatarsal III
?(USNM 5703) pedal phalanx III-2 (69 mm)
?(USNM 5704) distal metatarsal II
?(USNM 6107) pedal ungual II (55.5 mm)
?(USNM 6108) pedal phalanx II-1 (79 mm)
?(USNM 8456) pedal phalanx IV-3 (38 mm)
Referred- ?(USNM 5701) distal caudal vertebra (68.7 mm) (Gilmore, 1920)
?(USNM 6115) distal end of proximal pedal phalanx (Gilmore, 1920)
?(USNM 6116) distal caudal vertebra (67.5 mm) (Gilmore, 1920)
Diagnosis- While the syntypes together provide a unique combination of characters (anterior transverse groove on astragalus; proximally extensive distal articular surface on metatarsal II; metatarsal III distally convex; curved pedal unguals with no side flanges), they may not belong to the same taxon.
Comments- Collected in the late 1880's, Marsh (1888) originally referred hindlimb and pedal elements to his new species Allosaurus medius, including USNM 5453 and 5652 as syntypes. Lull (1911) retained a tooth (USNM 4972) as the lectotype of Allosaurus medius, but noted USNM 5453 was "surely" ornithopod and USNM 5652 was "probably" so, making these and other material (USNM 5684, 5703 [mistyped as 5684 in the materals list], 5704, 6107- then unnumbered, and Goucher College 2609) syntypes of his new species Dryosaurus grandis. He also described USNM 6108 and 8456 as belonging to the taxon. Whether all of these remains were originally associated is unknown, though they are of the right size to be. USNM 5453 and 6108 are both left pedal phalanges II-1, so indicate at least two individuals are present. Gilmore realized they were coelurosaurian, assigning them to Ornithomimidae in a short note (1919) and making the USNM material syntypes of his new species Ornithomimus affinis (since the combination Ornithomimus grandis already existed) in an in depth description (1920). While the species name affinis has been used by everyone since, grandis has priority when not paired with Ornithomimus since it was named nine years earlier. It is not a nomen oblitum, as it was used as a valid name after 1899 (Article 23.9.1.1). If it is to be conserved, it must be referred to the ICZN for a ruling under the plenary power (23.9.3). Gilmore referred four more specimens to his species, but these are not comparable to the syntypes and may belong to other small theropod taxa. Matthew and Brown (1922) referred affinis to "Coelosaurus" (which they thought could be congeneric itself with Ornithomimus) based on geography and incorrectly thinking "Coelosaurus" antiquus lived earlier than Ornithomimus and Struthiomimus. Russell (1972) referred the species to Archaeornithomimus based on the curved pedal unguals, and Paul (1988) went along by placing it in Ornithomimus but the subgenus Archaeornithomimus. Notably both Gilmore and Paul had concepts of Ornithomimus equivalent to Ornithomimidae as used today. However, Smith and Galton (1990) noted the only preserved pedal ungual of Archaeornithomimus asiaticus is straight and that curved unguals from Iren Dabasu may be Alectrosaurus instead. Smith and Galton further considered the Arundel ungual to be Theropoda indet. along with the rest of the specimens, though they noted the metatarsals were coelurosaur-grade. USNM 8456 was identified as phalanx IV-2 by Gilmore, but is more likely IV-3 based on its proportions.
"Dryosaurus" grandis differs from basal ornithomimosaurs (Harpymimus, Garudimimus, "Grusimimus" and Beishanlong) in having a transverse groove on the anterior astragalar body, less bulbous medial condyle, less pointed medial edge of the distal articular surface on metatarsal II, more proximally extensive distal articular surface on the extensor aspect of metatarsal II, more slender pedal phalanges (though III-2 is comparable to "Grusimimus"), less pediculate ventral articular condyle on pedal phalanx II-1 which extends about as proximally as the dorsal peak, less expanded distal metatarsal III (both transversely and anteroposteriorly) with slightly convex distal edge, larger ligament pit on pedal phalanx III-2, and transversely narrower pedal ungual (except for "Grusimimus") with no side flanges. Pedal phalanx III-2 oddly seems to share the proximolateral depression with Garudimimus, which is supposedly an apomorphy of that genus. Yet Caudipteryx and Struthiomimus have it as well, so this may be more variable than Kobayashi and Barsbold believe. Derived ornithomimids like Archaeornithomimus and Struthiomimus are even less similar, with large ventrally extended side flanges on their unguals, though their articular surface on metatarsal II does extend proximally even further than in grandis. Compared to Archaeornithomimus specifically, grandis further differs in having much more concave distal astragalar margin, lacking a large flange medial to the distal condyles of metatarsal III, the distal articular surface of which is proximally peaked, and curved pedal unguals. Archaeornithomimus is similar in having a convex distal articular surface on metatarsal III though.
Among known American Early Cretaceous basal coelurosaurs, Nedcolbertia is difficult to compare, as the apparently complete foot of CEUM 5071 is only photographed articulated in anterior view, while that of CEUM 5072 is fragmentary. Yet it seems more similar in lacking the bulbous medial astragalar condyle, perhaps having a more rounded medial edge of distal metatarsal II, and more slender pedal phalanges and unguals. It still lacks the anterior astragalar groove and comparatively unexpanded distal metatarsal III (transversely at least), and has unguals with a larger flexor tubercle which are lower and straighter. "Arkansaurus" has a more transversely expanded metatarsal II, but the outline of metatarsal III is similar in anterior view, though in lateral view the articular end is less elongated posterodistally and the posterior shaft edge is not convex. Phalanx II-1 is far more expanded transversely and dorsally at its proximal end, while the best preserved ungual is generally similar in proportions and curvature, though it has ornithomimosaur-like side flanges. Ostrom's (1970) Cloverly Ornithomimus sp. cannot be compared except for the highly dissimilar pedal ungual, which is straight and very low with side flanges.
Tyrannosauroids like Appalachiosaurus differ from "Dryosaurus" grandis in similar ways that ornithomimosaurs do, except their metatarsal III is more similar in morphology (less expanded anteroposteriorly and laterally, with a slightly convex distal edge). Metatarsal III is also more similar in having the distal condyles elongated posterodistally with little anterior expansion (also somewhat present in IVPP V12756). The pedal unguals are less tapered in dorsal view and have side flanges though, and pedal phalanges are much stouter. "Dryosaurus" grandis is even more dissimilar to carnosaurs and Fukuiraptor (except in having the astragalar groove), lacks the ginglymoidy and specialized second digit of deinonychosaurs, the derived pedal characters of therizinosaurs, and bears no particular resemblence to basal oviraptorosaur material.
Based on these comparisons, grandis does not belong in Archaeornithomimus, Ornithomimus or "Coelosaurus", and seems more likely to be a basal tyrannosauroid or basal coelurosaur than an ornithomimosaur. Another possibility is that it is a chimaera, with the astragalus being (juvenile?) carnosaurian, the second metatarsal being ornithomimid, third metatarsal tyrannosauroid, pedal phalanges basal coelurosaurian, and the ungual tyrannosauroid or basal coelurosaurian. The Paleobiology Database lists USNM 5453 as the holotype, and it was the specimen assigned to Dryosaurus grandis most definitively by Lull, so perhaps the taxon should be assigned to Coelurosauria incertae sedis for now.
As for the referred specimens, the distal caudal USNM 5701 (referred to Allosaurus medius by Lull) is elongate unlike oviraptorosaurs and derived therizinosaurs, and has a neural spine unlike paravians and some basal coelurosaurs (Coelurus). Gilmore (1920) notes the prezygapophyses are restored too short, and were originally elongate as in carnosaurs, ornithomimosaurs, tyrannosauroids and some basal coelurosaurs (Ornitholestes, Juravenator). The amphicoelous centrum excludes alvarezsaurids from consideration. The caudal is more elongate than those of carnosaurs or tyrannosaurids, so may be ornithomimosaur or basal coelurosaur in nature. It cannot be definitely associated with the syntypes. The other caudal is apparently similar.
The vertebral centrum USNM 8454 was originally referred to the ankylosaur Priconodon by Lull (based on comparison to Stegosaurus), but provisionally reassigned to Ornithomimus affinis by Gilmore (1920), who thought it was a first sacral centrum. It is 69 mm long and from a young individual as the neural arch is unfused. It is certainly not an avetheropod posterior dorsal or sacral centrum, as it is much taller than wide, not very constricted ventrally nor transversely expanded anteriorly, lacks sutures for sacral ribs and has a ventral keel. These features are more similar to caudal vertebrae, but there seem to be no chevron facets. The lack of parapophyses excludes anterior dorsals and cervicals from consideration. Although ankylosaurs sometimes have transversely compressed anterior sacrals (e.g. Polacanthus) and a straighter ventral margin, they also have sacral rib facets and very wide neural canals unlike USNM 8454. Their dorsal vertebrae are universally wide while their caudals have transverse processes located on the centrum. Tenontosaurus has deeper vertebrae which are opisthocoelous (anterior dorsals) or broad (posterior dorsals, sacrals, proximal caudals), though the centra are keeled. Smaller ornithopods have longer centra, which are still far too broad, though more comparable in ventral concavity. Sauropods like Pleurocoelus have pleurocoels or lateral fossae in their centra, except for caudals which resemble those of ankylosaurs in having ventrally placed transverse processes. They further differ in being broader and opisthocoelous (presacrals) with no ventral keel. Thus while no close match can be found at the moment, it doesn't match theropod centra and seems more likely to be a small ornithischian. It is here excluded from grandis.
Neither Goucher College 2609 (which has been recatalogued in the USNM) nor USNM 6115 have been described or illustrated, so comparison is not possible.
References- Marsh, 1888. Notice of a new genus of Sauropoda and other new dinosaurs from the Potomac Formation. American Journal of Science (set 3). 35, 89-94.
Lull, 1911. Systematic paleontology of the Lower Cretaceous deposits of Maryland: Vertebrata. Maryland Geological Survey. Lower Cretaceous volume, 183-211.
Gilmore, 1919. An ornithomimid dinosaur in the Potomac of Maryland. Science. 1295, 394-395.
Gilmore, 1920. Osteology of the carnivorous Dinosauria in the United States National Museum with special reference to the genera Antrodemus (Allosaurus) and Ceratosaurus. United States National Museum Bulletin. 110, l-154.
Gilmore, 1921. The fauna of the Arundel Formation of Maryland. Proceedings of the United States National Museum. 59(2389), 581-594.
Matthew and Brown, 1922. The family Deinodontidae, with notice of a new genus from the Cretaceous of Alberta. Bulletin of the American Museum of Natural History. 46(6), 367-385.
Ostrom, 1970. Stratigraphy and paleontology of the Cloverly Formation (Lower Cretaceous) of the Bighorn Basin area, Wyoming and Montana. Peabody Mus. Nat. Hist., Yale Univ., Bull. 35, 234 pp.
Russell, 1972. Ostrich dinosaurs of the Late Cretaceous of Western Canada. Canadian Journal of Earth Sciences. 9, 375-402.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster, New York.
Smith and Galton, 1990. Osteology of Archaeornithomimus asiaticus (Upper Cretaceous, Iren Dabasu Formation, People's Republic of China). Journal of Vertebrate Paleontology. 10(2), 255-265.

Kakuru Molnar and Pledge, 1980
K. kujani Molnar and Pledge, 1980
Aptian, Early Cretaceous
Maree Formation, South Australia, Australia

'Plastoholotype'- (SAM P17926) tibia (~330 mm), fibular fragments
Referred- ?(SAM P18010) pedal phalanx (44 mm) (Molnar and Pledge, 1980)
Diagnosis- (after Molnar and Pledge, 1980) astragalar facet becoming slender dorsally to a distinct apex, not broad enough to extend across width of tibia at any point; astragalar facet limited medially by pronounced anterior ridge that runs dorsally from medial mediolus; medial malleolus strongly projected medially.
Comments- This taxon has been favorably compared to Avimimus by Paul (1988) and Molnar (pers. comm. to Norman, 1990) based on the tibia's slender proportions, but these are seen in many other small coelurosaurs as well. As most coelurosaur tibiae still have proximal tarsals attached, comparison is usually limited to the shape of the lateral and medial edges and of the astragalar ascending process. In addition to Avimimus, such varied taxa as Garudimimus and Achillobator approach the basic outline of Kakuru's tibia. The height of Kakuru's ascending process is characteristic of tyrannoraptorans, though Tugulusaurus, Fukuiraptor and noasaurids approach it. The width to depth ratio in distal view is at least as high as abelisauroids and tetanurines, but lower than maniraptorans or Coelurus. Most coelurosaurs' ascending processes are more extensive medially, except for Tugulusaurus and basal arctometatarsalians. The strongly pointed ascending process is only rivaled by Shuvuuia's and Garudimimus', though Kakuru lacks the medial notch characteristic of alvarezsaurid and basal ornithomimosaur ascending processes. Rauhut (2005) argued for an abelisauroid identity (echoed by Salisbury et al., 2007) based on the anterior ridge extending vertically medial to the ascending process, as seen in Quilmesaurus, Masiakasaurus and Velocisaurus. However, Rauhut (2012) later recognized this is present in numerous other theropods as well, including Chuandongocoelurus, Suchomimus and several basal coelurosaurs. Agnolin et al. (2010) misunderstood Rauhut as claiming Kakuru had a median ridge in the ascending process' facet, which they noted is a taphonomic artifact in that taxon. Those authors placed Kakuru in Neotheropoda (their Averostra) incertae sedis, though this can be narrowed further as they correctly point out no ceratosaur has such a high ascending process. Kakuru is retained as Tyrannoraptora incertae sedis here.
References- Molnar and Pledge, 1980. A new theropod dinosaur from South Australia. Alcheringa. 4, 281-287.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster, New York.
Norman, 1990. Problematic Theropoda: "Coelurosaurs". in Weishampel, et al. (eds.), The Dinosauria. University of California Press, Berkeley, Los Angeles, Oxford. pp. 280-305.
Rauhut, 2005. Post-cranial remains of ‘coelurosaurs’ (Dinosauria, Theropoda) from the Late Jurassic of Tanzania. Geol. Mag. 142(1), 97-107.
Salisbury, Agnolin, Ezcurra and Pias, 2007. A critical reassessment of the Creaceous non-avian dinosaur faunas of Australia and New Zealand. Journal of Vertebrate Paleontology. 27(3), 138A.
Agnolin, Ezcurra, Pais and Salisbury, 2010. A reappraisal of the Cretaceous non-avian dinosaur faunas from Australia and New Zealand: Evidence for their Gondwanan affinities. Journal of Systematic Palaeontology. 8(2), 257-300.
Rauhut, 2012. A reappraisal of a putative record of abelisauroid theropod dinosaur from the Middle Jurassic of England. Proceedings of the Geologists' Association. 123(5), 779-786.

Microvenator? "chagyabi" Zhao, 1986
= Microvenator "chagyaensis" Zhang and Li, 1997
Early Cretaceous
Lura Formation, Tibet, China
Material- (IVPP coll.) specimen including teeth
Comments- This specimen was first reported by Zhao (1983) who while discussing the evolution of dinosaurs in China noted "the teeth of coelurosaurids (Microvenator Ostrom) gradually disappeared and became few in number" in the Early Cretaceous. He earlier noted the "tooth is thinnest and no serration occurs" in Early Cretaceous coelurosaurs. As Ostrom did not refer any teeth to Microvenator, it might be concluded Zhao was referring to the teeth of an undescribed Chinese specimen of Microvenator. This idea is strengthened by the later mention of a new Microvenator species from the same deposits as other Early Cretaceous taxa Zhao mentions (Monkonosaurus, ?Asiatosaurus, ?Prodeinodon). As with other new Tibetan taxa listed by Zhao (1983), it was probably supposed to be described by Zhao in the published version of his doctoral dissertation "The Mesozoic vertebrate remains of Xizang (Tibet), China", in the second Palaeontology of Xizang volume. Yet this volume is only referenced by Zhao (1983; which was submitted in September 1981) and seems never to have been printed, though the previous volume was published by the IVPP in 1980 and the third by the NIGP in 1981. Olshevsky (DML, 1999) notes the IVPP rejected the paper as unpublishable. Zhao (1986) reported Microvenator chagyabi from the Loe-ein Formation. It was later mentioned by Zhang and Li (1997) as Microvenator chagyaensis from the Laoran Formation of Qamdun, Zhag'yab County, Tibet. It is near certainly the same specimen listed as ?Coelurosauria indet. by Weishampel et al. (2004) from the Lura Formation of Xizang Zizhiqu. As the specimen has never been described or illustrated, it is a nomen nudum. If it indeed has serrationless teeth, it is probably a coelurosaur. It may even be a basal oviraptorosaur like Microvenator celer, as the Early Cretaceous Chinese taxa Incisivosaurus, Protarchaeopteryx and Caudipteryx have serrationless teeth as well. However, there is still no published evidence for this or its generic referral.
Chure and McIntosh (1989) accidentally use the combination Microvenator dayensis, presumably caused by confusion with the sauropod "Microdontosaurus dayensis".
References- Zhao, "1983" [unpublished]. The Mesozoic vertebrate remains of Xizang (Tibet), China. The Series of the Scientific Expeditions to the Qinghai-Xizang Plateau. Palaeontology of Xizang. 2, 1-200.
Zhao, 1983. Phylogeny and evolutionary stages of Dinosauria. Acta Palaeontologica Polonica. 28(1-2), 295-306.
Zhao, 1986. The Cretaceous biota of China: Reptilia. in Hao, Su, Yu, Li, Li, Wang, Qi, Guan, Hu, Liu, Yang, Ye, Shou, Zhang, et al. (eds.). The Cretaceous System of China. Stratigraphy of China. 12, 67-73, plates XI, XII.
Chure and McIntosh, 1989. A Bibliography of the Dinosauria (Exclusive of the Aves) 1677-1986. Museum of Western Colorado Paleontology Series #1. 226 pp.
Zhang and Li, 1997. Mesozoic Dinosaur Localities in China and Their Stratigraphy. In Wolberg, Sump and Rosenberg (eds.). Dinofest International, Proceedings of a Symposium sponsered by Arizona State University. A Publication of The Academy of Natural Sciences. 265-273.
Olshevsky, DML 1999. http://dml.cmnh.org/1999Nov/msg00507.html
Weishampel, Barrett, Coria, Le Loeuff, Xu, Zhao, Sahni, Gomani and Noto, 2004. Dinosaur Distribution. in Weishampel, Dodson and Osmolska, 2004. The Dinosauria: Second Edition.

Mirischia Naish, Martill and Frey, 2004
M. asymmetrica Naish, Martill and Frey, 2004
Albian, Early Cretaceous
Romualdo Member of Santana Formation, Brazil

Holotype- (SMNK 2349 PAL) (~2.1 m; subadult) posterior twelfth dorsal vertebra, thirteenth dorsal vertebra (26 mm), twefth dorsal rib, gastralia, anterior synsacrum, partial ilia, pubes, incomplete ischia, incomplete femora (165 mm), proximal tibia, proximal fibula, intestine, postpubic airsac(?)
Diagnosis- (modified from Naish et al., 2004) pubic peduncle of ilium with concave cranial surface; pubic boot with no cranial expansion and 32% total length of pubis; pedicular fossae located craniodorsal to neural canal on caudal dorsal vertebra; distal tips of the neural spines between 63% and 67% longer than their bases; ventral surface of sacral centra bearing shallow median depressions at either end; extremely thin bone walls to all known elements.
Comments- This specimen was obtained from a private collector. Brusatte (2013) determined that contra earlier authors, both the obturator fenestrae of the pubes and ischia were originally closed, with those of the left pubis and right ischium only appearing open due to damage.
This taxon was originally described as a compsognathid (Martill et al., 2000; Naish et al., 2004) and found to be in that clade in Rauhut's (2003) analysis (though unnamed at the time), based on anteroposteriorly expanded dorsal neural spine apices and an elongate pubic boot with reduced cranial component. However, these characters are common among other basal coelurosaurs, including basal tyrannosauroids. Novas et al. (2012) and Brusatte et al. (2014) also recovered this result. Naish (online, 2006) noted Mirischia is similar to tyrannosauroids in having an anteriorly concave pubic peduncle and referred the taxon to that clade. Dal Sasso and Maganuco (2011) found it to be the most basal coelurosaur in their version of Senter's coelurosaur analysis.
References- Martill, Frey, Sues and Cruickshank, 2000. Skeletal remains of a small theropod dinosaur with associated soft structures from the Lower Cretaceous Santana Formation of northeastern Brazil. Canadian Journal of Earth Sciences. 37, 891-900.
Rauhut. 2003. The interrelationships and evolution of basal theropod dinosaurs. Special Papers in Palaeontology. 69, 1-213.
Naish, Martill and Frey, 2004. Ecology, systematics and biogeographical relationships of dinosaurs, including a new theropod, from the Santana Formation (?Albian, Early Cretaceous) of Brazil. Historical Biology. 16(2-4), 57-70.
Naish, 2006 online. http://darrennaish.blogspot.com/2006/06/basal-tyrant-dinosaurs-and-my-pet.html
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Novas, Ezcurra, Agnolin, Pol and Ortiz, 2012. New Patagonian Cretaceous theropod sheds light about the early radiation of Coelurosauria. Revista del Museo Argentino de Ciencias Naturales. 14(1), 57-81.
Brusatte, 2013. The phylogeny of basal coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. PhD thesis, Columbia University. 944 pp.
Brusatte, Lloyd, Wang and Norell, 2014. Gradual assembly of avian body plan culminated in rapid rates of evolution across the dinosaur-bird transition. Current Biology. 24(10), 2386-2392.

Nedcolbertia Kirkland, Britt, Whittle, Madsen and Burge, 1998
= "Nedcolbertia" Anonymous, 1996
N. justinhofmanni Kirkland, Britt, Whittle, Madsen and Burge 1998
= "Nedcolbertia whittlei" Anonymous, 1996
= "Nedcobertia justinhofmanni" Anonymous, 1998
Barremian, Early Cretaceous
Yellow Cat Member of the Cedar Mountain Formation, Utah, US

Holotype- (CEUM 5071) (1.5 m; juvenile) fifth sacral vertebra (~26 mm), eleven partial or complete caudal vertebrae, distal humerus, partial pubis, ischial fragments, proximal femora, distal femur (~141 mm), tibiae (198 mm), proximal fibula, distal fibulae, partial astragali, calcanea, metatarsal II (~108 mm), metatarsal III (~116 mm), metatarsal IV (~112 mm), proximal and distal metatarsus, over fourteen pedal phalanges, six pedal unguals
Paratypes- (CEUM 5072) (3 m) dorsal vertebral fragments, several caudal vertebral fragments, four manual phalanges, partial manual ungual I, partial manual ungual II, ilial fragments, pubic fragments, distal pubis, proximal femora, proximal and distal tibia, proximal fibulae, astragalar fragments, proximal and distal metatarsals, several partial and complete pedal phalanges, five partial pedal unguals
(CEUM 5073) (3 m) few complete caudal centra (prox ~48 mm), caudal central fragments, caudal neural arch fragments, several proximal chevrons, coracoid fragments, proximal humerus
Comments- This was originally announced in an abstract by Kirkland et al. (1995), then mentioned in a 1996 news report as "Nedcolbertia whittlei". That report stated it was intermediate between Ornitholestes and "Arkansaurus". Kirkland (1996) listed it as "small coelurosaurid cf. Ornitholestes n. gen." in an abstract. The species name was changed to "justinhofmanni" in January 1998 due to 6 year old Justin Hofmann winning a contest sponsored by Discover Card. It wasn't officially named N. justinhofmanni until October of that year (Kirkland et al., 1998). Brusatte (2013) notes Nedcolbertia is under study by himself and that a redescription is going to be published.
This was recovered as a coelurosaur outside Tyrannoraptora by Dal Sasso and Maganuco (2011).
References- Kirkland, Britt, Madsen and Burge, 1995. A small theropod from the basal Cedar Mountain Formation (Lower Cretaceous, Barremian) of Eastern Utah. Journal of Vertebrate Paleontology. 15(3), 39A.
Anonymous, 1996. [title unknown] Paleo Horizons. 2(2), 2.
Anonymous, 1998. Young Dino-Whiz has New Dinosaur Named in His Honor. PRNewswire. Jan. 6.
Kirkland, 1996. Biogeography of Western North America's Mid-Cretaceous dinosaur faunas: Losing European ties and the first great Asian-North American interchange. Journal of Vertebrate Paleontology. 16(3), 45A.
Kirkland, Britt, Whittle, Madsen and Burge, 1998. A small coelurosaurian theropod from the Yellow Cat Member of the Cedar Mountain Formation (Lower Cretaceous, Barremian) of Eastern Utah. In Lucas, Kirkland and Estep (eds.). New Mexico Museum of Natural History and Science Bulletin. 14, 239-248.
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Brusatte, 2013. The phylogeny of basal coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. PhD thesis, Columbia University. 944 pp.

unnamed possible coelurosaur (Naish, 2000)
Berriasian-Valanginian, Early Cretaceous
Hastings Beds, England
Material
- (BMNH R36539) distal femur
Comments- Naish (2000) referred to this femur as cf. Nedcolbertia, but later merely to Tetanurae indet..
References- Naish, 2000. A small, unusual theropod (Dinosauria) femur from the Wealden Group (Lower Cretaceous) of the Isle of Wight, England. Neues Jahrbuch für Geologie und Paläontologie Monatshefte. 2000, 217-234.
Naish, 2011. Theropod dinosaurs. In Batten (ed.). English Wealden Fossils. The Palaeontological Association. 526-559.

Santanaraptor Kellner, 1999
S. placidus Kellner, 1999
Albian, Early Cretaceous
Romualdo member of Santana Formation, Brazil
Holotype
- (MN 4802-V) (~1.25 m; juvenile) three distal caudal vertebrae, distal chevrons, ischia (91 mm), femora (~167 mm), partial tibiae, partial fibulae, metatarsal I, metatarsals II, phalanges, II-1, phalanges II-2, pedal unguals II, metatarsals III (~136 mm), phalanges III-1, phalanges III-2, phalanges III-3, pedal ungual III, metatarsals IV, phalanges IV-1, phalanges IV-2, phalanges IV-3, phalanges IV-4, pedal unguals IV, skin, musculature
Diagnosis- (modified from Kellner, 1999) foramen at medial base of anterior trochanter; well developed sulcus on posterior femoral head; fibular trochlea of triangular shape and constricted at base.
Comments- This theropod was known first announced by Kellner in 1996 and emphasis was placed on the soft tissue preserved with the specimen. At that time, it was identified as a probable maniraptoran. It was later preliminarily described and named in 1999, though a more detailed description is planned. The individual was probably about 1.25 meters long, assuming it resembled Ornitholestes in proportions, but was a subadult according to unfused vertebral sutures.
The caudal vertebrae appear to be mid caudals and have low, posteriorly oriented neural spines. The chevrons are said to be half the centrum length and expand slightly anteroposteriorly.
The ischia closely resemble Ornitholestes, differing in the longer and more distally placed obturator process, more concave posterior edge, unexpanded distal tip, and less proximally constricted obturator notch. The obturator process is triangular, there are no dorsal processes or proximolateral scar and the shaft is rod-shaped distally.
The proximal femur is figured, but the distal portion is just described. The shaft diameter is 13 mm and the bone thickness is 2.5 mm, so it's typically hollow. The wing-like anterior trochanter is separated from the greater trochanter, which it does not reach, by a cleft. The fourth trochanter is a low crest. The femur has three features unique to this species that are noted above in the diagnosis.
The tibia, fibula and pes are photographed (which doesn't show up well in my photocopy) and not described, although the fibula appears about a third as wide as the tibia. The metatarsus is typically theropod and said to be 70% of the femoral length. Metatarsals II and IV are said to be subequal and it can be seen not to be arctometatarsalian. Digits are also preserved, but no details can be observed.
Soft tissue is found on various parts of the fossil. The epidermis is very thin (~0.04 mm) and formed by irregular quadrangles separated by deep grooves. There are no scales or feathers preserved. Striated muscle fibers were preserved as calcium phosphate, are polygonal in transverse section and 30-50 micrometers in diameter. The bone still preserves channels for blood vessels (diameter 20-25 micrometers) and lacunae for osteocytes (diameter ~5 micrometers). There are also structures preserved that may either be mineralizations filling the bone's capillaries or replacements of the blood vessels. They are rod-like with a rough outer layer and smooth inner layer.
Kellner places this species in the Coelurosauria based on the triangular obturator process and suggests it may be a maniraptoriform based on Sereno's (1999) character "obturator notch U-shaped with slightly divergent sides", which I find highly variable. I agree that the triangular obturator process shows this is a coelurosaur. Holtz (2004) questionably referred it to Tyrannosauroidea, though without supporting evidence. Similarly, Agnolin et al. (2004) refer it to Noasauridae without reason, though this seems less plausible. The elongate and appressed metatarsals suggest it is a tyrannoraptoran, but the wing-like lesser trochantor excludes it from Maniraptora. Dal Sasso and Maganuco (2011) recovered it as the most basal maniraptoran besides Ornitholestes in their update of Senter's coelurosaur analysis. Both Novas et al. (2013) and Porfiri et al. (2014) found it to be a tyrannosauroid more derived than proceratosaurids and Dilong, but less than Eotyrannus and Xiongguanlong.
References- Kellner, 1996. Fossilized theropod soft-tissue. Nature. 379, 32.
Kellner and Campos, 1998. Archosaur soft Tissue from the Cretaceous of the Araripe Basin, Northeastern Brazil. Boletim do Museu Nacional, Geologia. 42, 1-22.
Kellner, 1999. Short note on a new dinosaur (Theropoda, Coelurosauria) from the Santana Formation (Romualdo Member, Albian), Northeastern brazil. Boletim do Museu Nacional. 49, 1-8.
Agnolin, Apesteguia, and Chiarelli, 2004. The end of a myth: The mysterious ungual claw of Noasaurus leali. Journal of Vertebrate Paleontology. 24(3), 301A.
Holtz, 2004. Tyrannosauroidea. In Weishampel, Dodson and Osmolska. The Dinosauria Second Edition. University of California Press. 861 pp.
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Novas, Agnolin, Ezcurra, Porfiri and Canale, 2013. Evolution of the carnivorous dinosaurs during the Cretaceous: The evidence from Patagonia. Cretaceous Research. 45, 174-215.
Porfiri, Novas, Clavo, Agnolin, Ezcurra and Cerda, 2014. Juvenile specimen of Megaraptor (Dinosauria, Theropoda) sheds light about tyrannosauroid radiation. Cretaceous Research. 51, 35-55.

Sinocalliopteryx Ji, Ji, Lu and Yuan, 2007
S. gigas Ji, Ji, Lu and Yuan, 2007
Late Barremian-Early Aptian, Early Cretaceous
Jianshangou Beds of the Yixian Formation, Liaoning, China

Holotype- (JMP-V-05-8-01) (2.37 m) incomplete skull (290 mm), incomplete mandibles, eleven cervical vertebrae, cervical ribs, twelve dorsal vertebrae, dorsal ribs, twelve rows of gastralia, forty-nine caudal vertebrae, chevrons, scapulae, coracoids, humeri, radii (100.7 mm), ulnae, radiale, ulnare, semilunate carpal, distal carpal III, metacarpal I, phalanx I-1, manual ungual I, metacarpal II, phalanx II-1, phalanx II-2, manual ungual II, metacarpal III, phalanx III-1, phalanx III-2, phalanx III-3, manual ungual III, ilium, pubes, ischia, femora (~236 mm), tibiae, fibulae, astragalus, calcaneum, distal tarsal III, distal tarsal IV, pes (mtIII 147.3 mm), feathers, four gastroliths (15-20 mm)
Referred- (CAGS-IG-T1) (~3.1 m) partial skull, fragmentary dentary, six dorsal vertebrae, eight dorsal ribs, gastralia, eighteen caudal vertebrae, thirteen chevrons, radius (118.6 mm), phalanx I-1, metacarpal II, phalanx II-1, phalanx II-2, manual ungual II, metacarpal III, partial manual ungual, manual claw sheath, ischia (one distal), metatarsal I, phalanx I-1, pedal ungual I, metatarsals II, phalanx II-1, phalanx II-2, pedal ungual II, metatarsals III (206.3 mm), phalanges III-1, phalanges III-2, phalanges III-3, pedal ungual III, metatarsals IV, phalanx IV-3, phalanx IV-4, pedal ungual IV, metatarsal V, feathers (Xing et al., 2012)
Comments- Ji et al. (2007) described this as a compsognathid, and it did emerge as one in the analyses of Dal Sasso and Maganuco (2011) and Senter (2011), both based on basically the same matrix. Yet the taxon also strongly resembles basal tyrannosauroids such as Dilong, so it is classified conservatively here pending further analyses.
References- Ji, Ji, Lu and Yuan, 2007. A new giant compsognathid dinosaur with long filamentous integuments from Lower Cretaceous of Northeastern China. Acta Geologica Sinica. 81(1), 8-15.
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Senter, 2011. Using creation science to demonstrate evolution 2: Morphological continuity within Dinosauria. Journal of Evolutionary Biology. 24(10), 2197-2221.
Xing, Bell, Persons, Ji, Miyashita, Burns, Ji and Currie, 2012. Abdominal contents from two large Early Cretaceous compsognathids (Dinosauria: Theropoda) demonstrate feeding on confuciusornithids and dromaeosaurids. PLoS ONE. 7(8), e44012.

"Tonouchisaurus" Anonymous?, 1994
"T. mongoliensis" Anonymous?, 1994
Hauterivian-Barremian, Early Cretaceous
Shinekhudag Formation, Mongolia
Material
- (~1 m) humerus, radius, ulna, manus, femur, tibia, metatarsus, pedal phalanges
Comments- This specimen was originally announced in a Japanese newspaper article in 1994 (Endo, DML 1994), and was found by the Joint Japan-Mongolia paleontological expedition in Huren-duh. Holtz (DML, 1994) stated from his examination of the article and news footage it appeared to be a coelurosaur with a didactyl manus and a non-arctometatarsalian metatarsus (if it was in anterior view, which is uncertain). Olshevsky (DML, 1995) reported that Barsbold (pers. comm., 1995) stated the taxon is a basal tyrannosauroid with didactyl manus and non-arctometatarsalian pes, confirming Holtz's interpretations. He also reported Barsbold said the description was in press, though it has yet to appear two decades later. Both Holtz and Olshevsky have suggested the specimen may be a juvenile, due to its small size. Barsbold (pers. comm., 2001) stated the manus is actually tridactyl, while the metatarsus is "almost not pinched", similar to basal coelurosaurs, and unlike ornithomimosaurs, oviraptorids and dromaeosaurids. While it may still be a tyrannosauroid, the lack of a didactyl manus removes the only known reason for this assignment, though it should be noted basal tyrannosauroids (e.g. Dilong, Guanlong) have tridactyl manus and closely resemble compsognathid/coelurid grade coelurosaurs morphologically, including in pedal anatomy.
References- Anonymous?, 1994. Japanese newspaper article.
Endo, DML 1994. http://dml.cmnh.org/1994Dec/msg00059.html
Holtz, DML 1994. http://dml.cmnh.org/1994Dec/msg00155.html
Olshevsky, DML 1995. http://dml.cmnh.org/1995Nov/msg00158.html

"Zunityrannus" (Wolfe and Kirkland, 1998)
Middle Turonian, Late Cretaceous
Lower Moreno Hill Formation, New Mexico, US

Material- (AZMNH coll.; Fred) (~2 m, ~10 kg) premaxilla, incomplete maxilla, lacrimal fragment, jugal fragment, incomplete dentary, eight partial vertebrae, six dorsal/sacral/proximal caudal centra, five distal caudal vertebrae (four partial), seven vertebral fragments, manual elements, partial pubes, femora (one incomplete), incomplete tibiae, proximal fibulae, incomplete metatarsal II, incomplete metatarsal III, incomplete metatarsal IV
Comments- The first specimen was discovered in 1997, and reported by Wolfe and Kirkland (1998) as a "new small dromaeosaurid theropod" and a "small (dromaeosaurid?) theropod." Additional material was found in 2000, including vertebrae, partial forelimbs and incomplete pelves and hindlimbs. Kirkland and Wolfe (2001) referred to the taxon as a basal coelurosaur, as did Holtz in 2001 (DML). Indeed, casts of the skeleton are available to be purchased as the "Zuni coelurosaur". Pringle (2001) photographed much of the skeleton in her popular article, where the specmen was nicknamed Fred. In 2004, Denton et al. referred to it as a basal tetanurine based on several characters discussed below. More recently, McDonald et al. (2010) referred to it as "a new taxon of small basal tyrannosauroid." The television program "Planet Dinosaur" called the taxon "Zunityrannus" in episode 6, aired in 2011. The companion book (BBC, 2011) seemingly uses Sinotyrannus due to an editorial mistake, as in the closed captions for the show, so "Zunityrannus" remains an unpublished name.
The characters which Denton et al. (2004) used to argue "Zunityrannus" is a basal tetanurine are also all found in some basal coelurosaurs. The short extent of the antorbital fossa anterior to the antorbital fenestra is seen in Juravenator and Dilong. Laterally compressed teeth with finely serrated mesial and distal carinae are found in Bicentenaria, megaraptorans, tyrannosauroids and Sinocalliopteryx. Isodont premaxillary and (anterior?) maxillary teeth are present in Bicentenaria, megaraptorans, Aorun, Tanycolagreus, Zuolong, Sinocalliopteryx, compsognathids, Juravenator, Scipionyx, Ornitholestes and Haplocheirus. Opisthocoelous cervical centra are present in megaraptorans, some basal tyrannosauroids, Aorun, Zuolong, Sinocalliopteryx, Compsognathus and Scipionyx. Most non-maniraptoriform coelurosaurs have distally placed anterior trochanters. A prominent fourth trochanter is found in some basal coelurosaurs such as Tugulusaurus, megaraptorans, Nedcolbertia, tyrannosauroids and Zuolong. An absent femoral extensor groove is actually more derived than basal tetanurines and the most basal coelurosaurs. Its found in Nedcolbertia, Coelurus, Zuolong, Ornitholestes, Haplocheirus and many maniraptoriforms. While the taxon may end up being more basal, it seems most likely to be a non-maniraptoriform coelurosaur and may indeed be a tyrannosauroid.
References- Wolfe and Kirkland, 1998. Zuniceratops christopheri n. gen. & n. sp., a ceratopsian dinosaur from the Moreno Hill Formation (Cretaceous, Turonian) of west-central New Mexico. In Lucas, Kirkland and Estep (eds.). New Mexico Museum of Natural History and Science Bulletin. 14, 307-317.
Holtz, DML 2001. http://dml.cmnh.org/2001Jun/msg00634.html
Kirkland and Wolfe, 2001. First definitive therizinosaurid (Dinosauria; Theropoda) from North America. Journal of Vertebrate Paleontology. 21(3), 410-414.
Pringle, 2001. The creature from the Zuni lagoon. Discover. August, 42-48.
Denton, Nesbitt, Wolfe and Holtz, 2004. A new small theropod dinosaur from the Moreno Hill Formation (Turonian, Upper Cretaceous) of New Mexico. Journal of Vertebrate Paleontology. 24(3), 302A.
Mcdonald, Wolfe and Kirkland, 2010. A new basal hadrosauroid (Dinosauria: Ornithopoda) from the Turonian of New Mexico. Journal of Vertebrate Paleontology. 30(3), 799-812.
BBC, 2011. Planet Dinosaur. BBC, London. 240 pp.

undescribed Coelurosauria (Osborn, 1916)
Late Maastrichtian, Late Cretaceous
Hell Creek Formation, Montana, US

Material- (AMNH 974) teeth, phalanges
(AMNH 5014) twelve caudal vertebrae
(AMNH 5015) phalanx III-2, phalanx III-3
(AMNH 5019; lost) manual ungual
Comments- Osborn (1916) questionably referred this material to Ornithomimus velox, but Russell (1972) noted none contained ornithomimid material. They may belong to other coelurosaurs instead.
References- Osborn, 1916. Skeletal adaptation of Ornitholestes, Struthiomimus, Tyrannosaurus. Bulletin of the American Museum of Natural History. 35, 733-771.
Russell, 1972. Ostrich dinosaurs from the Late Cretaceous of western Canada. Canadian Journal of Earth Sciences. 9, 375-402.

unnamed tyrannoraptoran (Hu, 1963)
Late Valanginian-Early Albian, Early Cretaceous
Jehol Group, Liaoning, China
Material- (IVPP V2757) partial cervical vertebra (35 mm)
Comments- Assigned to ?Coeluridae indet. by Hu (1963), this is probably a tyrannoraptoran due to its amphicoelous and elongate (~1.8 longer than tall) centrum. It has a ventral keel.
Reference- Hu, 1963. [The carnivorous dinosaurian remains from Fusin, Liaoning]. Vertebrata PalAsiatica. 7, 174-176.

unnamed probable tyrannoraptoran (Langston, 1974)
Early Albian, Early Cretaceous
Paluxy Formation of the Trinity Group, Texas, US
Material
- (SMU 62723) manual ungual
Comments- This was discovered with the Astrophocaudia holotype. Langston (1974) illustrated it and referred the ungual to Ornithomimidae, correctly distinguishing it from Microvenator and Deinonychus. The slender shape, low curvature and proximally placed flexor tubercle seem most similar to caenagnathids.
References- Langston, 1974. Nonmammalian Comanchean tetrapods. Geoscience and Man. 8, 77-102.

unnamed probable Tyrannoraptora (Gallup, 1975)
Aptian-Middle Albian, Early Cretaceous
Trinity Group, Texas

Material- (FMNH PR 975) femur (365 mm)
(FMNH 2-51#1) seven teeth (4.4, 4.7, 6, 6.5, 7, 7.7, 8 mm), seven tooth fragments ( mm)
(FMNH 3-51#1) two teeth (9.5, 12 mm)
(FMNH 11s-52#1) juvenile premaxillary tooth (2 mm), two lateral teeth (5, 10.6 mm)
(FMNH 47-50) tooth (7.3 mm)
(FMNH 202-50) tooth (8.9 mm)
(FMNH Turtle Gully) two teeth (2, 11 mm), pedal phalanx IV-3 (12 mm), ungual ?IV (25 mm)
Comments- The teeth were referred to Coeluridae by Gallup (1975), are recurved and have 29-50 serrations per 5 mm distally and an equal number mesially when present. The femur was referred to Ornithomimus sp., but resembles Nedcolbertia in anteroposterior aspect and robusticity. Similarly, the pedal phalanx and ungual were referred to Ornithomimus sp. but probably belong to more babal coelurosaurs instead.
Reference- Gallup, 1975. Lower Cretaceous dinosaurs and associated vertebrates from north-central Texas in the Field Museum of Natural History. MS thesis, University of Texas at Austin. 159 pp.

unnamed tyrannoraptoran (Kurzanov, 1987)
Late Campanian-Early Maastrichtian, Late Cretaceous
Iren Dabasu Formation, Inner Mongolia, China

Material- (PIN 2549-100) femur
Comments- Originally referred to Avimimidae by Kurzanov (1987), it was later said to probably be troodontid by Currie and Eberth (1993) and Averianov and Sues (2012), then noted to resemble Bagaraatan by Osmolska (1996). While Osmolska did compare it less favorably to avimimids and parvicursorines, she did not compare it to troodontids. If Brusatte (2013) is correct that Bagaraatan is chimaerical, both its femur and PIN 2549-100 may be troodontid, allowing both explanations to be correct.
References- Kurzanov, 1987. Avimimidae and the problem of the origin of birds [in Russian]. Trudy, Sovmestnaa Sovetsko-Mongolskaa paleontologiceskaa ekspedicia. 31, 1-95.
Currie and Eberth, 1993. Palaeontology, sedimentology and palaeoecology of the Iren Dabasu Formation (Upper Cretaceous), Inner Mongolia, People’s Republic of China. Cretaceous Research. 14 127-144.
Osmolska, 1996. An unusual theropod dinosaur from the Late Cretaceous Nemegt Formation of Mongolia. Acta Palaeontologica Polonica. 41, 1-38.
Averianov and Sues, 2012. Correlation of Late Cretaceous continental vertebrate assemblages in middle and central Asia. Journal of Stratigraphy. 36(2), 462-485.
Brusatte, 2013. The phylogeny of basal coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. PhD thesis, Columbia University. 944 pp.

unnamed tyrannoraptoran (Holtz, 1992)
Early Campanian, Late Cretaceous
Merchantville Formation, New Jersey, US

Material- (YPM PU 21795) metatarsal II, metatarsal IV
Comments- Based on its age, this specimen is probably not Dryptosaurus. Holtz (1992) mentions it as a referred "Coelosaurus" specimen, noting it was subarctometatarsalian, more robust than ornithomimids, and had only a slight ridge on metatarsal IV to back metatarsal III. He states it does not resemble Dryptosaurus and regards it as a distinct taxon, though he refrains from naming it. Gallagher (1993) later published the specimen as Dryptosaurus sp..
References- Holtz, 1992. An unusual structure of the metatarsus of Theropoda (Archosauria: Dinosauria: Saurischia) of the Cretaceous. PhD Thesis, Yale University. 347 pp.
Gallagher, 1993. The Cretaceous/Tertiary mass extinction event in the northern Atlantic Coastal Plain: The Mosasaur. 5, 75-154.

unnamed coelurosaur (Hunt and Lucas, 2006)
Kimmeridgian-Tithonian
Morrison Formation, New Mexico, US
Material
- (NMMNH P-26093) femur (388 mm), tibial fragments
Comments- Hunt and Lucas (2006) referred this to Coeluridae indet., citing similarity to Tanycolagreus.
Reference- Hunt and Lucas, 2006. A small theropod dinosaur from the Upper Jurassic of Eastern New Mexico with a checklist of small theropods from the Morrison Formation of Western North America. New Mexico Museum of Natural History and Science Bulletin. 36, 115-118.

undescribed Coelurosauria (Fanti and Miyashita, 2009)
Late Campanian, Late Cretaceous
Wapiti Formation, Alberta, Canada

Material- (UALVP 52986) tooth (Fanti, Currie and Burns, 2015)
(UALVP 52594) tooth (Fanti, Currie and Burns, 2015)
(small) ungual (Fanti and Miyashita, 2009)
References- Fanti and Miyashita, 2009. A high latitude vertebrate fossil assemblage from the Late Cretaceous of west-central Alberta, Canada: Evidence for dinosaur nesting and vertebrate latitudinal gradient. Palaeogeography, Palaeoclimatology, Palaeoecology. 275, 37-53.
Fanti, Currie and Burns, 2015. Taphonomy, age, and paleoecological implication of a new Pachyrhinosaurus (Dinosauria: Ceratopsidae) bonebed from the Upper Cretaceous (Campanian) Wapiti Formation of Alberta, Canada. Canadian Journal of Earth Sciences. 52(4), 250-260.

undescribed Coelurosauria (Eberth and Currie, 2010)
Early Maastrichtian, Late Cretaceous
Horseshoe Canyon Formation, Alberta, Canada

Material- (RTMP 2000.45.48) vomer
(RTMP or UALVP coll.) (unassociated) three teeth, tibia, two metatarsals, phalanx, two unguals
References- Eberth and Currie, 2010. Stratigraphy, sedimentology, and taphonomy of the Albertosaurus bonebed (upper Horseshoe Canyon Formation; Maastrichtian), southern Alberta, Canada. Canadian Journal of Earth Sciences. 47(9), 1119-1143.

undescribed coelurosaur (Button, Zanno and Makovicky, 2014)
Cenomanian, Late Cretaceous
Mussentuchit Member of the Cedar Mountain Formation, Utah, US

Material- partial femoral shaft, incomplete tibia, incomplete metatarsal IV, phalanx IV-2, phalanx IV-4
Comments- Button et al. (2014) describe a coelurosaurian hindlimb discovered in 2012 which is arctometatarsalian and gracile. They state "Metatarsal IV most resembles Coelurus (YPM 2010) from the Upper Jurassic Morrison Formation in general proportion, mediolateral compression of the distal aspect, and near absence of a lateral collateral ligament pit, yet is unique in possessing an obliquely oriented groove marking the extensor surface and a dorsally bulbous distal condyle." Coelurus is generally found to be surrounded by nonarctometatarsalian taxa though, which could indicate this Mussentuchit taxon shows some coelurids convergently evolved an arctometatarsus, or that similarities to Coelurus are homoplasious and the new taxon belongs to an arctometatarsalian clade.
Reference- Button, Zanno and Makovicky, 2014. New coelurosaurian theropod remains from the Upper Cretaceous Mussentuchit Member of the Cedar Mountain Formation, Central Utah. Journal of Vertebrate Paleontology. Program and Abstracts 2014, 101.

unnamed Coelurosauria (Williamson and Brusatte, 2014)
Late Campanian, Late Cretaceous
Fossil Forest Member of the Fruitland Formation, New Mexico, US

Material- (NMMNH P-30327) tooth
(NMMNH P-52508) tooth
Reference- Williamson and Brusatte, 2014. Small theropod teeth from the Late Cretaceous of the San Juan Basin, Northwestern New Mexico and their implications for understanding Latest Cretaceous dinosaur evolution. PLoS ONE. 9(4), e93190.

unnamed coelurosaur (Williamson and Brusatte, 2014)
Early Maastrichtian, Late Cretaceous
Naashoibito Member of Ojo Alamo Formation, New Mexico, US

Material- (NMMNH P-36545) tooth
Reference- Williamson and Brusatte, 2014. Small theropod teeth from the Late Cretaceous of the San Juan Basin, Northwestern New Mexico and their implications for understanding Latest Cretaceous dinosaur evolution. PLoS ONE. 9(4), e93190.

undescribed probable Coelurosauria (Hone and Tanke, 2015)
Late Campanian, Late Cretaceous
Dinosaur Park Formation, Alberta, Canada

Material- (RTMP 94.143 coll.) (small) tibia, phalanx
Reference- Hone and Tanke, 2015. Pre- and postmortem tyrannosaurid bite marks on the remains of Daspletosaurus (Tyrannosaurinae: Theropoda) from Dinosaur Provincial Park, Alberta, Canada. PeerJ. 3:e885.

Tyrannosauroidea

Beipiaognathus Hu, Wang and Huang, 2016
B. jii Hu, Wang and Huang, 2016
Barremian-Aptian, Early Cretaceous
Yixian Formation, Liaoning, China
Holotype
- (AGB4997) (chimaera) (1.6 m) skull (~190 mm), mandible, eleven cervical vertebrae, cervical ribs, thirteen dorsal vertebrae, dorsal ribs, gastralia, thirty-nine caudal vertebrae, chevrons, scapula, coracoid, three humeri (109 mm), radii (98 mm), ulnae (100 mm), six carpals, metacarpals I (14 mm), phalanges I-1 (45 mm), manual unguals I (37 mm), metacarpals II (59 mm), phalanges II-1 (49 mm), phalanges II-2 (49 mm), manual unguals II (40 mm), metacarpals III (54 mm), phalanges III-1 (35 mm), phalanges III-2 (37 mm), phalanges III-3 (25 mm), manual unguals III, manual claw sheaths, ilium, pubis, femora (184 mm), tibiae (230 mm), fibulae (223 mm), proximal tarsals, metatarsals I (22 mm), phalanges I-1 (18 mm), pedal unguals I (14 mm), metatarsals II (120 mm), phalanges II-1 (29 mm), phalanges II-2 (23 mm), pedal unguals II (18 mm), metatarsals III (130 mm), phalanges III-1 (37 mm), phalanges III-2 (32 mm), phalanges III-3 (28 mm), pedal unguals III (25 mm), metatarsals IV (123 mm), phalanges IV-1 (25 mm), phalanges IV-2 (20 mm), phalanges IV-3 (16 mm), phalanges IV-4 (18 mm), pedal unguals IV (20 mm), pedal claw sheaths
Diagnosis- (after Hu et al., 2016; note the chimaerical nature makes these doubtful) teeth unrecurved and unserrated; tail short with no more than 40 caudal vertebrae; forelimb long (fl/hl ratio 55%) due to long ulna (u/h ratio 92%); metacarpal I short and rectangular, ~24% length of metacarpal II; phalanx II-1 is most robust and longest in manus; pedal digit III is longest, followed by IV then II.
Comments- This specimen is clearly a chimaera (first suggested by Cau, online 2016) as three humeri are present. In addition, elements are generally placed to look articulated even when anatomically incorrect- e.g. the scapulocoracoid placed as a booted ischium, unguals I and II on the rightmost manus which are each made from separate proximal and distal portions so that the flexor tubercle is placed dorsally, pedal phalanx III-2 in both feet is upside down despite being articulated. In the skull, it seems likely the frontal is actually a rectangular bone ventral to the parietal, the premaxilla is actually what's labeled as the dentary, and that the true dentary is what's labeled as the premaxilla and maxilla. But given the nature of the specimen and teeth placed posterior to the parietal, the composition and theropod identity of the supposed skull elements is in doubt. The pubis is placed backward, and the phalanges are different lengths in each manus and pes, with manual phalanges III-1 and III-2 having obscure articulations. This makes the identification and association of any phalanges doubtful, so that e.g. the microraptorian-like manual unguals II or apparently elongate pedal phalanges IV-4 are unlikely to be correctly interpreted characters of whichever basal coelurosaurs the scapulocoracoid, humerus and antebrachium, pubis and metatarsus belong to. Of those elements, the humerus is very similar to Ornitholestes, while the pubis resembles Coelurus. Beipiaognathus is thus placed near to these taxa in the cladogram here, though additional study will be necessary to the attribution of each element and which if any deserve lectotype status.
References- Cau, online 2016. http://theropoda.blogspot.com/2016/08/lo-status-paleontologico-di.html
Hu, Wang and Huang, 2016. A new species of compsognathid from the Early Cretaceous Yixian Formation of western Liaoning, China. Journal of Geology. 40(2), 191-196.

Aorun Choiniere, Clark, Forster, Norell, Eberth, Erickson, Chu and Xu, 2013
= "Farragochela" Choiniere, 2010
A. zhaoi Choiniere, Clark, Forster, Norell, Eberth, Erickson, Chu and Xu, 2013
= "Farragochela zhaoi" Choiniere, 2010
Late Callovian, Middle Jurassic
Middle Shishugou Formation, Xinjiang, China
Holotype
- (IVPP V15709) (<1 year old juvenile) incomplete skull (~49 mm), incomplete mandibles, partial sclerotic rings, hyoids, anterior cervical vertebra (14 mm), posterior(?8-10) dorsal vertebra (10 mm), proximal caudal vertebra, proximal caudal vertebra, partial proximal caudal vertebra, incomplete ulna, radiale, distal carpal I, metacarpal I, phalanx I-1 (21.5 mm), manual ungual I (19.2 mm), metacarpal II (21.9 mm), phalanx II-1 (13.4 mm), phalanx II-2 (22 mm), manual ungual II (~15 mm), incomplete metacarpal III (~19.9 mm), phalanx III-3 (15 mm), partial manual ungual III, distal pubes, tibiae (one incomplete, one proximal; 123.3 mm), partial fibula, astragalus, distal tarsal III, distal tarsal IV, metatarsals I (6.8, 8.7 mm), phalanges I-1 (3, 3.8 mm), pedal ungual I (6.4 mm), metatarsals II (one incomplete, one distal), phalanges II-1 (17.1, 16 mm), phalanges II-2 (15.5, 14.7 mm), pedals ungual II (15.5 mm), metatarsals III (one incomplete, one distal), phalanges III-1 (17.8, 19 mm), phalanges III-2 (14.4, 14.2 mm), phalanx III-3 (13.4 mm), partial pedal unguals III, metatarsals IV (one incomplete, one distal), phalanges IV-1 (12.7 mm), phalanges IV-2 (10.6, 10.7 mm), phalanges IV-3 (9.4 mm), phalanx IV-4 (6.9 mm), partial pedal ungual IV
Diagnosis- (after Choiniere et al., 2013) large maxillary fenestra occupying most of antorbital fossa; maxillary teeth with very small, apically directed serrations restricted to distal carinae; weakly opisthocoelous cervical centra; heterogeneous manual ungual morphology with large, recurved ungual I and smaller unguals II and III that have straight ventral surfaces; tibia with mediolaterally narrow, proximodistally tall articular groove accepting the astragalar ascending process that is only developed on anterolateral margin; ascending process of astragalus low and restricted to lateral side of tibia.
Comments- The holotype was discovered in 2006 and initially described by Choiniere (2010) in his thesis, then published online in 2013 with a different name. As the authors included a Zoobank registration number, the name was valid under new ICZN rules despite the physical version being unpublished until 2014. Choiniere et al. recover Aorun as the most basal non-tyrannosauroid coelurosaur without ontogenetic consideration, and as a coelurid in basal Maniraptora if ontogeny is taken into account, using a version of Choiniere's matrix.
References- Choiniere, 2010. Anatomy and systematics of coelurosaurian theropods from the Late Jurassic of Xinjiang, China, with comments on forelimb evolution in Theropoda. PhD Thesis. George Washington University. 994 pp.
Choiniere, Clark, Forster, Norell, Eberth, Erickson, Chu and Xu, 2013 [physically published 2014]. A juvenile specimen of a new coelurosaur (Dinosauria: Theropoda) from the Middle-Late Jurassic Shishugou Formation of Xinjiang, People's Republic of China. Journal of Systematic Palaeontology. 12(2), 177-215.

Zuolong Choiniere, Clark, Forster and Xu, 2010
= "Zuolong" Choiniere, 2010
Z. salleei Choiniere, Clark, Forster and Xu, 2010
= "Zuolong salleei" Choiniere, 2010
Early Oxfordian, Late Jurassic
Shishugou Formation, Xinjiang, China
Holotype
- (IVPP V15912) (~3.1 m; ~35 kg; subadult) incomplete skull (~353 mm), premaxillary tooth, angular, two lateral teeth, partial axial neural arch, incomplete third cervical vertebra (~77 mm), incomplete fourth cervical vertebra (~82 mm), incomplete fifth cervical vertebra (~85 mm), incomplete eighth cervical vertebra, incomplete ninth cervical vertebra, partial tenth cervical neural arch, two dorsal centra, two fragmentary dorsal centra (~82 mm), incomplete sacrum, first caudal neural arch, second caudal neural arch, third caudal centrum, incomplete fourth caudal vertebra, three incomplete mid caudal vertebrae, two mid caudal centra, mid caudal neural arch, incomplete scapula, incomplete humerus (~155 mm), radius (137 mm), incomplete ulna, distal phalanx I-1, incomplete manual ungual I, partial ilium, incomplete pubes, femora (one distal; 336 mm), partial tibia, proximal fibula, partial phalanx I-1, pedal ungual I, metatarsal II (191.9 mm), phalanx II-1, metatarsal III (224.3 mm), partial metatarsal IV (~201.7 mm)
Diagnosis- (after Choiniere et al., 2010) large, slit-like quadrate foramen inclined medially at approximately 45 degrees with associated deep fossa on the quadrate; sacral centrum 5 with an obliquely oriented posterior articular surface that is angled anterodorsally; fovea capitis very large, occupying almost the entire posterodorsal surface of the femoral head; distal condyle of metatarsal III large relative to that of other metatarsals and bearing an anteromedially projecting flange on its anteromedial margin.
Comments- This specimen was discovered in 2001 and announced in an abstract by Clark et al. (2002) as a basal coelurosaur. It was later described in more detail in an abstract by Choiniere et al. (2008), who used a version of the TWG matrix and found it to be one of the most basal coelurosaurs, sister to Tugulusaurus. Choiniere et al. (2010) named and described the taxon in depth, finding it either as a non-tyrannoraptoran coelurosaur in a trichotomy with Tugulusaurus or as a non-maniraptoriform tyrannoraptoran more derived than tyrannosauroids. The latter is favored here due to unpublished analyses. Several months earlier, the description and name appeared in Choiniere's thesis.
References- Clark, Xu, Forster, Wang and Andres, 2002. New small dinosaurs from the Upper Jurassic Shishugou Formation at Wucaiwan, Xinjiang, China. Journal of Vertebrate Paleontology. 22(3), 44A.
Choiniere, Clark, Xu and Forster, 2008. A new basal coelurosaur from the upper Shishugou Formation (Xinjiang, People's Republic of China). Journal of Vertebrate Paleontology. 28(3), 63A.
Choiniere, 2010. Anatomy and systematics of coelurosaurian theropods from the Late Jurassic of Xinjiang, China, with comments on forelimb evolution in Theropoda. PhD Thesis. George Washington University. 994 pp.
Choiniere, Clark, Forster and Xu, 2010. A basal coelurosaur (Dinosauria: Theropoda) from the Late Jurassic (Oxfordian) of the Shishugou Formation in Wucaiwan, People's Republic of China. Journal of Vertebrate Paleontology. 30(6), 1773-1796.

Coeluridae Marsh, 1881
= Coeluria Marsh, 1881
= Coeluroidea Marsh, 1881 sensu Nopcsa, 1928
Definition- (Coelurus fragilis <- Proceratosaurus bradleyi, Tyrannosaurus rex, Allosaurus fragilis, Compsognathus longipes, Ornithomimus edmontonicus, Deinonychus antirrhopus) (Hendrickx, Hartman and Mateus, 2015)
References- Marsh, 1881. A new order of extinct Jurassic reptiles (Coeluria). American Journal Science. 21, 339-341.
Nopcsa, 1928. The genera of reptiles. Palaeobiologica. 1, 163-188.
Hendrickx, Hartman and Mateus, 2015. An overview of non-avian theropod discoveries and classification. PalArch's Journal of Vertebrate Palaeontology. 12(1), 1-73.

Coelurus Marsh, 1879
C. fragilis Marsh, 1879
= Coelurus agilis Marsh, 1884
= Elaphrosaurus agilis (Marsh, 1884) Russell, Beland and McIntosh, 1980
Middle-Late Kimmeridgian, Late Jurassic
Brushy Basin Member of the Morrison Formation, Utah, Salt Wash Member of the Morrison Formation, Brushy Basin Member of the Morrison Formation?, Wyoming, US

Syntypes- (YPM 1991) proximal caudal vertebra (35 mm), proximal caudal vertebra, proximal caudal centrum, proximal caudal neural arch
....(YPM 1992) eight mid caudal vertebrae (33 mm), partial mid caudal centrum
....(YPM 1993) fourth cervical vertebra (~53 mm), proximal caudal neural arch
Referred- (UMNH 7795) humerus (Carpenter et al., 2005)
?(UUVP 11743) humerus (Carpenter et al., 2005)
?(YPM 1933) tooth (Marsh, 1896)
(YPM 1994) caudal centrum (Ostrom, 1980)
(YPM 1995) caudal vertebra, fragments (Ostrom, 1980)
(YPM 2010; holotype of Coelurus agilis) (subadult) partial dentary, fifth cervical vertebra (~55 mm), seventh cervical vertebra (~50 mm), eighth cervical vertebra (~49 mm), first dorsal vertebra (~45 mm), second or third dorsal neural arch, fifth dorsal vertebra (~34 mm), sixth dorsal neural arch, seventh dorsal neural arch, eighth dorsal vertebra (~39 mm), ninth dorsal neural arch, tenth dorsal vertebra (~47 mm), eleventh dorsal vertebra (~44 mm), incomplete twelfth dorsal vertebra (~47 mm), thirteenth dorsal neural arch, two indeterminate neural arches, proximal caudal vertebra, proximal scapula, humerus (119 mm), radii (one proximal) (~81 mm), ulnae (91, 96 mm), distal carpal I, proximal metacarpal I, phalanx I-1 (~39 mm), metacarpals II (~56 mm), phalanges II-1 (~47 mm; one incomplete), phalanges II-2 (~55 mm; one incomplete), phalanx III-1 (~16 mm), phalanx III-2 (~18 mm), distal phalanx III-3, ilial fragment, pubes, femora (one proximal) (~210 mm), distal tibia, proximal fibula, astragalus (32 mm wide), distal metatarsal III, metatarsal IV (196 mm), fragments (Ostrom, 1980)
?(YPM 9162) partial sacral vertebra (Marsh, 1884)
?(YPM 9163; not 1252, contra Welles and Long, 1974) astragalus (74 mm wide) (Welles and Long, 1974)
Diagnosis- (modified from Carpenter et al., 2005) very gracile dentary; paired pleurocoels on some cervical centra; triangular cervical transverse processes angled sharply ventrolaterally; pubic foot very acuate ventrally, projected posterodorsally; interpubic fenestra located at midlength of pubic symphysis; metatarsus subequal to femur in length.
Comments- YPM 1994, 1995, 2010 and possibly 9162 belong to the syntype individual (Ostrom, 1980), as they are comparable in size (contra Marsh, 1884), do not contain duplicated elements and are from the same part of the same quarry. Thus, Coelurus agilis is an objective junior synonym of Coelurus fragilis.
YPM 9163 was described by Welles and Long, and matches the astragalus of YPM 2010 except for its size. Carpenter et al. (2005) state they may be different specimens, or Welles and Long could have misreported YMP 9163's size. However, Ostrom (1980) reports YPM 9163 is from Quarry 9, which would prove it's a different specimen. Based on stratigraphy, it may belong to the unnamed (?)enigmosaur of Makovicky (1997) instead.
YPM 1933 is from Quarry 12, and its referral to Coelurus fragilis by Marsh (1896) is unfounded. It may belong to Ornitholestes, Tanycolagreus or another small theropod.
Makovicky (1995) and Carpenter et al. (2005) both list two complete dorsal vertebrae, five centra and six arches. Yet Carpenter et al. illustrate eleven total arches, which even considering one is attached to the centrum and two are the indeterminate arches also listed, leaves two extra illustrated arches. Similarly, Carpenter et al. illustrate a total of six dorsal centra, which means one is unillustrated. In addition, only four cervical vertebrae are listed among the Coelurus specimens, yet five are illustrated because Carpenter et al. illustrate dorsal 1 as a cervical. Ostrom (1980) mentions a second cervical vertebrae in YPM 1993, which he believes was combined with the other cervical to create a composite Marsh (1881) illustrated. Carpenter et al. (2005) concluded Marsh combined a Coelurus cervical with either YPM 1996 or 1997 (belonging to Makovicky's 1997 possible enigmosaur) to create the composite, but this conflicts with Ostrom's statement. The vertebra illustrated by Marsh (1881) as a dorsal is a proximal caudal (YPM 1991). Ostrom (1980) lists a metacarpal III and metacarpal IV fragment as being present, but Carpenter et al. illustrate a proximal metacarpal I, and a fragment of a much thinner element. The latter resembles a distal phalanx III-3 most.
Several vertebrae referred to Coelurus fragilis by Gilmore (1920) were provisionally referred to the unnamed (?)enigmosaur described by Makovicky (1997) by Carpenter et al. (2005). A partial skeleton was referred to Coelurus by Miles et al. (1998), also prompting them to refer a manus (AMNH 587) previously referred to Ornitholestes to Coelurus. However, the skeleton was later made the holotype of Tanycolagreus topwilsoni by Carpenter et al. (2005) and the manus was referred to that species instead. A pubis referred to Coelurus by Gilmore (1920) was also referred to Tanycolagreus by Carpenter et al. (2005).
Gilmore (1920) doubted the accuracy of the three characters used by Osborn (1903) to distinguish Coelurus from Ornitholestes, which led to many synonymizing them until Ostrom (1980) properly differentiated the genera. His preliminary analysis was confirmed once both Coelurus and Ornitholestes were redescribed in detail by Carpenter et al. (2005).
References- Marsh, 1879. Notice of new Jurassic reptiles. American Journal Science. 18, 501-505.
Marsh, 1881. A new order of extinct Jurassic reptiles (Coeluria). American Journal Science. 21, 339-341.
Marsh, 1884. Principle characters of American Jurassic dinosaurs. Part 8: the Order Theropoda. American Journal Science. 27, 29-40.
Marsh, 1896. The dinosaurs of North America. Sixteenth Annual Report of the U.S. Geological Survey. p. 133-230.
Osborn, 1903. Ornitholestes hermanni, a new compsognathid dinosaur from the Upper Jurassic. American Museum of Natural History Bulletin. 19, 459-464.
Gilmore, 1920. Osteology of the carnivorous Dinosauria in the United States National Museum, with special reference to the genera Antrodemus (Allosaurus) and Ceratosaurus. Bull. U. S. Nat. Mus. CX 1-154, 36 pls., 78 text-figs.
Welles and Long, 1974. The tarsus of theropod dinosaurs: Annals of the South African Museum. 44, 117-155.
Ostrom, 1980. Coelurus and Ornitholestes: are they the same? In Jacobs, L. (ed.) Aspects of Vertebrate History. Flagstaff, Museum of Northern Arizona Press. 245-256.
Russell, Beland and McIntosh, 1980. Paleoecology of the dinosaurs of Tendaguru (Tanzania). Mémoires de la Société géologique de France. 139, 169-175.
Makovicky, 1995. Phylogenetic aspects of the vertebral morphology of Coelurosauria (Dinosauria: Theropoda). M.S. thesis, Univ. Copenhagen, 311pp.
Makovicky, 1997. A new small theropod from the Morrison Formation of Como Bluff, Wyoming. Journal of Vertebrate Paleontology. 17, 755-757.
Miles, Carpenter and Cloward, 1998. A new skeleton of Coelurus fragilis from the Morrison Formation of Wyoming. JVP 18(3) 64A.
Carpenter, Miles, Ostrom and Cloward, 2005. Redescription of the small maniraptoran theropods Ornitholestes and Coelurus from the Upper Jurassic Morrison Formation of Wyoming. In Carpenter (ed.). The Carnivorous Dinosaurs. Indiana University Press. 49-71.

Tanycolageus Carpenter, Miles and Cloward, 2005
= "Tanycolagreus" Carpenter and Miles vide Anonymous, 2001
T. topwilsoni Carpenter, Miles and Cloward, 2005
?= Elaphrosaurus "philtippettensis" Pickering, 1995b
?= Elaphrosaurus "philtippettorum" Pickering, 1995a
= "Tanycolagreus topwilsoni" Carpenter and Miles vide Anonymous, 2001
Middle Kimmeridgian, Late Jurassic
Salt Wash Member of the Morrison Formation, Wyoming, US

Holotype- (TPII 2000-09-29) (subadult; ~3.3 m) partial skull (premaxilla, partial nasal, lacrimal, postorbital, squamosal fragment, quadratojugal, quadrate), premaxillary tooth, two lateral teeth, splenial, articular, two anterior dorsal centra, four posterior dorsal vertebrae (42, 44, 43, 51 mm), fourteen ribs, gastralia fragments, first sacral centrum (40 mm), two proximal caudal centra, two mid caudal centra, three distal caudal vertebrae, seven chevrons, scapulae (281 mm), coracoid (scapulocoracoid 287 mm), humeri (198 mm), radii (143 mm), ulnae (152 mm), radiale, semilunate carpal, metacarpal I (37 mm), phalanx I-1 (68 mm), manual ungual I (90 mm straight), metacarpal II (81 mm), phalanx II-1 (65 mm), phalanx II-2 (75 mm), manual ungual II (~55 mm), metacarpal III (55 mm), phalanx III-3 (40 mm), manual ungual III (39 mm straight), distal pubes, femora (356 mm), tibiae (387 mm), fibulae (one proximal) (370 mm), astragalus (47 mm wide), calcaneum, metatarsal I (50 mm), phalanx I-1 (40 mm), pedal ungual I (~32 mm), metatarsal II (196 mm), phalanx II-1 (64 mm), phalanx II-2 (55 mm), pedal ungual II (~45 mm), metatarsal III (216 mm), phalanx III-1 (73 mm), phalanx III-2 (55 mm), phalanx III-3 (41 mm), pedal ungual III (57 mm), metatarsal IV (202 mm), phalanx IV-1 (47 mm), phalanx IV-2 (41 mm), phalanx IV-3 (34 mm), phalanx IV-4 (28 mm), pedal ungual IV (~45 mm), metatarsal V (50 mm)
Paratype- (AMNH 587) (~2.3 m) metacarpal II (58 mm), phalanx II-1 (40 mm), phalanx II-2 (48 mm), manual ungual II, metacarpal III (44 mm), phalanx III-1 (14 mm), phalanx III-2 (17 mm), phalanx III-3 (31 mm), manual ungual III (33 mm), metacarpal IV (9 mm) (Osborn, 1916)
Late Kimmeridgian, Late Jurassic
Brushy Basin Member of the Morrison Formation, Colorado, US
Referred- ?(USNM 5737; intended holotype of Elaphrosaurus "philtippettensis" and "philtippettorum") distal pubes (Gilmore, 1920)
Late Kimmeridgian, Late Jurassic
Brushy Basin Member of the Morrison Formation, Utah, US
Paratype- (UUVP 2999) (~6.3 m) premaxilla (32 mm) (Madsen, 1974)
Diagnosis- (after Carpenter et al., 2005) short, deep-bodied premaxilla that is pierced by narial foramen at the base of the nasal process; orbital process on the postorbital; T-shaped quadratojugal; centrodiapophyseal lamina on dorsals.
Comments- The first remains of this species were originally referred to Ornitholestes (Osborn, 1916), Coelurus (Gilmore, 1920) and Stokesosaurus (Madsen, 1974). The holotype was collected in 1995 and initially thought to be Coelurus (Miles et al.,1998). Its name was first published in a guide to the North American Museum of Ancient Life, credited to Carpenter and Miles. Assigned to Coeluridae without supporting synapomorphies by Carpenter et al. (2005), it does indeed fall out as a coelurid in Senter (2007). When Senter's analysis is updated with similar taxa and more tyrannosauroid characters, 'coelurids' move from basal Tyrannosauroidea to a position slightly closer to birds. The genus could be synonymous with Stokesosaurus clevelandi, whose holotype and referred ilia, and referred braincase cannot be compared to Tanycolagreus.
The distal pubes USNM 5737 were discovered in 1884 and provisionally referred to Coelurus agilis by Gilmore in 1920 based on their size. Pickering (1995a) listed the name Elaphrosaurus philtippettorum in an unpublished bibliographic manuscript. In that same year, Pickering printed a packet with a description of the taxon as ?Elaphrosaurus philtippettensis, indicating USNM 5737 is the intended type. Both variants on the name are nomina nuda however, as he didn't follow ICZN Article 8.1.3- it must have been produced in an edition containing simultaneously obtainable copies by a method that assures numerous identical and durable copies. Pickering also referred USNM 8414 (two metatarsals) and 8415 (a humerus) without justification. However, there are no characters in the diagnosis except that it shares a straight humerus with Elaphrosaurus and abelisaurids (which does not involve the intended type), and the only characters listed in the description are those which distinguish USNM 8415 from Dryosaurus. It is therefore also a nomen nudum in that it lacks "a description or definition that states in words characters that are purported to differentiate the taxon." Pickering will also describe the species in his in progress work Mutanda Dinosaurologica. Carpenter et al. (2005) referred USNM 5737 to their new taxon Tanycolagreus because of its straight ventral edge and dorsally placed interpubic fenestra, unlike Coelurus. Additionally, Ornitholestes lacks an interpubic fenestra altogether. Why Pickering referred USNM 5737 to Elaphrosaurus is unknown, as he does not discuss the specimen (except to note it is "elongate, ... lacking a crest on its craniodorsal surface. In lateral view, the distal foot is ventrally convex.") and E. bambergi does not preserve the distal pubis. Furthermore, other ceratosaurs like Ceratosaurus, Kryptops and Carnotaurus have a very distally placed interpubic fenestra, so USNM 5737 is probably not a ceratosaur. Carpenter et al.'s assignment is here retained, though it should be noted Juratyrant also has a distally flat pubic boot and proximally placed interpubic fenestra.
References- Osborn, 1916. Skeletal adaptations of Ornitholestes, Struthiomimus and Tyrannosaurus. Bulletin of the American Museum of Natural History. 35, 733-771.
Gilmore, 1920. Osteology of the carnivorous Dinosauria in the United States National Museum, with special reference to the genera Antrodemus (Allosaurus) and Ceratosaurus. Bulletin of the United States National Museum. 110, 1-154.
Madsen, 1974. A new theropod dinosaur from the Upper Jurassic of Utah. Journal of Paleontology. 48, 27-31.
Pickering, 1995a. Jurassic Park: Unauthorized Jewish Fractals in Philopatry. A Fractal Scaling in Dinosaurology Project, 2nd revised printing. Capitola, California. 478 pp.
Pickering, 1995b. An extract from: Archosauromorpha: Cladistics and osteologies. A Fractal Scaling in Dinosaurology Project. 2 pp.
Miles, Carpenter and Cloward, 1998. A new skeleton of Coelurus fragilis from the Morrison Formation of Wyoming. Journal of Vertebrate Paleontology. 18(3), 64A.
Anonymous, 2001. North American Museum of Ancient Life guidebook.
Carpenter, Miles and Cloward, 2005. New small theropod from the Upper Jurassic Morrison Formation of Wyoming. In Carpenter (ed.). The Carnivorous Dinosaurs. Indiana University Press. 23-48.
Senter, 2007. A new look at the phylogeny of Coelurosauria (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 5(4), 429-463.

Compsognathidae Cope, 1875
Definition- (Compsognathus longipes <- Passer domesticus) (Holtz et al., 2004)
Other definitions- (metacarpal I very short (MII/MI < 35%, with discrete extensor tubercle directed proximo-radially (ratio 1.8–1.4 proximally to radially), and barely asymmetrical distal condyles [< 5° offset ulnar to radial condyles] as in Compsognathus longipes) (Gishlick and Gauthier, 2007)
= Compsognatha Huxley, 1870
= Aristosuchia Seeley, 1901
= Compsognathinae Cope, 1875 vide Nopcsa, 1923
= Compsognathia Paul, 1988
= Sinosauropterygiformes Ji and Ji, 1996
= Sinosauropterygidae Ji and Ji, 1996
= Aptilonia Ji and Ji, 2001
= Eoptilonia Ji and Ji, 2001
Comments- Both Aptilonia and Eoptilonia were named by Ji and Ji (2001) in a cladogram, the former including Compsognathus and the latter including Sinosauropteryx. Though not defined, their etymology suggests reference to Sinosauropteryx's preserved primitive feathers and Compsognathus' lack of well preserved feathers. The latter is probably preservational, neither state is apomorphic, and both names are best seen as junior synonyms of Compsognatha and Sinosauropterygiformes respectively.

Huaxiagnathus Hwang, Norell, Ji and Gao, 2004
= "Huaxiasaurus" Anonymous, 2000
H. orientalis Hwang, Norell, Ji and Gao, 2004
Late Barremian-Early Aptian, Early Cretaceous
Jianshangou Beds of Yixian Formation, Liaoning, China

Holotype- (CAGS-IG02-301) (~1.6 m; subadult) skull (165 mm), mandible, hyoid, nine cervical vertebrae, cervical ribs, thirteen dorsal vertebrae, dorsal ribs, gastralia, sacrum, first caudal vertebra (20.44 mm), second caudal vertebra (21.66 mm), third caudal vertebra (20.46 mm), fourth caudal vertebra (20.16 mm), fifth caudal vertebra (19.74 mm), sixth caudal vertebra (19.67 mm), seventh caudal vertebra (21.32 mm), eighth caudal vertebra (19.60 mm), ninth caudal vertebra (20.71 mm), tenth caudal vertebra (20.12 mm), eleventh caudal vertebra (20.66 mm), twelfth caudal vertebra (20.92 mm), thirteenth caudal vertebra (20.73 mm), fourteenth caudal vertebra (20.88 mm), fifteenth caudal vertebra (22 mm), sixteenth caudal vertebra (21.75 mm), seventeenth caudal vertebra (22.72 mm), eighteenth caudal vertebra (21.75 mm), nineteenth caudal vertebra (21.43 mm), twentieth caudal vertebra (22.52 mm), twenty-first caudal vertebra (23.15 mm), twenty-second caudal vertebra (22.38 mm), twenty-third caudal vertebra (20.93 mm), twenty-fourth caudal vertebrae (22 mm), twenty-fifth caudal vertebra (23.29 mm), twenty-two chevrons, scapulae, coracoids, partial furcula, humeri (90 mm), radii (51 mm), ulnae (55 mm), radiales, distal carpals I, distal carpals II, ulnares, metacarpals I (19 mm), phalanges I-1 (38 mm), metacarpals II (40 mm), phalanges II-1 (26 mm), phalanges II-2 (35 mm), manual unguals II, metacarpals III (26 mm), phalanges III-1, phalanges III-2, phalanges III-3, manual unguals III, ilium (~139 mm), pubes, ischia, femur (163 mm), tibiae (183 mm), fibula, astragali, distal tarsal IV, metatarsal I, phalanx I-1, pedal ungual I, metatarsals II (91 mm), phalanges II-1, phalanges II-2, pedal unguals II, metatarsals III (102 mm), phalanges III-1, phalanges III-2, phalanges III-3, pedal unguals III, metatarsals IV (91 mm), phalanx IV-1, phalanx IV-2, phalanx IV-3, phalanges IV-4, pedal unguals IV, metatarsal V, stomach contents
Referred- (NGMC 98-5-003; "Huaxiasaurus") (~1.8 m) partial skeleton including fragmentary skull, dorsal vertebrae, caudal vertebrae, humerus, radius, ulna, distal carpals, metacarpals, manual unguals, fragmentary pelvis, femur (~167 mm), tibiae, distal tarsals, metatarsal I, metatarsal II, metatarsal III, metatarsal IV, metatarsal V (Anonymous, 2000)
Comments- "Huaxiasaurus" was first announced in 2000 in news articles as a genus of bird. The specimen was later mentioned by Hwang et al. (2001) in an abstract, and described briefly by Hwang et al. (2004). It is poorly reconstructed and prepared, with many elements placed in the wrong position. Hwang et al. (2004) tentatively referred it to their new genus Huaxiagnathus, as the morphology is identical with the holotype except for a shorter skull (34% of femoral length instead of 45%). It may be an older individual.
Hwang et al.'s (2004) phylogenetic analysis recovered Huaxiagnathus as a basal compsognathid, which has also occured in future versions of the Theropod Working Group analysis, including that of Senter (2007).
References- Anonymous, 2000. Feathered dinosaurs on show in Hong Kong. Xinhua News Agency, May 1.
Anonymous, 2000. New discovery to help solve riddle of bird origin. July 23.
Hwang, Norell, Gao and Ji, 2001. New information on Jehol theropods. Journal of Vertebrate Paleontology. 21(3), 64A.
Hwang, Norell, Ji and Gao, 2004. A large compsognathid from the Early Cretaceous Yixian Formation of China. Journal of Systematic Palaentology. 2(1), 13-30.
Senter, 2007. A new look at the phylogeny of Coelurosauria (Dinosauria: Theropoda). Journal of Systematic Palaeontology. 5(4), 429-463.

Sinosauropteryx Ji and Ji, 1996
S. prima Ji and Ji, 1996
= Compsognathus prima (Ji and Ji, 1996) Morell, 1997
Late Barremian-Early Aptian, Early Cretaceous
Jianshangou Beds of Yixian Formation, Liaoning, China

Holotype- (GMV 2123, NIGP 127586) (680 mm; subadult) skull (62.5 mm), sclerotic plates, mandible, hyoids, eight cervical vertebrae, nine cervical ribs (third 13 mm, sixth 10 mm, eighth 6 mm), eleven dorsal centra, twenty dorsal ribs, gastralia, fifty-nine caudal vertebrae, thirty-four chevrons, scapulae, coracoids, humeri (20.3 mm), radii (12.4 mm), ulnae, distal carpal I (2.9 mm), metacarpals I (4.2 mm), phalanges I-1, manual unguals I, metacarpals II (10.2 mm), phalanges II-1, phalanges II-2, manual unguals II, metacarpals III, phalanx III-1, phalanx III-2, phalanx III-3, manual ungual III, ilium (39 mm), pubes (41.3 mm), ischia, femora (53.2 mm), tibiae (61 mm), fibulae, astragali, calcanea, distal tarsals III, distal tarsals IV, metatarsals II, metatarsals III (39.9 mm), phalanx III-1, phalanx III-2, metatarsals IV (36.8 mm), phalanx IV-1, phalanx IV-2, phalanx IV-3, phalanx IV-4, six pedal phalanges, metatarsal V (8.1 mm), feathers, viscera
Referred- (NIGP 127587) (1.07 m; young adult) incomplete skull (97.2 mm), sclerotic plates, incomplete mandibles, hyoids, ten cervical vertebrae (third cervical vertebra 9.6 mm), twelve dorsal vertebrae, sixteen dorsal ribs, dorsal rib fragments, gastralia, partial sacrum, twenty-three caudal vertebrae, twenty-three chevrons, scapulae, coracoids, humeri (35.5 mm), radii (21 mm), ulnae, radiale (3 mm), distal carpal I (5.6 mm), distal carpal II (1.8 mm), metacarpals I (8.6 mm), phalanges I-1 (19.4 mm), manual ungual I (~25 mm), metacarpals II (17.1 mm), phalanges II-1 (9.5 mm), phalanx II-2 (11.8 mm), manual ungual II (~14 mm), metacarpals III (12.7, 13.7 mm), phalanges III-1 (5, 4.6 mm), phalanges III-2 (3.7, 3.8 mm), phalanges III-3 (5.6 mm), manual unguals III (9.9 mm), ilia (67.5 mm), pubis (74 mm), ischia, femora (86.4 mm), tibiae (97 mm), astragalus, calcaneum, distal tarsal IV, metatarsal I, phalanx I-1, pedal ungual I, metatarsals II (~58 mm), phalanx II-1, phalanges II-2, pedal unguals II, metatarsals III (~65 mm), phalanges III-1, phalanges III-2, phalanges III-3, pedal unguals III, metatarsals IV (~60 mm), phalanges IV-1, phalanges IV-2, phalanx IV-3, phalanx IV-4, pedal ungual IV, metatarsal V fragment, feathers, viscera, two eggs (37x26 mm) (Chen et al., 1998)
Early Aptian, Early Cretaceous
Dawangzhangzi Beds of Yixian Formation, Liaoning, China

(D 2141) skull (86.6 mm), mandible, hyoid (23.3 mm), cervical vertebrae, cervical ribs, dorsal vertebrae, fifteen rows of gastralia, sacrum, twenty caudal vertebrae, chevrons, partial scapulae, coracoids, humerus (24.7 mm), radius, ulna (21.3 mm), metacarpal I, phalanx I-1, metacarpal II, phalanx II-1, phalanx II-2, manual ungual II, manual digit III, ilia, ischia, femora, tibiae (72.8 mm), fibulae, metatarsals II, metatarsals III 52.3 mm), metatarsals IV, pedal phalanges, pedal unguals, feathers (Ji et al., 2007)
(IVPP V12415) specimen including skull, mandible, hyoid, cervical series, cervical ribs, dorsal series, dorsal ribs, gastralia, caudal series, chevrons, scapula, coracoids, humeri, ulna, manual elements, manual ungual I, ilium, pubis, ischia, tibiae, phalanx I-1, pedal ungual I, pedal digits, feathers (Lingham-Soliar et al., 2007)
(IVPP V14202) specimen including sacrum, eleven proximal caudal vertebrae, ten chevrons, ilium and feathers (Zhang et al., 2010)
Diagnosis- (after Currie and Chen, 2001) first manual digit is longer than the humerus or the radius; powerful proximomedial flange on first metacarpal.
Comments- A lizard skeleton is preserved in the gut region of NIGP 127587.
A specimen described by Ji and Ji (1997), NGMC 2124, seems to be a different taxon. This was first suggested by Longrich (DML, 2000), who later wrote an abstract on it in 2002. This is agreed on by Ji et al. (2007) and Gishlick and Gauthier (2007), who label it Sinosauropteryx? sp..
References- Ji and Ji, 1996. On discovery of the earliest bird fossil in China and the origin of birds. Chinese Geology. 233, 30-33.
Ji and Ji, 1997. Advances in the study of the avian Sinosauropteryx prima. Chinese Geology. 242, 30-32.
Morell, 1997. The origin of birds: the dinosaur debate. Audubon Magazine, April, 36-45.
Chen, Dong and Zhen, 1998. An exceptionally well-preserved theropod dinosaur from the Yixian Formation of China. Nature. 391, 147-152.
Longrich, DML 2000. http://dml.cmnh.org/2000Apr/msg00300.html
Currie and Chen, 2001. Anatomy of Sinosauropteryx prima from Liaoning, northeastern China. Canadian Journal of Earth Science. 38, 1705-1727.
Longrich, 2002. Systematics of Sinosauropteryx. Journal of Vertebrate Paleontology. 22(3), 80A.
Gishlick and Gauthier, 2007. On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae. Zoological Journal of the Linnean Society. 149, 569–581.
Ji, Gao, Liu, Meng and Ji, 2007. New material of Sinosauropteryx (Theropoda: Compsognathidae) from Western Liaoning, China. Acta Geologica Sinica. 81(2), 177-182.
Lingham-Soliar, Feduccia and Wang, 2007. A new Chinese specimen indicates that 'protofeathers' in the Early Cretaceous theropod dinosaur Sinosauropteryx are degraded collagen fibres. Proceedings of the Royal Society B. 274, 1823-1829.
Zhang, Kearns, Orr, Benton, Zhou, Johnson, Xu and Wang, 2010. Fossilized melanosomes and the colour of Cretaceous dinosaurs and birds. Nature. 463, 1075-1078.

Compsognathus Wagner, 1859
C. longipes Wagner, 1859
= Compsognathus corallestris Bidar, Demay and Thomel, 1972
Early Tithonian, Late Jurassic
Solnhofen Formation, Germany

Holotype- (BSP AS I 536) (~.86 m, .58 kg) incomplete skull (75 mm), mandibles, hyoids, atlas, axis (8.7 mm), third cervical vertebra (9.5 mm), fourth cervical vertebra (11 mm), fifth cervical vertebra (12.3 mm), sixth cervical vertebra (12.7 mm), seventh cervical vertebra (12.7 mm), eighth cervical vertebra (11.3 mm), ninth cervical vertebra (10.9 mm), tenth cervical vertebra (10.9 mm), fourteen cervical ribs, first dorsal vertebra (9.9 mm), second dorsal vertebra (9.4 mm), third dorsal vertebra (~9.8 mm), fourth dorsal vertebra (~9.1 mm), fifth dorsal vertebra (~9.7 mm), sixth dorsal vertebra (9.9 mm), seventh dorsal vertebra (10.5 mm), eighth dorsal vertebra (10.2 mm), ninth dorsal vertebra (12.2 mm?), tenth dorsal vertebra (10.75 mm), eleventh dorsal vertebra (11.4 mm), twelfth dorsal vertebra (~11.5 mm), thirteenth dorsal vertebra (~12 mm), twenty-two partial dorsal ribs, gastralia, third sacral vertebra , fourth sacral vertebra (8.6 mm), fifth sacral vertebra, first caudal vertebra (10.9 mm), second caudal vertebra (11.2 mm), third caudal vertebra (11.5 mm), fourth caudal vertebra (11.8 mm), fifth caudal vertebra (12.1 mm), sixth caudal vertebra (12.6 mm), seventh caudal vertebra (12.9 mm), eighth caudal vertebra (13.2 mm), ninth caudal vertebra (13.3 mm), twenth caudal vertebra, eleventh caudal vertebra, twelfth caudal vertebra, thirteenth caudal vertebra, fourteenth caudal vertebra, fifteenth caudal vertebra, ten chevrons, partial scapula (~38 mm), partial coracoids, humeri (~38-40 mm), radii (24.7 mm), ulnae (28.5 mm), two carpals, metacarpal I (5.85 mm), phalanx I-1 (17.6 mm), manual ungual I (10.4, 10.4 mm), metacarpal II (13.95 mm), phalanx II-1 (7.7, 7.8 mm), phalanx II-2 (14.5, 14.45 mm), manual ungual II (9.6, 9.7 mm), metacarpal III (13.1 mm), phalanx III-1, partial ilia, incomplete pubes (~60 mm), ischia (~40 mm), femora (~67 mm), tibiae (87.7, 87.6mm), fibulae (82.1 mm), astragalus?, distal tarsal IV, metatarsal I (12 mm), phalanx I-1 (9 mm), pedal ungual I (4.5 mm), metatarsal II (50.4 mm), phalanx II-1 (15 mm), phalanx II-2 (15 mm), pedal ungual II (13 mm), metatarsal III (56 mm), phalanx III-1 (18 mm), phalanx III-2 (15 mm), phalanx III-3 (13 mm), pedal ungual III (13 mm), metatarsal IV (51.8 mm), phalanx IV-1 (12 mm), phalanx IV-2 (10 mm), phalanx IV-3 (10 mm), phalanx IV-4 (10 mm), pedal ungual IV (10 mm), metatarsal V (17 mm), eichstaettisaurid skeleton
Early Tithonian, Late Jurassic
Lithographic Portlandian Limestone, France

Referred- ?(MNHN CNJ 79; holotype of Compsognathus corallestris) (~1.4 m, 2.5 kg) incomplete skull (100 mm), incomplete mandibles, hyoids, atlas, axis, third cervical vertebra, fourth cervical vertebra, fifth cervical vertebra, sixth cervical vertebra, seventh cervical vertebra, eighth cervical vertebra, ninth cervical vertebra, tenth cervical vertebra, seven cervical ribs, first dorsal vertebra, second dorsal vertebra, third dorsal vertebra, fourth dorsal vertebra, fifth dorsal vertebra, sixth dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra, ninth dorsal vertebra, tenth dorsal vertebra, eleventh dorsal vertebra, twelfth dorsal vertebra, thirteenth dorsal vertebra, several dorsal ribs, gastralia, sacrum, thirty-one caudal vertebrae, thirty-one chevrons, scapulae (51.2 mm), coracoid, furcula, humeri (56.3, 51.9 mm), radii (41 mm), ulnae (46.4 mm), radiale, distal carpal I, distal carpal II, metacarpal I (6.8 mm), phalanx I-1 (21.6 mm), metacarpal II (27.3, 25.4 mm), phalanx II-1 (13.4, 13 mm), metacarpal III (22.9, 24.2 mm), phalanx III-1 (1.4 mm), phalanx III-2 (3.3 mm), ilium (77.8 mm), pubes (103.4 mm), ischia (65.8 mm), femora (108.8 mm), tibiae (131, 131.8 mm), fibulae (one partial; 124.9 mm), astragali, calcanea, distal tarsal III, distal tarsal IV, metatarsal I (17 mm), phalanx I-1 (13.8 mm), pedal ungual I (6.6 mm), metatarsal II (72.5, 73.1 mm), phalanx II-1 (22.1 mm), phalanx II-2 (19.4, 19.7 mm), pedal ungual II (15 mm), metatarsal III (79.6, 80.9 mm), phalanx III-1 (24.6, 23.6 mm), phalanx III-2 (19.5, 20.8 mm), proximal phalanx III-3, metatarsal IV (72.5, 73.2 mm), phalanx IV-1 (15.2, 16 mm), phalanx IV-2 (14.9, 12.3 mm), phalanx IV-3 (10.9 mm), phalanx IV-4 (8.8 mm), pedal ungual IV, metatarsal V (24.5 mm), skin impressions (Bidar, Demay and Thomel, 1972)
Diagnosis- (after Peyer, 2006) ventral process at the posterior end of premaxillary body; opisthocoelous cervical vertebrae; metacarpal I less than one third as long as metacarpal II; no fourth trochanter on femur; hallux ends at or below the distal end of phalanx 1 of digit II.
Comments- The genus and its type species were first named and briefly described by Wagner in 1859, then more extensively described by him in 1861, the date usually given for these taxa.
While MNHN CNJ 79 was originally described as a new species, C. corallestris, until Ostrom (1978) synonymized it with C. longipes. Recently, Rauhut and Foth (2014) state newly discovered casts of the holotype indicate it was more complete when found and indicates "it is not the same taxon as the French Compsognathus."
Dames (1884) described three metapodials and a proximal phalanx (HMN coll.) from the Solnhofen Formation, which was questionably referred to Compsognathus by Huene (1925). However, Ostrom (1978) showed that the shortest metapodial is too short to be a Compsognathus metatarsal II (which is the shortest of its main three metatarsals) and that the phalanx associated with it is too long to be II-1. These may not be theropod, and may not even be metatarsals.
Gauthier and Gishlick (2000) reinterpreted the manus of Compsognathus. "Metacarpal I" is really phalanx I-1. The mystery element above the skull is a very short metacarpal I. There is a collateral ligament pit on metacarpal III, but no preserved phalanges. Thus, there may have been a third digit or not.
References- Wagner, 1859. Über einige im lithographischen Schiefer neu aufgefundene Schildkröten und Saurier: Gelehrte Anzeigen der Bayerischen Akademie der Wissenschaften. 49, 553.
Wagner, 1861. Neue Beitrige zur Kenntis der urweltlichen Fauna des lithographischen Schiefers. V. Compsognathus longipes Wagn. Abh. Bayer. Akad. Wiss. 9, 30-38.
Dames, 1884. Uber Metatarsen eines Compsognathus - ahnlichen Reptils von Solnhofen. Sitz-Ber. Ges. Naturforsch.. 1884, 179-180.
Huene, 1925. Eine neue Rekonstrucktion von Compsognathus longipes. Clb. Mineral. Geol. u. Palaont. Jg. 1925, Abt. B(5), 157-160.
Bidar, Demay and Thomel, 1972. Compsognathus corallestris, nouvelle espece de dinosaurien theropode du Portlandien de Canjuers (Sud-Est de la France). Annales du Muséum d’Histoire Naturelle de Nice. 1, 9-40.
Ostrom, 1978. The osteology of Compsognathus longipes. Zitteliana Abbandlungen Bayerischen Staatssammlung Paldontol. historische Geol. (Munchen). 4, 73-118.
Michard, 1991. Description du Compsognathus (Saurischia, Theropoda) de Canjuers (Jurassique supérieur du Sud-est de la France), position phylogénétique, relation avec Archaeopteryx et implications sur l’origine théropodienne des oiseaux. PhD thesis. Muséum National d’Histoire Naturelle, Paris.
Gauthier and Gishlick, 2000. Re-examination of the manus of Compsognathus and its relevance to the original morphology of the coelurosaur manus. Journal of Vertebrate Paleontology. 20(3), 43A.
Peyer, 2003. A complete redescription of the French Compsognathus with special consideration of the anatomy of the hand. Journal of Vertebrate Paleontology. 23(3), 87A.
Peyer, 2004. The phylogenetic relationship of the French Compsognathus within the Compsognathidae and coelurosaurs. Journal of Vertebrate Paleontology. 24(3), 144A-145A.
Peyer, 2006. A reconsideration of Compsognathus from the Upper Tithonian of Canjuers, Southeastern France. Journal of Vertebrate Paleontology. 26(4), 879-896.
Gishlick and Gauthier, 2007. On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae. Zoological Journal of the Linnean Society. 149, 569-581.
Conrad, 2014. The lizard (Squamata) in Compsognathus (Theropoda) is a new species, not Bavarisaurus. Journal of Vertebrate Paleontology, Program and Abstracts. 111.
Rauhut and Foth, 2014. New information on the theropod dinosaurs from the Late Jurassic lithographic limestones of Southern Germany. Journal of Vertebrate Paleontology. Program and Abstracts 2014, 212.
C. sp. (Zinke, 1998)
Kimmeridgian, Late Jurassic
Guimarota Formation, Portugal

Material- (IPFUB GUI D 28-65, 98, 103, 105-110, 112, 113) 49 teeth (~1.71 mm)
Diagnosis- differs from C. longipes in that posterior teeth have serrations on mesial carinae.
Reference- Zinke, 1998. Small theropod teeth from the Upper Jurassic coal mine of Guimarota (Portugal). Palaontologische Zeitschrift. 72, 179-189.

Juravenator Gohlich and Chiappe, 2006
J. starki Gohlich and Chiappe, 2006
Late Kimmeridgian, Late Jurassic
Painten Formation, Germany
Holotype
- (JME Sch 200; Borsti) (~75-80 cm; juvenile) skull (82 mm), sclerotic ring, mandible (~77 mm), seven cervical vertebrae, cervical ribs, thirteen dorsal vertebrae, dorsal ribs, gastralia, three sacral centra, forty-four caudal vertebrae, chevrons, scapulae (42 mm), coracoids, clavicles, humeri (27, 27.5 mm), radii (~19.3 mm), ulnae (20.5, 20.5 mm), metacarpals I (4.5 mm), phalanges I-1 (10.5 mm), manual unguals I (~10 mm), metacarpals II (11.5 mm), phalanx II-1 (8 mm), phalanges II-2 (10, 10 mm), manual unguals II (9, 10 mm), metacarpals III (9 mm), phalanges III-1 (4 mm), phalanges III-2 (4.5, 4.5 mm), phalanges III-3 (5.5 mm), manual unguals III (5.5, 7 mm), manual claw sheaths, ilia (40 mm), partial pubes, partial ischium?, femora (52 mm), tibiae (58.1, 58.1 mm), fibulae (55.3, 56 mm), astragali, calcaneum, metatarsals I (4.6, 4.5 mm), phalanges I-1 (5.8, 6 mm), pedal unguals I (6, 3.5 mm), metatarsals II (26.5 mm), phalanges II-1 (10.4 mm), phalanges II-2 (9, 8 mm), pedal unguals II (10.7, 11.5 mm), metatarsals III (34 mm), phalanges III-1 (11.9, 11.5 mm), phalanges III-2 (8.1, 8 mm), phalanges III-3 (7.4 mm), pedal unguals III (7.4, 6.6 mm), metatarsals IV (29.6, 29.8 mm), phalanges IV-1 (7.4, 7 mm), phalanges IV-2 (5.5, 6.5 mm), phalanges IV-3 (4.5 mm), phalanges IV-4 (4.2, 4 mm), pedal unguals IV (7.2, 5.8 mm), metatarsals V (8, 6.8 mm), scale impressions, feathers, caudal musculature impressions
Diagnosis- (modified from Gohlich and Chiappe, 2006) large skull (1.5 times femoral length); eight maxillary teeth; no premaxillary–maxillary diastema; posterior serrations on premaxillary teeth; concave rostral margin of the jugal process of the postorbital; relatively long scapula with narrowest portion at neck; proportionally short feet; antorbital fenestra subequal in length to the orbit (ontogenetic?); abbreviated deltopectoral crest of the humerus (ontogenetic?); proximally high manual claws that taper abruptly at midpoint; bow-like zygapophyses in mid-caudal vertebrae.
Comments- Discovered in 1998, the holotype was given the informal name of Borsti in 2001 news reports. It was described briefly by Gohlich and Chiappe (2006), then in more detail by Gohlich et al. (2006) and Chiappe and Gohlich (2011). Though usually recovered as a basal coelurosaur, Rauhut and Foth (2014) noted it has characters which could suggest a more basal position- two pairs of cervical pleurocoels; brevis shelf continuous with supraacetabular crest; well-developed antitrochanter.
References- Viohl, 1999. Discovery of a new small theropod. Archaeopteryx. 17, 15-19.
Gohlich and Chiappe, 2006. A new carnivorous dinosaur from the Late Jurassic Solnhofen archipelago. Nature. 440, 329-332.
Gohlich, Tischlinger and Chiappe, 2006. Juravenator starki (Reptilia, Theropoda) ein neuer Raubdinosaurier aus dem Oberjura der Sudlichen Frankenalb (Suddeutschland): Skelettanatomie und Weichteilbefunde. Archaeopteryx. 24, 1-26.
Chiappe and Gohlich, 2011. Anatomy of Juravenator starki (Theropoda: Coelurosauria) from the Late Jurassic of Germany. Neues Jahrbuch für Geologie und Paläontologie - Abhandlungen. 258(3), 257-296.
Rauhut and Foth, 2014. New information on the theropod dinosaurs from the Late Jurassic lithographic limestones of Southern Germany. Journal of Vertebrate Paleontology. Program and Abstracts 2014, 212.

unnamed coelurosaur (Longrich, 2002)
Late Barremian-Early Aptian, Early Cretaceous
Jianshangou Beds of Yixian Formation, Liaoning, China

Material- (NGMC 2124) (1.06 m) incomplete skull (113 mm), mandibles, hyoids, cervical vertebrae, dorsal vertebrae, dorsal ribs, sacrum, thirty-eight caudal vertebrae, chevrons, incomplete scapula, incomplete coracoid, forelimb elements, metacarpal I, phalanx I-1, manual ungual I, metacarpal II, phalanx II-1, phalanx II-2, manual ungual II, metacarpal III, phalanx III-1, phalanx III-2, phalanx III-3, manual ungual III, ilia (91 mm), pubes (96 mm), ischia (56 mm), femora (108 mm), tibiae (151 mm), fibulae, calcanea, metatarsals I, phalanges I-1, pedal unguals I, metatarsals II, phalanges II-1, phalanges II-2, pedal unguals II, metatarsals III (90 mm), phalanges III-1, phalanges III-2, proximal phalanx III-3, metatarsals IV, phalanges IV-1, phalanges IV-2, phalanges IV-3, phalanges IV-4 (one partial), pedal unguals IV (one partial), metatarsals V, feathers, symmetrodont mandible (Ji and Ji, 1997)
Comments- This was described as a new specimen of Sinosauropteryx prima by Ji and Ji (1997). Longrich (DML, 2000) noted it differed from Sinosauropteryx in several characters. He published an abstract in 2002 detailing his reasoning, proposing NGMC 2124 was a compsognathid/coelurid-grade coelurosaur, while Sinosauropteryx was a very basal coelurosaur or even a basal carnosaur. Gishlick and Gauthier (2007) refer to the specimen as Sinosauropteryx? sp. and figure the manus. Ji et al. (2007) also agree it does not belong in Sinosauropteryx.
References- Ji and Ji, 1997. Advances in the study of the avian Sinosauropteryx prima. Chinese Geology. 242, 30-32.
Longrich, DML 2000. http://dml.cmnh.org/2000Apr/msg00300.html
Currie and Chen, 2001. Anatomy of Sinosauropteryx prima from Liaoning, northeastern China. Canadian Journal of Earth Science. 38, 1705-1727.
Longrich, 2002. Systematics of Sinosauropteryx. Journal of Vertebrate Paleontology. 22(3), 80A.
Gishlick and Gauthier, 2007. On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae. Zoological Journal of the Linnean Society. 149, 569–581.
Ji, Gao, Liu, Meng and Ji, 2007. New material of Sinosauropteryx (Theropoda: Compsognathidae) from Western Liaoning, China. Acta Geologica Sinica. 81(2), 177-182.

Maniraptora sensu Choiniere, Xu, Clark, Forster, Guo and Han, 2010
Definition- (Ornitholestes hermanni + Archaeopteryx lithographica) (modified)

Ornitholestinae Paul, 1988
Ornitholestes
Osborn, 1903
O. hermanni Osborn, 1903
= Coelurus hermanni (Osborn, 1903) Hay, 1930
Middle Kimmeridgian, Late Jurassic
Salt Wash Member of the Morrison Formation, Wyoming, US

Holotype- (AMNH 619) (2.08 m, 12.6 kg) skull (138 mm), mandibles, third cervical vertebra, fourth cervical vertebra, sixth cervical vertebra, first dorsal vertebra, second dorsal vertebra, third dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra, ninth dorsal vertebra, tenth dorsal vertebra, eleventh dorsal vertebra, twelfth dorsal vertebra, thirteenth dorsal vertebra, first sacral vertebra, partial second sacral vertebra, partial third sacral centrum, fourth sacral vertebra, fifth sacral vertebra, first through seventh caudal vertebrae, two proximal caudal vertebrae, eighteen distal caudal vertebrae, twelve chevrons, humeri (124 mm), radius (84 mm), radial fragments, fragmentary ulna, metacarpal I, phalanx I-1, manual ungual I, partial phalanx II-2, manual ungual II, ilium (162 mm), incomplete pubes, ischia (152 mm), incomplete femur, proximal fibula, tarsal, pedal ungual I, metatarsal II (109 mm), phalanx II-1, pedal ungual II, metatarsal III (119 mm), phalanx III-1, phalanx III-2, pedal ungual III, metatarsals IV (113 mm), phalanx IV-1, phalanx IV-2, phalanx IV-4, pedal ungual IV
Diagnosis- (after Rauhut, 2000) teeth of premaxilla prominent, larger than maxillary teeth and bearing flattened apex; retroarticular process offset medially from lateral edge of mandible.
Comments- The holotype skeleton was originally described by Osborn (1903), who also referred a manus (AMNH 587) to the species. A partial skeleton was referred to Coelurus by Miles et al. (1998), also prompting them to refer AMNH 587 to that genus. However, the skeleton was later made the holotype of Tanycolagreus topwilsoni by Carpenter et al. (2005) and the manus was referred to that species instead. Ornitholestes has been questionably identified at Quarry 9 in Wyoming (Carrano and Velez-Juarbe, 2006) and Dry Mesa Quarry in Colorado (Britt, 1991), based on small elements that could belong to Coelurus, Tanycolagreus or other Morrison coelurosaurs as well.
Gilmore (1920) doubted the accuracy of the three characters used by Osborn (1903) to distinguish Coelurus from Ornitholestes, which led to many synonymizing them until Ostrom (1980) properly differentiated the genera. His preliminary analysis was confirmed once both Coelurus and Ornitholestes were redescribed in detail by Carpenter et al. (2005).
Makovicky (1995) described the vertebrae in detail, while Senter (2006) described the manus. Carpenter et al. (2005) described the postcranial skeleton, but the skull will be described by Norell in the future. Brusatte (2013) elaborates that an osteological monograph is being worked on by himself, Norell and Choiniere. Carpenter et al. incorrectly state only one humerus is known, do not mention the ulnar or left radial fragments, incorrectly list metacarpal II or III as being preserved, as well as fragments of two other metacarpals, and only mention one of the two manual unguals. The tibia is seemingly unpreserved, contra Paul's (1988) statement it is unusually short. In addition, a tarsal element is listed in the materials list, but not mentioned in the description, while two more pedal phalanges and two more pedal unguals are illustrated than are listed as being preserved.
References- Osborn, 1903. Ornitholestes hermanni, a new compsognathoid dinosaur from the Upper Jurassic. Bulletin of the American Museum of Natural History. 19, 459-464.
Osborn, 1916. Skeletal adaptations of Ornitholestes, Struthiomimus, Tyrannosaurus. Bulletin of the American Museum of Natural History. 35, 733-464.
Gilmore, 1920. Osteology of the carnivorous Dinosauria in the United States National Museum, with special reference to the genera Antrodemus (Allosaurus) and Ceratosaurus. Bulletin of the US National Museum. 154 pp.
Hay, 1930. Second Bibliography and Catalogue of the Fossil Vertebrata of North America. Carnegie Institution of Washington. 390(II), 1-1074.
Ostrom, 1980. Coelurus and Ornitholestes: are they the same? In Jacobs (ed.). Aspects of Vertebrate History. Flagstaff, Museum of Northern Arizona Press. 245-256.
Paul, 1988. The small predatory dinosaurs of the mid-Mesozoic: The horned theropods of the Morrison and Great Oolite - Ornitholestes and Proceratosaurus - and the sickleclaw theropods of the Cloverly, Djadokhta, and Judith River - Deinonychus, Velociraptor, and Saurornitholestes. Hunteria. 2(4), 1-9.
Britt, 1991. Theropods of Dry Mesa Quarry (Morrison Formation, Late Jurassic), Colorado, with emphasis on the osteology of Torvosaurus tanneri. BYU Geology Studies. 37, 1-72.
Makovicky, 1995. Phylogenetic aspects of the vertebral morphology of Coelurosauria (Dinosauria: Theropoda). M.S. thesis, Univ. Copenhagen, 311pp.
Miles, Carpenter and Cloward, 1998. A new skeleton of Coelurus fragilis from the Morrison Formation of Wyoming. Journal of Vertebrate Paleontology. 18(3), 64A.
Rauhut, 2000. The interrelationships and evolution of basal theropods (Dinosauria, Saurischia). Ph.D. dissertation, Univ. Bristol [U.K.]. 440 pp.
Carpenter, Miles, Ostrom and Cloward, 2005. Redescriptions of the small maniraptoran theropods Ornitholestes and Coelurus from the Upper Jurassic Morrison Formation of Wyoming. In Carpenter (ed.). The Carnivorous Dinosaurs. Indiana University Press. 49-71.
Carrano and Velez-Juarbe, 2006. Paleoecology of the Quarry 9 vertebrate assemblage from Como Bluff, Wyoming (Morrison Formation, Late Jurassic). Palaeogeography, Palaeoclimatology, Palaeoecology. 234(2-4), 147-159.
Senter, 2006. Forelimb function in Ornitholestes hermanni Osborn (Dinosauria, Theropoda). Palaeontology. 49(5), 1029-1034.
Brusatte, 2013. The phylogeny of basal coelurosaurian theropods (Archosauria: Dinosauria) and patterns of morphological evolution during the dinosaur-bird transition. PhD thesis, Columbia University. 944 pp.

Scipionyx Dal Sasso and Signore, 1998
= "Dromaeodaimon" Signore, 1995
S. samniticus Dal Sasso and Signore, 1998
= "Dromaeodaimon irene" Signore, 1995
Early Albian, Early Cretaceous
Pietraroja Formation, Italy
Holotype
- (SBA-SA 163760) (~461 mm; <3 week old juvenile) skull (51.7 mm), sclerotic ring, mandibles (47.3 mm), hyoids (18.7 mm), atlantal neurapophysis, atlantal intercentrum, axis (4.8 mm), third cervical vertebra (4.3 mm), fourth cervical vertebra (4.5 mm), fifth cervical vertebra (4.7 mm), sixth cervical vertebra (~4.7 mm), seventh cervical vertebra (4.9 mm), eighth cervical vertebra (5.4 mm), ninth cervical vertebra (~5 mm), tenth cervical vertebra (4.9 mm), nine pairs of cervical ribs (some partial; 9.1-15.9 mm), (dorsal series 69 mm) first dorsal vertebra (5.1 mm), second dorsal vertebra (4.9 mm), third dorsal vertebra, fourth dorsal vertebra, fifth dorsal vertebra, sixth dorsal vertebra, seventh dorsal vertebra, eighth dorsal vertebra (~5.9 mm), ninth dorsal vertebra (6 mm), tenth dorsal vertebra (6.5 mm), eleventh dorsal vertebra, twelfth dorsal vertebra (6.3 mm), thirteenth dorsal vertebra (6.3 mm), twelve pairs of dorsal ribs (some partial; 15.3-30.6 mm), thirteenth dorsal rib frament, eighteen rows of gastralia, (sacrum ~23 mm) first sacral vertebra (7.4 mm), second sacral centrum, fourth sacral neural arch, fourth sacral rib, fifth sacral vertebra (5.1 mm), fifth sacral rib, first caudal vertebra (5.4 mm), second caudal vertebra (5.4 mm), third caudal vertebra (5.6 mm), fourth caudal vertebra (5.7 mm), fifth caudal vertebra (7.4 mm), sixth caudal vertebra (7.6 mm), seventh caudal vertebra (6.8 mm), incomplete eighth caudal vertebra, ninth caudal neural arch fragment, fourth chevron (8.1 mm), fifth chevron (6.7 mm), sixth chevron fragment, scapulae (23.8 mm), coracoids (6.8, 6.8 mm), furcula (~12 mm), humeri (26.3 mm), radii (17.5 mm), ulnae (19.3 mm), radiales (1.7 mm), semilunate carpals (2.4, 3 mm), metacarpals I (4, 4 mm), phalanges I-1 (9.1, ~9.5 mm), manual unguals I (8.2 mm), metacarpals II (10.6, 10.6 mm), phalanges II-1 (7.3, ~6.7 mm), phalanges II-2 (10.4, 10.2 mm), manual unguals II (one proximal; 8.1 mm), metacarpals III (8.6, 8.7 mm), phalanges III-1 (3.1, 2.9 mm), phalanges III-2 (3.1 mm), phalanges III-3 (one partial; 7.4, 6.7), manual unguals III (6.1 mm), horny manual claws, incomplete ilia (~26.7 mm), pubes (27.3 mm), ischia (~20.4 mm), femora (37.3 mm), proximal tibiae, proximal fibulae, cartilage, ligaments, tracheal fragment, liver, esophagal fragment, stomach, intestine, rectum, cervical muscles, dorsal epaxial muscles, puboischiofemoral muscle, caudifemoralis longus muscle, lateral caudal musculature, fecal pellets, fish vertebrae, teleost scales, lepidosaur pedal elements, lepidosaur scales
Diagnosis- (modified from Dal Sasso and Signore, 1998) accessory transverse postorbital ridge at fronto-parietal contact; compressed radiale and semilunate carpal.
(after Dal Sasso and Maganuco, 2011) five premaxillary teeth; ventral squamosal process squared; only two carpals; distal carpals I and II fused; manual digit III much longer (123%) than digit I; preacetacetabular anterior concavity slightly developed and facing anteriorly; obturator process quadrangular.
Comments- This specimen was first mentioned by Leonardi and Teruzzi (1993) and described in depth in Signore's (1995) unpublished thesis. It was preliminarily described and named by Dal Sasso and Signore in 1998 and monographed by Dal Sasso and Maganuco (2011)
The sternal plate identified by Dal Sasso and Signore is actually the left proximal humerus.
References- Leonardi and Teruzzi, 1993. Prima segnalazione di uno scheletro fossile di dinosauro (Theropoda, Coelurosauria) in Italia (Cretacico di Pietraroia, Benevento). Paleocronache. 1993, 7-14.
Signore, 1995. Il teropode del Plattenkalk della Civita di Pietraroia (Cretaceo inferiore, Bn). Unpublished thesis. Univ. Napoli "Federico II".
Dal Sasso and Signore, 1998. Exceptional soft tissue preservation in a theropod dinosaur from Italy. Nature. 392, 383-387.
Dal Sasso and Signore, 1998. Scipionyx samniticus (Saurischia, Theropoda): The first Italian dinosaur. Third European Workshop on Vertebrate Paleontology, Abstract: 23.
Dal Sasso and Signore, 1998. Scipionyx samniticus (Theropoda: Coelurosauria) and its exceptionally well preseved internal organs. Journal of Vertebrate Paleontology. 18(3), 37A.
Ruben, Dal Sasso, Geist, Hillenius, Jones and Signore, 1998. Pulmonary function and metabolic physiology of theropod dinosaurs. Science. 283, 514-516.
Galliano and Signore, 1999. Parental care in theropod dinosaurs: possible evidences from Scipionyx samniticus. Journal of Vertebrate Paleontology. 19(3), 46A.
Dal Sasso and Maganuco, 2009. Osteology, ontogenetic assessment, phylogeny, paleobiology, and soft-tissue anatomy of Scipionyx samniticus. Journal of Vertebrate Paleontology. 29(3), 84A.
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Klingler, 2015. Tracheal and esophageal displacement in the remarkably preserved compsognathid Scipionyx samniticus. Journal of Vertebrate Paleontology. Program and Abstracts 2015, 156.

Avepectora Paul, 2002
Definition- (majority of the distal edge of strongly anteriorly facing coracoids articulates with the anterior edge of a broad sternum at an angle of approximately 45-90 degrees from the midline as in Dromaeosaurus albertensis) (modified from Paul, 2002)

Maniraptoriformes Holtz, 1995
Definition- (Ornithomimus velox + Passer domesticus) (Maryanska et al., 2002; modified from Holtz, 1996)
Other definitions- (Ornithomimus edmontonicus + Passer domesticus) (Turner et al., 2012)
= Ornithomimoidea Marsh, 1890 sensu Zhao, 1983
Definition- (Ornithomimus velox + Shuvuuia deserti) (modified from Sereno, 1999)
= Protoavia Paul, 1988
= "Pneumatocrania" Holtz, 1992
= Bullatosauria Holtz, 1994
Definition- (Ornithomimus velox + Troodon formosus) (modified from Holtz, 1996)
= Maniraptoriformes sensu Turner et al., 2012
Definition- (Ornithomimus edmontonicus + Passer domesticus)
Comments- Zhao (1983) named Ornithomimoidea as a new superfamily of toothless Late Cretaceous coelurosaurs which excluded podokesaurids and coelurids. It was later used by Sereno (1999) as an arctometatarsalian clade containing ornithomimosaurs and alvarezsauroids, but not therizinosaurs.
Paul (1988) used Protoavia for a clade conatining what are today recognized as maniraptoriforms, which would also correspond to the modern definition of Coelurosauria in his topology. The name has not seen much use since, and is inadvisable due to the eponymous Protoavis being a chimaera of taxa less closely related to birds.
Holtz named "Pneumatocrania" in his 1992 thesis, to contain his Arctometatarsalia (caenagnathids, Avimimus, tyrannosaurids, troodontids and ornithomimosaurs) plus oviraptorids, though the name was left out of the 1994 published version. No subsequent analysis has recovered this group, which seems largely based on miscodings.
In the late 1980s and 1990s, a sister group relationship between ornithomimosaurs and troodontids was popular based on the bulbous cultriform process and dental anatomy of Pelecanimimus. This was formalized by Holtz (1994) as the clade Bullatosauria, defined by him in 1996. The discovery of basal troodontids like Sinovenator showed they were ancestrally bird-like, and bullatosaurs have not been supported by many studies since. While Bullatosauria predates Maniraptoriformes and was defined in the same publication, its limited concept has led to the widespread use of Maniraptoriformes for the now far more inclusive Ornithomimus+Troodon clade.
Maniraptoriformes defined- Unlike Turner et al. (2012), Maryanska et al. (2002) used Ornithomimus velox, the type species, as dictated by Phylocode. To illustrate why this is a good idea, consider the fact that Makovicky et al. (2004) synonymized O. edmontonicus with Dromiceiomimus. They listed the species as O. edmontonicus, but brevitertius has priority, so the species should be Ornithomimus brevitertius. Ornithomimus velox, on the other hand, remains valid. Makovicky et al. also considered the possibility O. brevitertius (as O. edmontonicus) may be a junior synonym of O. velox, and deCourten and Russell (1985) suggested it (again as O. edmontonicus) may warrant generic separation from O. velox if the specimen they describe is properly referred to the latter species. Then Turner et al.'s redefinitions of taxa eponymous with Ornithomimus would not be based on Ornithomimus. Sereno also used edmontonicus online and claims O. edmontonicus is the taxon represented by most analyses, not O. velox, but only the TWG matrix (from Ji et al., 2003 onward) and Kobayashi's work (Kobayashi and Lu, 2003; Kobayashi, 2004; Kobayashi and Barsbold, 2005; Kobayashi and Barsbold, 2005) have used Ornithomimus as an OTU, and the latter uses both species as references. So this is not a valid rationale.
References- Marsh, 1890. Description of new dinosaurian reptiles. The American Journal of Science, series 3. 39, 81-86.
Zhao, 1983. Phylogeny and evolutionary stages of Dinosauria. Acta Palaeontologica Polonica. 28(1-2), 295-306.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster. 464 pp.
Holtz, 1992. An unusual structure of the metatarsus of Theropoda (Archosauria: Dinosauria: Saurischia) of the Cretaceous. PhD thesis. Yale University. 347 pp.
Holtz, 1994. The phylogenetic position of the Tyrannosauridae: Implications for theropod systematics. Journal of Paleontology. 68(5), 1100-1117.
Holtz, 1996. Phylogenetic taxonomy of the Coelurosauria (Dinosauria: Theropoda). Journal of Paleontology. 70, 536-538.
Sereno, 1999. The evolution of dinosaurs. Science. 284, 2137-2147.
Turner, Makovicky and Norell, 2012. A review of dromaeosaurid systematics and paravian phylogeny. Bulletin of the American Museum of Natural History. 371, 1-206.
Zanno and Makovicky, 2011. Body mass evolution in omnivorous/herbivorous coelurosaurian dinosaurs. Journal of Vertebrate Paleontology. Program and Abstracts 2011, 219.

Aniksosaurus Martinez and Novas, 2006
= "Aniksosaurus" Martinez et al. vide Anonymous, 1997
A. darwini Martinez and Novas, 2006
= "Aniksosaurus darwini" unpublished (online)
Cenomanian, Late Cretaceous
Lower Bajo Barreal Formation, Chubut, Argentina
Holotype-
(MTD-PV 1/48) (~2 m) femur, tibia, incomplete fibula, partial metatarsal I, phalanx I-1 (16 mm), pedal ungual I (15 mm), metatarsal II (98 mm), phalanx II-1 (31 mm), phalanx II-2 (21 mm), metatarsal III (124 mm), phalanx III-1 (33 mm), phalanx III-2 (30 mm), metatarsal IV (105 mm), phalanx IV-1 (22 mm), phalanx IV-2 (16 mm), phalanx IV-3 (15 mm)
Paratypes- (MTD-PV 1/1) partial tibia
(MTD-PV 1/2) incomplete tibia
(MTD-PV 1/3) femur (247 mm)
(MTD-PV 1/4) metatarsal
(MTD-PV 1/5) partial ilium
(MTD-PV 1/6) fragmentary dorsal vertebra
(MTD-PV 1/7) vertebra
(MTD-PV 1/8) vertebra
(MTD-PV 1/9) vertebra
(MTD-PV 1/10) partial tibia
(MTD-PV 1/11) fragment
(MTD-PV 1/12) fragment
(MTD-PV 1/13) mid caudal vertebra (40 mm)
(MTD-PV 1/14) partial posterior cervical vertebra
(MTD-PV 1/15) vertebra
(MTD-PV 1/16) incomplete humerus (~130 mm)
(MTD-PV 1/17) incomplete ulna (~104 mm)
(MTD-PV 1/18) fragmentary dorsal vertebra
(MTD-PV 1/19) fragment
(MTD-PV 1/20) fragment
(MTD-PV 1/21) neural arch
(MTD-PV 1/22) incomplete tibia
(MTD-PV 1/23) incomplete femur
(MTD-PV 1/24) partial ilium
(MTD-PV 1/25) fragment
(MTD-PV 1/26) incomplete femur
(MTD-PV 1/27) incomplete femur
(MTD-PV 1/28) partial tibia
(MTD-PV 1/29) partial humerus
(MTD-PV 1/30) neural arch
(MTD-PV 1/31) fragment
(MTD-PV 1/32) proximal caudal vertebra (34 mm)
(MTD-PV 1/33) partial ilium
(MTD-PV 1/34) tibia (250 mm)
(MTD-PV 1/35) partial ilium
(MTD-PV 1/36) partial humerus
(MTD-PV 1/37) partial humerus
(MTD-PV 1/38) fragment
(MTD-PV 1/39) fragment
(MTD-PV 1/40) incomplete manual ungual I (44 mm)
(MTD-PV 1/41) partial ischium (~160 mm)
(MTD-PV 1/42) partial humerus
(MTD-PV 1/43) phalanx
(MTD-PV 1/44) partial tibia
(MTD-PV 1/45) metatarsal
(MTD-PV 1/46) neural arch
(MTD-PV 1/47) vertebra
(MTD-PV 1/52) vertebra
(MTD-PV coll.) fragmentary ribs
Diagnosis- (modified after Martinez and Novas, 2006) cervical vertebrae with the neural arch pedicels unusually deep (2.5 times the height of the centrum); wide neural canal on cervical vertebrae (also in Avimimus); transversely broad manual ungual I (also in Alvarezsauridae); caudolateral surface of proximal femur with strong depression and rugosities presumably for the attachment for M. ischiotrochantericus; metatarsal IV and its correspondent digit transversely narrow (also in Nqwebasaurus).
Comments- The holotype and paratypes represent at least five individuals, based on the number of right tibiae.
Discovered in 1995 and originally mentioned as a nomen nudum in an Argentinian newpaper article, with the discovery attributed to Martinez et al.. In 1997, the taxon was briefly described (but still not named) in an abstract by Martinez and Novas. Later (in 2001 or shortly before), the species name was leaked on a website which is now offline. Its formal description was finally published in 2006.
Martinez and Novas (2006) thought Aniksosaurus was most probably a non-maniraptoriform coelurosaur more derived than compsognathids, coelurids and Ornitholestes. There are some alvarezsauroid-like characters, including the large presacral neural canals, ventrally keeled proximal caudal centra, transversely broad manual ungual I, laterally expanded brevis shelf and distally projecting lateral femoral condyle. Dal Sasso and Maganuco (2011) found it to be a non-tyrannoraptoran coelurosaur using a TWG matrix, while Novas et al. (2012) found it to be the sister taxon of Maniraptoriformes.
References- Anonymous, 1997. [title] Pagina/12. [pp]
Martinez and Novas, 1997. A new tetanuraen (Dinosauria: Theropoda) from the Bajo Barreal Formation (Upper Cretaceous), Patagonia. Ameghiniana. 34(4), 538.
http://www.tierraaustral.com/informacion/nota_paleo.htm [now offline]
Martínez and Novas, 2006. Aniksosaurus darwini gen. et sp. nov., a new coelurosaurian theropod from the early Late Cretaceous of central Patagonia, Argentina. Revista del Museo Argentino de Ciencias Naturales. 8(2), 243-259.
Dal Sasso and Maganuco, 2011. Scipionyx samniticus (Theropoda: Compsognathidae) from the Lower Cretaceous of Italy: Osteology, ontogenetic assessment, phylogeny, soft tissue anatomy, taphonomy, and palaeobiology. Memorie della Società Italiana di Scienze Naturali e del Museo Civico di Storia Naturale di Milano. 281 pp.
Novas, Ezcurra, Agnolin, Pol and Ortiz, 2012. New Patagonian Cretaceous theropod sheds light about the early radiation of Coelurosauria. Revista del Museo Argentino de Ciencias Naturales. 14(1), 57-81.

Archaeornithoididae Elzanowski and Wellnhofer, 1992
Archaeornithoides
Elzanowski and Wellnhofer, 1992
A. deinosauriscus Elzanowski and Wellnhofer, 1992
Late Campanian, Late Cretaceous
Djadokhta Formation, Mongolia
Holotype
- (ZPAL MgD-II/29) (juvenile) (skull ~50 mm) maxillae, maxillary teeth, anterior jugal, possible vomer fragment, palatine, possible ectopterygoid fragment, possible parasphenoid, dentaries, dentary tooth
Comments- Discovered in 1965, this specimen was originally mentioned by Elzanowski (1983), then by Paul (1988) as a possible aublysodontine tyrannosaurid. Elzanowski and Wellnhofer (1992, 1993) originally suggested Archaeornithoides was most closely related to spinosaurids, troodontids and Lisboasaurus, and that these were all avialans. Spinosaurids are now known to be basal tetanurines while Lisboasaurus is a crocodiliform. However, in their 1993 article, they suggest Archaeornithoides is more closely related to birds than Lisboasaurus, confusing matters slightly. They rejected a troodontid relationship based on the broad maxillary palatal shelf and unserrated teeth, but Currie (2000) noted this is invalid as Troodon has the former, while Clark et al. (2002) noted it's invalid because Byronosaurus has both features. Indeed, both characters are now recognized as primitive for troodontids, and maniraptoriforms in general. Currie further suggested that Archaeornithoides may be a juvenile Saurornithoides mongoliensis, while Averianov and Sues (2007) suggested it could be a juvenile Byronosaurus. Besides the latter, there are other Djadokhta troodontids with serrationless teeth- Gobivenator, IGM 100/1128 and IGM 100/1323, but Archaeornithoides doesn't show a strong resemblence to these or other paravians. Although Averianov and Sues stated that Chiappe et al. (1996) proposed Archaeornithoides was a juvenile dromaeosaurid, the latter authors actually only state they believe the lack of serrations to be a juvenile character of birdlike theropods, as they mistakenly assigned IGM 100/972 and 100/974 to Dromaeosauridae at the time. Archaeornithoides is here retained as Maniraptoriformes incertae sedis, based on the serrationless teeth.
References- Elzanowski, 1983. Birds in Cretaceous Ecosystems. Acta Palaeontologia Polonica. 28(1-2), 75-92.
Paul, 1988. Predatory Dinosaurs of the World. Simon and Schuster Co., New York. 464 pp.
Elzanowski and Wellnhofer, 1992. A new link between theropods and birds from the Cretaceous of Mongolia. Nature. 359, 821-823.
Elzanowski and Wellnhofer, 1993. Skull of Archaeornithoides from the Upper Cretaceous of Mongolia. American Journal of Science. 293-A, 235-252.
Chiappe, Norell and Clark, 1996. Phylogenetic position of Mononykus (Aves: Alvarezsauridae) from the Late Cretaceous of the Gobi Desert. Memoirs of the Queensland Museum. 39(3), 557-582.
Currie, 2000. Theropod dinosaurs from the Cretaceous of Mongolia. in Benton, Shishkin, Unwin and Kurochkin (eds.). The Age of Dinosaurs in Russia and Mongolia. 434-455.
Clark, Norell and Makovicky, 2002. Cladistic approaches to the relationships of birds to other theropod dinosaurs. in Chiappe and Witmer (eds.). Mesozoic Birds: Above the Heads of Dinosaurs. University of California Press. 31-64.
Averianov and Sues, 2007. A new troodontid (Dinosauria: Theropoda) from the Cenomanian of Uzbekistan, with a review of troodontid records from the territories of the former Soviet Union. Journal of Vertebrate Paleontology. 27(1), 87-98.

Fukuivenator Azuma, Xu, Shibata, Kawabe, Miyata and Imai, 2016
F. paradoxus Azuma, Xu, Shibata, Kawabe, Miyata and Imai, 2016
Barremian, Early Cretaceous
Kitadani Formation of the Akaiwa Subgroup of the Tetori Group, Japan

Holotype- (FPDM-V8461) (~2.5 m, ~25 kg subadult) partial skull (~234 mm), dentary fragment, three teeth, ten? cervical vertebrae, several cervical ribs, ten dorsal vertebrae, dorsal ribs, gastralia, four fused sacral centra, incomplete posterior sacral vertebra, thirty caudal vertebrae, chevrons, scapulae (132, 128 mm), coracoids, incomplete humeri (~134 mm), radius (~106 mm), incomplete ulna (~123 mm), metacarpals I (32, 31 mm), phalanx I-1 (47 mm), manual ungual I (~55 mm), metacarpal II (63 mm), phalanx II-1 (42 mm), phalanges II-2 (47, 457 mm), manual ungual II (~69 mm), metacarpal III (51 mm), phalanx III-2 (17 mm), phalanx III-3 (36 mm), partial pubes, partial ischium (~164 mm), femora (187 mm), tibiae (~227 mm), fibula, astragalus, metatarsal I (30 mm), phalanges I-1 (20, 18 mm), metatarsal II (110 mm), phalanx II-1 (~30 mm), phalanx II-2 (~27 mm), partial pedal ungual II, metatarsal III (116 mm), phalanges III-1 (~30 mm), phalanx III-2 (~23 mm), phalanges III-3 (~23 mm), pedal ungual III (~28 mm), metatarsal IV (103 mm), phalanges IV-1 (21mm), phalanx IV-2 (~18 mm), phalanges IV-3 (~18 mm), phalanges IV-4 (~17 mm), pedal ungual IV (~25 mm), metatarsal V (32 mm)
Diagnosis- (after Azuma et al., 2016) large external naris; large oval lacrimal pneumatic recess posterodorsal to maxillary fenestra on antorbital fossa medial wall; lacrimal with distinct groove on lateral surface of anterior process; lacrimal with ridge on lateral surface of ventral process; elongate tubercle on posterior surface of basal tuber; highly heterodont dentition featuring robust unserrated teeth including small spatulate anterior teeth, large and posteriorly curved middle teeth, and small and nearly symmetrical posterior teeth; cervical vertebrae with complex lamina system surrounding neural canal resulting in deep and wide grooves for interspinous ligaments and additional deep sockets; anterior cervical vertebrae with interprezygapophyseal, postzygadiapophyseal, prezygadiapophyseal, and interpostzygapophyseal laminae connecting to each other to form extensive platform; anterior and mid cervical vertebrae with transversely bifid neural spines; dorsal, sacral and proximal caudal vertebrae with strongly laterally curved hyposphene and centropostzygapophyseal laminae that, together with postzygapophyseal facet, form socket-like structure for receiving the prezygapophyses; caudal zygapophyseal facets expanded to be substantially wider than zygapophyseal processes; mid caudal vertebrae with transversely and distally bifid prezygapophyses (also in eudromaeosaurs).
Other diagnoses- Azuma et al. (2016) listed "large premaxillary [sic] fenestra subequal in size to maxillary fenestra", but this is untrue as the photo indicates the promaxikllary fenestra is ~43% the length of the maxillary fenestra, though both have some broken margins. They also list "postorbital frontal process with T-shaped cross section and laterally-flanged squamosal process", but does the first part indicate the postorbital process of the frontal or the frontal (i.e. anterior) process of the postorbital? Similarly, the squamosal process of the postorbital has no obvious flange in the figure. They list "dorsoventrally bifurcated sacral ribs" as being diagnostic, but this is true in e.g. the middle four sacrals of ornithomimosaurs (e.g. Deinocheirus, Gallimimus) and Suzhousaurus and the fourth sacral of Zuolong.
Comments- Discovered in 2007, and initially announced as a dromaeosaurid (Anonymous, 2009; Shibata and Azuma, 2010), this was later described by Azuma et al. (2016) as a new taxon of basal coelurosaur.
Contra Azuma et al., the posterolateral process of the premaxilla is broken so (barring the presence of some really well preserved sutures on the maxilla) it cannot be determined if it extends posterior to the external naris like in dromaeosaurids. The text claims the lacrimal is T-shaped, but the figure shows the posterodorsal process is unpreserved, and the character is coded unknown in their matrix. Although the authors claim the frontals have dromaeosaurid-like anterolateral notches and sigmoid supratemporal fossa edges, neither is visible in the figured left element. The fenestra labeled "IX?" in figure 4 is probably the otic fenestra, and the basipterygoid processes are labeled as laterosphenoids twice in that figure. The supposed medial eustachian foramina are the paired foramina of the basisphenoid recess. The description states "ten cervical vertebrae are preserved, missing at least the atlas" but the materials list only says "eight cervical vertebrae" are present. They say "likely pleurocoels are present in all dorsal vertebrae in the form of longitudinal fossae on the lateral surfaces of centra", but only foramina are considered pleurocoels by most authors, including the TWG team who coded the matrix used. Thus this character is incorrectly coded as dromaeosaurid-like. Azuma et al. also state "the parapophyses of the dorsal vertebrae including the posterior ones are stalk-like as in derived alvarezsauroids and dromaeosaurids, though they are not as prominent as in the latter groups", but they're actually short. The authors state "the [sacral] zygapophyses are fused to each other to form a platform lateral to the neural spines, a feature also known in dromaeosaurids", but the figured sacrum lacks neural arches in the first four vertebrae. They also say "the most unusual feature is that the prezygapophyses of the middle caudal vertebrae are distally bifid (Fig. 6i), which has not been reported in any dinosaurs", but this is a standard dromaeosaurid character reported in e.g. Deinonychus and Velociraptor. Contra the text and coding, the coracoid is proximodistally shallow, unlike pennaraptorans. Figure 7's caption is incorrect and the humeri shown are a right in anterior view and left in lateral view, not the left "in lateral (left) and posterior (right) view." Also, the femur in figure 7f is in medial and posterior views, not lateral and posterior. In figure 7h, the pedal phalanges are placed incorrectly, with II-1 and II-2 switched with IV-1 and IV-2, which explains why digit II looks so short. "IV-1" has the standard shape of II-1 with the medial side highly concave (so it actually belongs on the other pes), plus ?no terrestrial Mesozoic theropod has IV-1 longer than II-1. The measurement table is partly inconsistent as it has IV-2 subequal to IV-3 and IV-4 in length, unlike the figure. Thus the measurements listed here are measured from their figure 7, scaled to metatarsal V's listed length. Contra the text and coding, I don't think the second pedal digit looks particularly deinonychosaurian- Tanycolagreus has the same dorsally prominent distal articular surface on II-1, and the ungual in Ornitholestes is comparatively larger.
Azuma et al. add Fukuivenator to Turner et al.'s TWG matrix and recover it as a coelurosaur in a polytomy with compsognathids, Ornitholestes, ornithomimosaurs and maniraptorans, contra their statements that they found the taxon to be a basal maniraptoran. Experimentation shows the polytomy exists regardless of Fukuivenator's presence in the tree. Azuma et al. find that constraining the genus to be a paravian, deinonychosaur or dromaeosaurid only takes three more steps. As indicated above, many of the supposedly dromaeosaurid-like characters are incorrectly coded or at least not demonsrated though. Adding Fukuivenator to my TWG supermatrix results in it being in a polytomy with Ornithomimosauria and Maniraptora. While there are a few characters shared with dromaeosaurids (fossa around maxillary fenestra; short ventral postorbital process; squamosal shelf over its ventral process; twisted paroccipital processes; reduced crista prootica; bifurcated caudal prezygapophyses), the vast majority of characters are too plesiomorphic for a paravian.
References- Anonymous, 2009. [3rd new species? Small-sized meat diet dinosaur to restoration Fukui] msn.com 3/18/2009 http://sankei.jp.msn.com/science/science/090318/scn0903182113002-n1.htm [offline]
Shibata and Azuma, 2010. New dinosaurs from the Lower Cretaceous Kitadani Formation of the Tetori Group, Fukui, Central Japan. Journal of Vertebrate Paleontology. Program and Abstracts 2010, 163A-164A.
Azuma, Xu, Shibata, Kawabe, Miyata and Imai, 2016. A bizarre theropod from the Early Cretaceous of Japan highlighting mosaic evolution among coelurosaurians. Scientific Reports. 6, 20478.

unnamed Maniraptoriformes (Torices, 2002)
Late Campanian, Late Cretaceous
Tremp Formation, Spain

Material- (DPM-VIR4-T5) tooth (2.9x1.3x.9 mm) (Torices, 2002)
Late Campanian-Early Maastrichtian, Late Cretaceous
Tremp Formation, Spain

(DPM-MON-T3) tooth (2.8x1.6x.7 mm) (Torices, 2002)
(DPM-MON-T6) tooth (3.3x1.4x1.2 mm) (Torices, 2002)
Late Maastrichtian, Late Cretaceous
Tremp Formation, Spain

(MPZ98/79) tooth (1.9x1.9x1 mm) (Torices, Currie, Canudo and Pereda-Suberbiola, 2015)
(MPZ98/80) tooth (2.6x1.8x.9 mm) (Torices, Currie, Canudo and Pereda-Suberbiola, 2015)
(MPZ98/81) tooth (1.9x1.4x.7 mm) (Torices, Currie, Canudo and Pereda-Suberbiola, 2015)
(MPZ98/82) tooth (2.4x1.2x.7 mm) (Torices, Currie, Canudo and Pereda-Suberbiola, 2015)
Comments- These are recurved and unserrated but lack a constricted base.
References- Torices, 2002. Los dinosaurios terópodos del Cretácico Superior de la Cuenca de Tremp (Pirineos Sur-Centrales, Lleida). Coloquios de Paleontología. 53, 139-146.
Torices, Currie, Canudo and Pereda-Suberbiola, 2015. Theropod dinosaurs from the Upper Cretaceous of the South Pyrenees Basin of Spain. Acta Palaeontologica Polonica. 60(3), 611-626.

unnamed Maniraptoriformes (Knoll and Ruiz-Omenaca, 2009)
Beriassian, Early Cretaceous
Ksar Metlili Formation, Morocco
Material
- (MNHN SA 2004/2B) tooth (2.6x1.4x.9 mm)
(MNHN SA 2004/4C) tooth (3.7x2.3x1.1 mm)
(MNHN SA A0) tooth (1.7x.9x.6 mm)
Comments- These are referred to Maniraptoriformes as they lack serrations.
References- Knoll and Ruiz-Omenaca, 2005. Theropod teeth from the Berriasian of Anoual (Morocco). Journal of Vertebrate Paleontology. 25(3), 78A.
Knoll and Ruiz-Omenaca, 2009. Theropod teeth from the basalmost Cretaceous of Anoual (Morocco) and their palaeobiogeographical significance. Geological Magazine. 146(4), 602-616.

undescribed maniraptoriform (Company, Torices, Pereda-Suberbiola and Ruiz-Omenaca, 2009)
Late Campanian-Early Maastrichtian, Late Cretaceous
Sierra Perenchiza Formation, Valencia, Spain
Material
- teeth (~6 mm)
Comments- Described as distally recurved, strongly compressed labiolingually, and lacking serrations.
Reference- Company, Torices, Pereda-Suberbiola and Ruiz-Omenaca, 2009. Theropod teeth from the Late Cretaceous of Chera (Valencia, Eastern Spain). Journal of Vertebrate Paleontology. 29(3), 81A.

unnamed maniraptoriform (Williamson and Brusatte, 2014)
Late Campanian, Late Cretaceous
Fossil Forest Member of the Fruitland Formation, New Mexico, US

Material- (NMMNH P-38424) tooth (?x.5x? mm)
Comments- This is slightly labiolingually compressed, strongly recurved, lacks a basal constriction, and has weak carinae without serrations.
Reference- Williamson and Brusatte, 2014. Small theropod teeth from the Late Cretaceous of the San Juan Basin, Northwestern New Mexico and their implications for understanding Latest Cretaceous dinosaur evolution. PLoS ONE. 9(4), e93190.

unnamed Maniraptoriformes (Torices, Currie, Canudo and Pereda-Suberbiola, 2015)
Late Campanian-Early Maastrichtian, Late Cretaceous
Sedano Formation, Spain

Material- (MCNA 14523) tooth (2.8x3.5x1.6 mm)
(MCNA 14524) tooth (2.8x2.2x1.6 mm)
(MCNA 14525) tooth (1.5x1.2x.7 mm)
(MCNA 14526) tooth (3.9x4.2x1.4 mm)
(MCNA 14527) tooth (1.5x1.1x.8 mm)
(MCNA 14528) tooth (4.1x2.8x1.2 mm)
(MCNA 14529) tooth (4.8x2.6x1.3 mm)
(MCNA 14530) tooth (4.5x1.8x1.2 mm)
(MCNA 14531) tooth (3.1x2.1x1.1 mm)
(MCNA 14532) tooth (2.4x1.1x.4 mm)
(MCNA 14533) tooth (1.4x.8x.6 mm)
(MCNA 14534) tooth (1.7x1.6x.8 mm)
(MCNA 14535) tooth (1.5x.9x.6 mm)
(MCNA 14536) tooth (2.1x.6x.5 mm)
(MCNA 14537) tooth (1.6x1.4x.7 mm)
(MCNA 14538) tooth (2.8x1.2x.8 mm)
(MCNA 14539) tooth (2x1.3x.8 mm)
(MCNA 14540) tooth (1.8x1.2x.6 mm)
(MCNA 14541) tooth (2.4x1.8x.9 mm)
(MCNA 14542) tooth (1.7x1.3x.6 mm)
(MCNA 14543) tooth (1.4x1.2x.5 mm)
(MCNA 14544) tooth (3.1x1.8x1.1 mm)
(MCNA 14545) tooth (8.1x4.3x2.3 mm)
(MCNA 14546) tooth (5.8x1.8x1.5 mm)
(MCNA 14547) tooth (8.1x3.4x1.9 mm)
(MCNA 14548) tooth (2.6x2.1x1.7 mm)
(MCNA 14549) tooth (2.4x1.5x1 mm)
(MCNA 14550) tooth (5.3x2.5x1.9 mm)
(MCNA 14551) tooth (5.5x1.8x1.2 mm)
(MCNA 14552) tooth (4.3x1.9x1.5 mm)
(MCNA 14553) tooth (4x1.6x1.1 mm)
(MCNA 14554) tooth (2.9x1.9x1.4 mm)
(MCNA 14555) tooth (3.5x1.9x1.2 mm)
(MCNA 14556) tooth (3.8x1.5x1.2 mm)
(MCNA 14557) tooth (3.2x1.4x.9 mm)
(MCNA 14558) tooth (1.8x1.4x1.1 mm)
(MCNA 14559) tooth (2.4x1.2x.8 mm)
(MCNA 14560) tooth (2.6x1.8x1.2 mm)
(MCNA 14561) tooth (1.6xx1.1x.7 mm)
(MCNA 14562) tooth (1.9x1.3x.9 mm)
(MCNA 14563) tooth (1.8x1.1x.7 mm)
(MCNA 14564) tooth (2.3x.9x.6 mm)
(MCNA 14565) tooth (1.6x.8x.5 mm)
Comments- These are recurved and unserrated but lack a constricted base.
Reference- Torices, Currie, Canudo and Pereda-Suberbiola, 2015. Theropod dinosaurs from the Upper Cretaceous of the South Pyrenees Basin of Spain. Acta Palaeontologica Polonica. 60(3), 611-626.

Arctometatarsalia

Maniraptora Gauthier, 1986
Definition- (Passer domesticus <- Ornithomimus velox) (Maryanska et al., 2002; modified from Padian et al., 1997; modified from Gauthier, 1986)
Other definitions- (bowed ulna, semilunate carpal, slender metacarpal III) (Holtz, 1994)
(Dromaeosaurus albertensis + Passer domesticus) (modified from Holtz and Padian, 1995)
(Oviraptor philoceratops + Passer domesticus) (modified from Sereno, 1998)
(Ornitholestes hermanni + Archaeopteryx lithographica) (modified from Choiniere, Xu, Clark, Forster, Guo and Han, 2010)
(Passer domesticus <- Ornithomimus edmontonicus) (Turner et al., 2012)
= Therizinosauridae sensu Sereno, 1998
Definition- (Erlikosaurus andrewsi <- Ornithomimus velox) (modified)
= Dromavialae Ji and Ji, 2001
= Enigmosauria Naish, Hutt and Martill, 2001
= Maniraptora sensu Turner et al., 2012
Definition- (Passer domesticus <- Ornithomimus edmontonicus)
Comments- The topology of Maniraptora is currently controversial. While late 90s and early 2000s analyses often found a therizinosaur-oviraptorosaur pairing, Falcarius has contributed to a more basal position for therizinosaurs. Among recent analyses, Senter et al. (2012) and Foth et al. (2014) have alvarezsauroids basal to therizinosauroids and pennaraptorans, Lee et al. (2014) pair alvarezsauroids and therizinosaurs, and Brusatte et al. (2014) have those two groups in a trichotomy with Pennaraptora.
Maniraptora defined- See the comments under Metornithes for why Turner et al.'s (2012) definition of Maniraptora using Ornithomimus edmontonicus is inferior to Maryanska et al.'s (2002) using O. velox.
Ji and Ji (2001) erected the taxon Dromavialae in a cladogram for a maniraptoran group including Protarchaeopteryx, Archaeopteryx and pygostylians, but not Oviraptor, Troodon or dromaeosaurids. The text suggests Caudipteryx would be included as well. Dromavialae is invalid content-wise, since Protarchaeopteryx and Caudipteryx are now recognized as oviraptorosaurs, which are agreed by most authors to be further from birds than dromaeosaurids are. The diagnostic feature of the clade is listed as "real wings with symmetrical feathers of modern concept." This is now known to be true in oviraptorosaurs, troodontids and dromaeosaurids as well, meaning Dromavialae could be viewed as a junior synonym of Maniraptora.
Naish et al. (2001) named Enigmosauria in a cladogram for a maniraptoran clade containing therizinosauroids and oviraptorosaurs, but not paravians. It was not defined or mentioned in the text, as the authors had only accidentally left in in the figure after they decided not to formally name the clade in that publication.
References- Naish, Hutt and Martill, 2001. Saurichian dinosaurs 2: theropods. in Martill and Naish (eds). Dinosaurs of the Isle of Wight. The Palaeontological Association. 242-309.
Tsuihiji, 2004. The neck of non-avian maniraptorans: How bird-like was the cervical musculature of the "bird-like" theropods? Journal of Vertebrate Paleontology. 24(3), 21A-22A.
Codd and Manning, 2007. Uncinate processes: A unique synapomorphy for maniraptoran and avian theropods? Journal of Vertebrate Paleontology. 27(3), 60A.
Dececchi and Larsson, 2008. Critical analysis of arboreality in maniraptoran theropods. Journal of Vertebrate Paleontology. 28(3), 70A.
Dececchi, Harrison and Larsson, 2009. Up in arms: An analysis of evolutionary trends within the maniraptoran appendicular skeleton using allometric and Baysian phylogenetic approaches. Journal of Vertebrate Paleontology. 29(3), 86A.
Senter, Kirkland, DeBlieux, Madsen and Toth, 2012. New dromaeosaurids (Dinosauria: Theropoda) from the Lower Cretaceous of Utah, and the evolution of the dromaeosaurid tail. PLoS ONE. 7(5), e36790.
Turner, Makovicky and Norell, 2012. A review of dromaeosaurid systematics and paravian phylogeny. Bulletin of the American Museum of Natural History. 371, 1-206.
Balanoff, 2014. Archaeopteryx and the evolution of the paravian brain. Journal of Vertebrate Paleontology. Program and Abstracts 2014, 84.
Brusatte, Lloyd, Wang and Norell, 2014. Gradual assembly of avian body plan culminated in rapid rates of evolution across the dinosaur-bird transition. Current Biology. 24(20), 2386-2392.
Foth, Tischlinger and Rauhut, 2014. New specimen of Archaeopteryx provides insights into the evolution of pennaceous feathers. Nature. 511, 79-82.
Lee, Cau, Naish and Dyke, 2014. Sustained miniaturization and anatomical innovation in the dinosaurian ancestors of birds. Science. 345(6196), 562-566.

undescribed maniraptoran (Nessov, 1995)
Late Santonian-Early Campanian, Late Cretaceous
Bostobe Formation, Kazakhstan
Material
- astragalocalcaneum
Comments- Nessov (1995) referred this to Troodontidae based on the fused tarsus, but as pointed out by Averianov and Sues (2007) this is also known in other maniraptorans (e.g. alvarezsaurids, Avimimus, Microraptor).
References- Nessov, 1995. Dinosaurs of Northern Eurasia: new data about assemblages, ecology and paleobiogeography. Scientific Research Institute of the Earth's Crust, St. Petersburg State University, St. Petersburg, Russia: 156 pp. + 14 pl. [in Russian with short English, German, and French abstracts].
Averianov and Sues, 2007. A new troodontid (Dinosauria: Theropoda) from the Cenomanian of Uzbekistan, with a review of troodontid records from the territories of the former Soviet Union. Journal of Vertebrate Paleontology. 27(1), 87-98.

Ilerdopteryx Lacasa-Ruiz, 1985
I. viai Lacasa-Ruiz, 1985
Late Berriasian-Early Barremian, Early Cretaceous
La Pedrera de Rubies Lithographic Limestones Formation, Spain
Syntypes
- (LP-715 IEI) body feather (27 mm)
(LP-1327 IEI) body feather
(LP IEI coll.) seven body feathers (20-30 mm)
Comments- These feathers have barbules, so are probably from maniraptorans. They may be from Noguerornis or the unnamed La Pedrera juvenile enantiornithine taxon which are from the same locality. Whether all of the nine feathers are from the same taxon is unknown, and Ilerdopteryx is indeterminate since feathers are undiagnostic for Mesozoic theropods.
References- Lacasa-Ruiz, 1985. Nota sobre las plumas fosiles del yacimiento eocretacico de 'La Pedrera-La Cabrua' en la sierra del Montsec. (Prov. Lleida, Espana). Ilerda. 46, 227-238.
Lacasa-Ruiz, 1986. Nota preliminar sobre el hallazgo de restos keos de un ave fosil en el yacimiento neocomiense del Montsec. (Prov .Lerida, Espafia). Ilerdu. 47, 203-206.
Lacasa-Ruiz, 1989. An Early Cretaceous fossil bird from Montsec Mountain (Lleida, Spain). Terra Nova. 1(1), 45-46.
Kellner, 2002. A review of avian Mesozoic fossil feathers. pp. 389-404. in Chiappe and Witmer, (eds.). Mesozoic Birds – Above the Heads of Dinosaurs. University of California Press, Berkeley, Los Angeles, London.

Martharaptor Senter, Kirkland and DeBlieux, 2012
M. greenriverensis Senter, Kirkland and DeBlieux, 2012
Barremian, Early Cretaceous
Yellow Cat Member of Cedar Mountain Formation, Utah, US

Holotype- (UMNH VP 21400) cervical neural arch fragment, first dorsal centrum (62.1 mm), incomplete distal caudal centrum, incomplete scapula, distal radius, partial ulna, distal metacarpal I, proximal phalanx I-1, distal phalanx I-1, manual unguals I (one fragmentary), distal phalanx II-1(?), distal phalanx II-2, manual unguals II, distal phalanx III-?, manual unguals III, distal pubis(?), proximal ischium, metatarsal I, incomplete pedal ungual I, proximal metatarsal II, distal metatarsal II, proximal metatarsal III, distal metatarsal IV, incomplete phalanx IV-?, three proximal phalanges II/IV-1, two proximal pedal phalanges, three distal pedal phalanges, proximal pedal ungual, fragments
Diagnosis- (after Senter et al., 2012) cervical prezygapophyses not flexed; anterior dorsal vertebrae with hypapophyses and a single pair of pleurocoels; distal end of scapula expanded; manual unguals without proximodorsal lips and with prominent flexor tubercles and strong curvature; manual unguals in which total length perpendicular to the articular facet is subequal to total height parallel to the articular facet; ungual of manual digit III nearly as large as that of digit II; proximal end of ischium laterally compressed; metatarsal I proximally attenuated and distally reduced in transverse width relative to the other metatarsals; all metatarsals distally non-ginglymoid; fourth metatarsal distally attenuated immediately proximal to condyles; pedal unguals laterally compressed and strongly curved; first pedal ungual smaller than the others.
Comments- Senter et al. (2012) found this to be a basal therizinosauroid between Beipiaosaurus and Alxasaurus using his version of the TWG matrix. However, Cau (online, 2012) found it to be a paravian outside Deinonychosauria and Ornithurae sensu Gauthier in his unpublished analysis. It is thus placed as Maniraptora incertae sedis here pending further study.
References- Senter, Kirkland, Deblieux and Madsen, 2010. Three new theropods from the Cedar Mountain Formation (Lower Cretaceous) of Utah. Journal of Vertebrate Paleontology. Program and Abstracts 2010, 162A.
Cau, 2012 online. http://theropoda.blogspot.com/2012/08/lenigmatico-martharaptor-ed-il-famelico.html
Senter, Kirkland and DeBlieux, 2012. Martharaptor greenriverensis, a new theropod dinosaur from the Lower Cretaceous of Utah. PLoS ONE. 7(8), e43911.

Metornithes Perle, Norell, Chiappe and Clark, 1993
Definition-
(Mononykus olecranus + Passer domesticus) (modified from Chiappe, 1995)
Comments- Metornithes was named by Perle et al. (1993) for a clade containing Mononykus and Ornithothoraces, but not Archaeopteryx and non-bird theropods. Chiappe (1995) was the first author to define the clade, making it a node containing Mononykus and Neornithes. Under the current topology it's a maniraptoran clade that may contain therizinosaurs, though if alvarezsaurs are arctometatarsalians it will be a senior synonym of Maniraptoriformes.
References- Perle, Norell, Chiappe and Clark, 1993. Flightless bird from the Cretaceous of Mongolia. Nature. 362, 623-626.
Chiappe, 1995. The first 85 million years of avian evolution. Nature. 378, 349-355.

Bradycnemidae Harrison and Walker, 1975
Bradycneme Harrison and Walker, 1975
B. draculae Harrison and Walker, 1975
Late Maastrichtian, Late Cretaceous
Sinpetru Beds, Romania

Holotype- (BMNH A1588) distal tibiotarsus (37.8 mm wide)
Comments- The holotype was originally referred to Elopteryx (Lambrecht, 1929, 1933), then considered a pelecaniform. Harrison and Walker (1975) later separated the material and named Bradycneme as a new taxon of strigiform. Later authors agreed Bradycneme was a non-avian theropod, beginning with Brodkorb (1978). Martin (1983) suggested it was ornithomimid. Paul (1988) and Osmolska and Barsbold (1990) suggested it was troodontid. Le Loeuff et al. (1992) suggested it was synonymous with Elopteryx, which they placed in the Dromaeosauridae. Csiki and Grigorescu (1998) made Heptasteornis a junior synonym and suggested it was a non-maniraptoran tetanurine. Naish and Dyke (2004) noted the craniocaudally compressed rectangular shape in distal view was similar to maniraptorans, while the astragalar ascending process lacks the alvarezsaurid notched medial margin seen in Heptasteornis. They thus assigned Bradycneme to Maniraptora indet..
References- Lambrecht, 1929. Mesozoische und tertiare Vogelreste aus Siebenburgen. In Csiki (ed.). Xe Congres International de Zoologie. 1262-1275.
Lambrecht, 1933. Handbuch der Palaeornithologie. Gebrüder Borntraeger. 1024 pp.
Harrison and Walker, 1975. The Bradycnemidae, a new family of owls from the Upper Cretaceous of Romania. Palaeontology. 18(3), 563-570.
Brodkorb, 1978. Catalogue of fossil birds. Part 5, Passeriformes. Bulletin of the Florida State Museum, Biol. Sci. 23, 139-228.
Martin, 1983. The origin and early radiation of birds. In Brush and Clark, (eds.). Perspectives in Ornithology. 291-338.
Paul, 1988. Predatory Dinosaurs of the World. Simon & Schuster: New York 464 pp.
Osmolska and Barsbold, 1990. Troodontidae. 259-268. in Weishampel, Dodson and Osmólska (eds.). The Dinosauria. University of California Press, Berkley, Los Angeles, Oxford. xvi-733.
Le Loeuff, Buffetaut, Mechin and Mechin-Salessy, 1992. The first record of dromaeosaurid dinosaur (Saurichia, Theropoda) in the Maastrichtian of Southern Europe: palaeobiogeographical implications. Bulletin de la Societe Geologique de France. 163(3), 337-343.
Csiki and Grigorescu, 1998. Small Theropods from the Late Cretaceous of the Hateg Basin (Western Romania) - an unexpected diversity at the top of the food chain. Oryctos. 1, 87-104.
Naish and Dyke, 2004. Heptasteornis was no ornithomimid, troodontid, dromaeosaurid or owl: the first alvarezsaurid (Dinosauria: Theropoda) from Europe. Neus Jahrbuch für Geologie und Paläontologie. 7, 385-401.

Kol Turner, Nesbitt and Norell, 2009
K. ghuva Turner, Nesbitt and Norell, 2009
Late Campanian, Late Cretaceous
Djadokhta Formation, Mongolia
Holotype-
(IGM 100/2011) distal tarsal, metatarsal I (17 mm), phalanx I-1 (21.7 mm), pedal ungual I, (metatarsus 225 mm) metatarsal II (203.5 mm), phalanx II-1 (44 mm), phalanx II-2 (29.9 mm), pedal ungual II, metatarsal III (109 mm), phalanx III-1 (43.2 mm), phalanx III-2 (31.2 mm), phalanx III-3 (24 mm), pedal ungual III (24.1 mm on curve), metatarsal IV (208.1 mm), phalanx IV-1 (23 mm), phalanx IV-2 (20.3 mm), phalanx IV-3 (16 mm), phalanx IV-4 (11.2 mm), pedal ungual IV (20 mm on curve), partial metatarsal V (~63 mm)
Diagnosis- (after Turner et al., 2009) robust flexor tubercles on pedal unguals (also in Patagonykus).
Other diagnoses- Turner et al. also listed metatarsal III not contacting the tarsus as a diagnostic character, but this is seen in all alvarezsaurids more derived than Patagonykus. Contra their statement, metatarsal III does not extend over halfway up the metatarsus in Kol, extending 44% instead. This is not higher up than other derived alvarezsaurids, as the ratio in Shuvuuia varies between 33% (IGM 100/1276) and 47% (IGM 100/975), though it is more than in Parvicursor and Ceratonykus. The short metatarsal II (98% of metatarsal IV length) is found in Parvicursor remotus and Ceratonykus as well, but not in Mononykus, Shuvuuia or IGM 100/99. Extensor grooves on digit IV phalanges are also present in other alvarezsaurids where known. The robust pedal ungual flexor tubercles are matched by Patagonykus, which is also large, so may be size related. Contra their diagnosis, the accessory dorsomedial flange on metatarsal II they list is seemingly the dorsolateral flange on metatarsal IV, which is mentioned in the text as being absent in contrast to Mononykus and Shuvuuia. This is also present in Parvicursor and IGM 100/99, but absent in Alvarezsaurus, so is a symplesiomorphy.
Comments- The phylogenetic placement of Kol within arctometatarsal alvarezsaurids is uncertain. It is similar to North American alvarezsaurids in having a sharp plantar ridge on metatarsal III and having a plesiomorphically unexpanded dorsal surface, but this surface is concave as in parvicursorines. Unlike the Ceratonykus+Mononykus clade, pedal phalanges II-1 and IV-1 are not subequal in length. The lack of a dorsolateral flange on distal metatarsal IV may indicate it is more primitive than parvicursorines, as might the large pedal ungual flexor tubercles.
Agnolin et al. (2012) have recently suggested Kol is actually a caenagnathid (related to Avimimus due to its hyperarctometatarsus), based on the prominently developed pedal flexor tubercles (plesiomorphic, also in Patagonykus), metatarsal II shorter than metatarsals III and IV (plesiomorphic, also in Alvarezsaurus, Linhenykus, Parvicursor and Ceratonykus; variable in Albinykus), lack of a dorsomedial flange on the medial side (plesiomorphic, also in Alvarezsaurus), and metatarsal III that extends more proximally than one-half of the total metatarsal length (plesiomorphic, also in Alvarezsaurus, Achillesaurus and Patagonykus). As can be seen, these characters might make Kol a comparatively basal alvarezsaurid, but they do not support an oviraptorosaurian identity any better. Agnolin et al. are correct however in noting that Turner et al. (2009) did not sufficiently support its placement in Alvarezsauridae or properly reject its similarity to Avimimus. It is thus placed as Metornithes incertae sedis here.
References- Turner, Nesbitt and Norell, 2009. A large alvarezsaurid from the Late Cretaceous of Mongolia. American Museum Novitates. 3648, 14 pp.
Agnolin, Powell, Novas and Kundrat, 2012. New alvarezsaurid (Dinosauria, Theropoda) from uppermost Cretaceous of north-western Patagonia with associated eggs. Cretaceous Research. 35, 33-56.

Alvarezsauroidea

Therizinosauria

Pennaraptora Foth, Tischlinger and Rauhut, 2014
Definition-
(Oviraptor philoceratops + Deinonychus antirrhopus + Passer domesticus) (Foth et al., 2014)
= Chuniaoae Ji, Currie, Norell and Ji, 1998
Definition- (Caudipteryx zoui + Passer domesticus) (modified from Martyniuk, 2012)
= Maniraptora sensu Sereno, 1998
Definition- (Oviraptor philoceratops + Passer domesticus)
= Aviremigia Gauthier and de Quieroz, 2001 vide Martyniuk, 2012
Definition- (Remiges and rectrices [enlarged, stiff-shafted, closed-vaned with barbules bearing hooked distal pennulae], pennaceous feathers arising from the distal forelimbs and tail as in Passer domesticus)
Comments- Ji et al. (1998) found a topology where Caudipteryx was more closely related to Archaeopteryx, alvarezsaurids and ornithothoracines than Velociraptor and Protarchaeopteryx were. In their online supplementary information, they call a section "Diagnoses of the Chuniaoae and the Avialae under alternative optimizations," but go on to list characters for Avialae and an "Unnamed clade of Caudipteryx + Avialae." Thus it seems the authors originally intended to name their new clade Chuniaoae, then decided to leave it unnamed, but didn't catch all the times they used the name. The concept is invalid, as Caudipteryx is now recognized as an oviraptorosaur, and two of the proposed chuniaoaen characters (posteriorly extensive external nares; unserrated teeth) are maniraptoran symplesiomorphies that were reversed in derived dromaeosaurids and present in Protarchaeopteryx, while the other one (posteriorly extensive dorsal premaxillary process) is convergent between some oviraptorosaurs and some birds. A Caudipteryx+Avialae clade would now include all oviraptorosaurs and paravians, being a subset of Maniraptora potentially excluding taxa which are placed as basal maniraptorans in some studies (e.g. therizinosaurs, alvarezsauriods, Ornitholestes). Note Ji and Ji (2001) later proposed a similar name (Chuniaoia) on a cladogram for a group containing Protarchaeopteryx, but not birds. Martyniuk (2012) later defined the clade as Caudipteryx plus Passer, but it has seen almost no use outside of that volume.
Gauthier and de Quieroz (2001) stated that if phylogeny expressed the developmental origin of feathers, additional clades could be named including Aviremigia, which they defined using feather apomorphies. Martyniuk (2012) followed them, and is credited here as his use was definite as opposed to conditional. While ornithomimosaurs are now known to lack feathers with barbules or retrices (based on Dromiceiomimus), the condition in therizinosaurs and alvarezsauroids is still uncertain, giving Aviremigia an uncertain position in the present topology.
Foth et al. (2014) erected Pennaraptora for this clade, which is followed here due to the lack of use for Chuniaoae or Aviremigia, the uncertain applicability of Aviremigia, and the fact Chuniaoae originally had a very different concept.
References- Ji, Currie, Norell and Ji, 1998. Two feathered dinosaurs from northeastern China. Nature. 393, 753-761.
Sereno, 1998. A rationale for phylogenetic definitions, with application to the higher-level taxonomy of Dinosauria. Neues Jahrbuch für Geologie und Paläontologie Abhandlungen. 210(1), 41-83.
Gauthier and de Quieroz, 2001. Feathered dinosaurs, flying dinosaurs, crown dinosaurs, and the name "Aves." In Gauthier and Gall (eds.). New Perspectives on the Origin and Early Evolution of Birds: Proceedings of the International Symposium in Honor of John H. Ostrom. Peabody Museum of Natural History. 7-41.
Xu, Sullivan, Zhang and O'Connor, 2011. A new eumaniraptoran phylogeny and its implications for avialan origins. Journal of Vertebrate Paleontology. Program and Abstracts 2011, 217.
Martyniuk, 2012. A Field Guide to Mesozoic Birds and Other Winged Dinosaurs. Pan Aves. 189 pp.
Foth, Tischlinger and Rauhut, 2014. New specimen of Archaeopteryx provides insights into the evolution of pennaceous feathers. Nature. 511, 79-82.

unnamed pennaraptoran (Gilmore, 1924)
Middle Campanian-Early Maastrichtian, Late Cretaceous
Belly River Group, Alberta, Canada
Material
- (CMN 8505) dorsal centrum
Comments- This was described by Gilmore (1924) as distinct from other coelurosaurs known at the time, though possibly referrable to Chirostenotes or Dromaeosauridae (neither of which were known from vertebrae at the time). Currie et al. (1994) commented on a set of vertebrae thought by Gilmore to be referrable to the same taxon, and noted that the dorsal centrum may be a caenagnathid but cannot be distinguished from Saurornitholestes either.
Reference- Gilmore, 1924. A new coelurid dinosaur from the Belly River Cretaceous Alberta. Canada Geological Survey, Bulletin n. 38, geological series 43, 1-13.
Currie, Godfrey and Nessov, 1994. New caenagnathid (Dinosauria: Theropoda) specimens from the Upper Cretaceous of North America and Asia. Canadian Journal of Earth Sciences. 30(10), 2255-2272.

unnamed possible pennaraptoran (Kessler and Jurcsak, 1984)
Late Berriasian-Early Valanginian, Early Cretaceous
Cornet bauxite, Bihor, Romania
Material
- (MTCO 14422; = MTCO-P 1503) incomplete long bone
References- Kessler and Jurcsák, 1984. Fossil birds remains in the bauxite from Cornet (Pa¢durea Craiului Mountains, Romania). 75 years of the Laboratory of Paleontology, University of Bucharest, Romania, Special Volume. 129-134.
Kessler and Jurcsák, 1984. Fossil bird remains in the bauxite from Cornet (Bihor county, Romania), Trav. Mus. Hist. Nat. Grigore Antipa, Bucharest. 25, 393-401.
Jurcsak and Kessler, 1986. Evolutia avifaunei pe teritoriul Romanei. Partea I: Introducere (Evolution of the avifauna in the territory of Romania. Part I: Introduction). Crisia. 16, 577-615.
Kessler and Jurcsák, 1986. New contributions to the knowledge of Lower Cretaceous bird remains from Cornet (Romania), Bucharest, Trav. Mus. Hist. Nat. Grigore Antipa. 28, 290-295.
Jurcsak and Kessler, 1987. Evolutia avifaunei pe teritoriul Romanei. Partea II: Morfologia speciilor fosile (Evolution of the avifaune in the territory of Romania. Part II: Morphology of fossil species). Crisia. 17, 583-609.
Jurcsak and Kessler, 1988. Evolutia avifaunei pe teritoriul Romanei. Partea III: Filogenie si sistematice (Evolution of the avifauna in the territory of Romania. Part III: Phylogeny and systematics). Crisia. 18, 647-688.
Jurcsak and Kessler, 1991. The Lower Cretaceous paleofauna from Cornet, Bihor County, Romania and its importance. Nymphaea. 21, 5-32.
Benton, Cook, Grigorescu, Popa and Tallodi, 1997. Dinosaurs and other tetrapods in an Early Cretaceous bauxite-filled fissure, northwestern Romania. Palaeogeography, Palaeoclimatology, Palaeoecology. 130(1-4), 275-292.

Pennaraptora indet. (Nessov, 1984)
Mid-Late Turonian, Late Cretaceous
Bissekty Formation, Uzbekistan

Materal- (TsNIGRI 45/11915) humeral shaft (~73 mm) (Nessov, 1984)
(TsNIGRI 48/11915) long bone shaft (Nessov, 1984)
(TsNIGRI 49/11915) long bone shaft (Nessov, 1984)
(TsNIGRI 50/11915) long bone shaft (Nessov, 1984)
(ZIN PO 4826) posterior synsacrum (Nessov and Panteleev, 1993)
Comments- The humerus was originally a paratype of Zhyraornis kashkarovi (Nessov, 1984). Kurochkin (1996) later disagreed, since the nutrient foramen is located on the ventral shaft, apparently unlike enantiornithines (in which he included Zhyraornis). The specimen preserves almost no morphological features, besides being slender and curved with a thin-walled shaft. Scaled to Ichthyornis, it might measure ~73 mm when complete. It is thus large enough to come from a deinonychosaur or oviraptorosaur in addition to a bird, and certainly preserves no characters which could exclude this possibility. It is here referred to Pennaraptora indet. Isolated shafts of long bones (TsNIGRI 48/11915, 49/11915 and 50/11915) were also made paratypes of Z. kashkarovi. These were not described or illustrated, and are similarly referred to Pennaraptora indet..
Nessov and Panteleev (1993) figured and described a partial sacrum they referred to Kuszholia sp. (ZIN PO 4826). Zelenkov and Averianov (2011) stated this differs from Kuszholia in "the absence of a pleurocoel in the posterior vertebra and in the shallow slitlike pleurocoel in the penultimate vertebra", and while the pleurocoel shape appears similar, the absence of a pleurocoel in the last sacral is indeed different. They believe the specimen to be similar to Zanabazar, but I don't see any particular resemblence and refer it to Pennaraptora incertae sedis here pending further study.
References- Nessov, 1984. [Upper Cretaceous pterosaurs and birds from Central Asia] Paleontologicheskii Zhurnal. 1, 47-57.
Nessov and Panteleev, 1993. On the similarity of the Late Cretaceous ornithofauna of South America and Central Asia. Trudy Zoologicheskogo Instituta, RAN. 252, 84-94.
Kurochkin, 1996. A new enantiornithid of the Mongolian Late Cretaceous, and a general appraisal of the Infraclass Enantiornithes (Aves). Russian Academy of Sciences, special issue. 50 pp.
Zelenkov and Averianov, 2011. Synsacrum of a primitive bird from the Upper Cretaceous of Uzbekistan. Paleontological Journal. 45(3), 314-319.

unnamed pennaraptoran (Le Loeuff, Buffetaut, Mechin and Mechin-Salessy, 1992)
Late Campanian-Early Maastrichtian, Late Cretaceous
Gres a Reptiles Formation, Var, France
Material
- (MDE-D203) femur (~230 mm)
Comments- Le Loeuff et al. (1992) described a femur (MDE-D203) and anterior dorsal vertebra (MDE-D01) which they believed was congeneric or at least related to Elopteryx. Le Loeuff et al. believed these remains were most closely related to dromaeosaurids, though perhaps deserving their own family or subfamily. The femur was only stated to share general characteristics with Elopteryx (reduced fourth trochanter, posterior trochanter, "shape and size") while differing in having a linear capital ligament fossa and absent fourth trochanter. It probably belongs to a distinct taxon of pennaraptoran.
Reference- Le Loeuff, Buffetaut, Mechin and Mechin-Salessy, 1992. The first record of dromaeosaurid dinosaur (Saurichia, Theropoda) in the Maastrichtian of Southern Europe: palaeobiogeographical implications. Bulletin de la Societe Geologique de France. 163(3), 337-343.

unnamed Pennaraptora (Britt, 1993)
Late Aptian-Early Albian, Early Cretaceous
Eumeralla Formation of the Otway Group, Victoria, Australia
Material
- (NMV P186302) dorsal vertebra (23 mm) (Britt, 1993)
(NMV P186323; paratype of Timimus hermani) femur (195 mm) (Rich and Vickers-Rich, 1994)
Comments- Britt (1993) mentions NMV 186303 (the holotype femur of Timimus) as a dromaeosaurid dorsal vertebra. This may be a typo for NMV 186302. Currie et al. (1996) first described this vertebrae as oviraptorosaurian, while Salisbury et al. (2007) placed it in Paraves, and Agnolin et al. (2010) believed it was dromaeosaurid. Benson et al. (2012) could not distinguish it from paravians or oviraptorosaurs, and it is here left as Pennaraptora incertae sedis pending further study.
NMV P186323 was originally a paratype of Timimus hermani, but was later determined to be maniraptoran (Benson et al., 2012).
References- Britt, 1993. Pneumatic postcranial bones in dinosaurs and other archosaurs. PhD Thesis, University of Calgary (Canada), Alberta.
Rich and Vickers-Rich, 1994. Neoceratopsians and ornithomimosaurs: Dinosaurs of Gondwana origins? National Geographic Research. 10(1), 129-131.
Currie, Vickers-Rich and Rich, 1996. Possible oviraptorosaur (Theropoda, Dinosauria) specimens from the Early Cretaceous Otway Group of Dinosaur Cove, Australia. Alcheringa. 20(1-2), 73-79.
Salisbury, Agnolin, Ezcurra and Pias, 2007. A critical reassessment of the Creaceous non-avian dinosaur faunas of Australia and New Zealand. Journal of Vertebrate Paleontology. 27(3), 138A.
Agnolin, Ezcurra, Pais and Salisbury, 2010. A reappraisal of the Cretaceous non-avian dinosaur faunas from Australia and New Zealand: Evidence for their Gondwanan affinities. Journal of Systematic Palaeontology. 8(2), 257-300.
Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from Southern Australia indicates high polor diversity and climate-driven dinosaur provinciality. PLOS One. 7(5), e37122.

undescribed possible pennaraptoran (Nessov, 1995)
Late Turonian-Coniacian, Late Cretaceous
Bissekty Formation, Uzbekistan

Material- (N 459/12457) manual ungual (?)I
Comments- This was listed in the text as being an oviraptorosaur, in which case it may be referrable to Kuszholia from the same formation. Nessov also listed the possibility of it being a bird pedal ungual in the figure caption however.
Reference- Nessov, 1995. Dinosaurs of northern Eurasia: New data about assemblages, ecology, and paleobiogeography. Institute for Scientific Research on the Earth's Crust, St. Petersburg State University, St. Petersburg. 1-156.

undescribed pennaraptoran (Novas, Cladera and Puerta, 1996)
Cenomanian-Early Coniacian, Late Cretaceous
Rio Neuquen Subgroup, Neuquen, Argentina
Material
- incomplete skeleton including humerus and pelvis
Comments- This specimen was mentioned in an abstract by Novas et al. (1996) as having a bird-like humerus (e.g. anteriorly projecting deltopectoral crest) and a propubic pelvis. It is seemingly not described yet, as Unenlagia's skeleton is not very complete and its pelvis is mesopubic, while Buitreraptor is also said to have a mesopubic pelvis and was found in Rio Negro.
Reference- Novas, Cladera and Puerta, 1996. New theropods from the Late Cretaceous of Patagonia. Journal of Vertebrate Paleontology. 16(3), 56A.

unnamed pennaraptoran (Rodriguez de la Rosa and Cevallos-Ferriz, 1998)
Late Campanian, Late Cretaceous
Cerro del Pueblo Formation, Mexico
Material
- (IGM-7713) distal phalanx
Comments- This resembles the penultimate manual phalanges of caenagnathids, troodontids and dromaeosaurids in the dorsal expansion of the distal articulation. However, it differs in having centrally placed ligament pits, in which it resembles proximal manual and pedal phalanges. Some manual phalanges (e.g. Hagryphus) and pedal phalanges (e.g. Sinornithoides) have both characters. It was assigned to probable Troodontidae by Rodriguez de la Rosa and Cevallos-Ferriz (1998), but resembles other maniraptorans just as closely.
Reference- Rodriguez de la Rosa and Cevallos-Ferriz, 1998. Vertebrates of the El Pelillal locality (Campanian, Cerro del Pueblo Formation), southeastern Coahuila, Mexico. Journal of Vertebrate Paleontology. 18(4), 751-764.

undescribed pennaraptoran (Larson and Rigby, 2005)
Late Maastrichtian, Late Cretaceous
Hell Creek Formation, US
Material
- (BHI-5159) incomplete furcula
References- Larson and Rigby, 2005. Furcula of Tyrannosaurus rex. In Carpenter (ed.). The Carnivorous Dinosaurs. 247-255.
DePalma, Burnham, Martin, Larson and Bakker, 2015. The first giant raptor (Theropoda: Dromaeosauridae) from the Hell Creek Formation. Paleontological Contributions. 14, 16 pp.

unnamed possible Pennaraptora (Novas, Borges Ribeiro and Souza Carvalho, 2005)
Late Maastrichtian, Late Cretaceous
Marilia Formation of the Bauru Group, Brazil
Material
- (CP 659) manual ungual (Novas, Borges Ribeiro and Souza Carvalho, 2005)
(MCT 1718-R) scapula (Machado, Campos and Kellner, 2008)
References- Machado, Kellner and Campos, 2005. On a theropod scapula from the Late Cretaceous (Bauru Group) of Brazil. Journal of Vertebrate Paleontology. 25(3), 86A.
Novas, Borges Ribeiro and Souza Carvalho, 2005. Maniraptoran theropod ungual from the Marýlia Formation (Upper Cretaceous), Brazil. Revista del Museo Argentino Ciencias Naturales "Bernadino Rivadavia". 7, 31-36.
Machado, Campos and Kellner, 2008. On a theropod scapula (Upper Cretaceous) from the Marília Formation, Bauru Group, Brazil. Palaeontologische Zeitschrift. 82(3), 308-313.

undescribed pennaraptoran (Turner, Hwang and Norell, 2007)
Berriasian-Barremian, Early Cretaceous
Huhteeg Svita, Mongolia
Holotype
- (IGM coll.) proximal femur, proximal tibia, partial pes
Comments- Turner et al. (2007) refer this specimen to Paraves based on the lateral ridge and posterior trochanter. However, both are also present in Avimimus, suggesting it cannot be placed more precisely than Pennaraptora until it is further prepared and described.
Reference- Turner, Hwang and Norell, 2007. A small derived theropod from Oosh, Early Cretaceous, Baykhangor Mongolia. American Museum Novitates. 3557, 27 pp.

unnamed pennaraptoran (Naish and Sweetman, 2011)
Valanginian, Early Cretaceous
Wadhurst Clay of the Hastings Group, England
Material
- (BEXHM: 2008.14.1) posterior cervical vertebra (7.1 mm)
References- Austen, Brockhurst and Honeysett, 2010. Vertebrate fauna from Ashdown Brickworks, Bexhill, east Sussex. Wealden News. 8, 13-23.
Naish and Sweetman, 2011. A tiny maniraptoran dinosaur in the Lower Cretaceous Hastings Group: Evidence from a new vertebrate-bearing locality in southeast England. Cretaceous Research. 32(4), 464-471.

unnamed pennaraptoran (Benson, Rich, Vickers-Rich and Hall, 2012)
Early-Mid Aptian, Early Cretaceous
Wonthaggi Formation of the Strzelecki Group, Victoria, Australia
Material
- (NMV P216672) (adult) mid or posterior dorsal vertebra (17 mm)
Reference- Benson, Rich, Vickers-Rich and Hall, 2012. Theropod fauna from southern Australia indicates high polor diversity and climate-driven dinosaur provinciality. PLOS One. 7(5), e37122.

undescribed pennaraptoran (Tanaka, Kobayashi, Sasaki and Chiba, 2013)
Santonian, Late Cretaceous
Uge Member of the Taneichi Formation, Japan
Material
- feather fragments
Reference- Tanaka, Kobayashi, Sasaki and Chiba, 2013. An isolated feather in an amber from the Late Cretaceous of northeast Japan. Journal of Vertebrate Paleontology. Program and Abstracts 2013, 223-224.

Pennaraptora indet. (Schwimmer, Sanders, Erickson and Weems, 2015)
Late Campanian, Late Cretaceous
Donoho Creek Formation, South Carolina, US
Material
- (ChM PV4818) dorsal centrum
Comments- This is approximately square, with little ventral concavity and no pleurocoel. Based on this, it may be troodontid or related to Avimimus.
Reference- Schwimmer, Sanders, Erickson and Weems, 2015. A Late Cretaceous dinosaur and reptile assemblage from South Carolina, USA. Transactions of the American Philosophical Society. 105(2), 157 pp.

Ningyuansaurus Ji, Lu, Wei and Wang, 2012
N. wangi Ji, Lu, Wei and Wang, 2012
Barremian-Aptian, Early Cretaceous
Yixian Formation, Liaoning, China

Holotype- (Xingcheng Confuciusornis Museum coll.) skull, mandibles, nine cervical vertebrae, cervical ribs, ten dorsal vertebrae, dorsal ribs, gastralia, ~22 caudal vertebrae, chevrons, scapula (73 mm), coracoid, (?)sternal plates, humerus (75 mm), radii (55 mm), ulnae (58 mm), radiale, ulnare, semilunate carpal, metacarpals I (12 mm), phalanx I-1 (25 mm), manual ungual I, metacarpals II (28 mm), phalanx II-1, phalanx II-2, metacarpal III (29 mm), two manual phalanges, three manual unguals, ilia (70 mm), pubes (109 mm), ischia (41 mm), femora (135 mm), tibiae (172 mm), fibula (172 mm), astragali (17 mm wide), metatarsals II (88 mm), metatarsals III (105 mm), phalanx III-1 (24 mm), metatarsals IV (102 mm), pedal phalanges, pedal unguals, metatarsal V, body feathers, seeds
Diagnosis- (after Ji et al., 2012) at least 10 upper and 14 lower jaw teeth on each side; femur much longer than ilium; distal caudal vertebrae much elongated.
Comments- Ji et al. state the holotype was offered for study by a private individual.. The description is brief and the illustration and photo quality poor, so that not much information is determinable. While the authors believe it is an oviraptorosaur more basal than Caudipteryx or Incisivosaurus, the low iliofemoral ratio, low ischiopubic ratio and enlarged pedal ungual ?II suggest possible paravian relations and it is here placed in Pennaraptora incertae sedis.
Reference- Ji, Lu, Wei and Wang, 2012. A new oviraptorosaur from the Yixian Formation of Jianchang, western Liaoning Province, China. Geological Bulletin of China. 31(12), 2102-2107.