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Figure 7 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 7. Dorsal spines (MAP-6047) of Losillasaurus giganteus (San Lorenzo specimen) in anterior (A), dorsal (B) and posterior views. Dorsal spines (MCNV Lo-11) of Losillasaurus giganteus (paratype) in posterior view (D). Dorsal spines (MCNV Lo-17b) of Losillasaurus giganteus (paratype) in posterior view (E). Dorsal spine (CPT-2688) of Turiasaurus riodevensis (paratype) in posterior (F) and anterior (G) views. Dorsal spine (CPT-1633) of Turiasaurus riodevensis (referred to material) in posterior (H) and anterior (I) views.
Figure 8 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 8. Caudal vertebrae in posterior views of Losillasaurus giganteus (San Lorenzo specimen): 4th (MAP-6050), 6th (MAP-6052), 7th (MAP-1846b), 8th (MAP-6053), 9th (MAP-6054), 10th (MAP-6055), 11th (MAP-6056), 12th (MAP-6057), 13th (MAP-6058), 14th (MAP-6059), 15th (MAP-6062), 16th (MAP-6061), 17th (MAP-6060), 18th (MAP-6063), 19th (MAP-6064), 20th (MAP-6066), 21st (MAP-6065), 23rd (MAP-6068), 24th (MAP-6069), 25th (MAP-6070), 26th (MAP-6071), 27th (MAP-6072), 28th (MAP-6073), 29th (MAP-6074), 30th (MAP-6075), 31st (MAP-6076), 33rd (MAP-6078), 34th (MAP-6079), 35th (MAP-6080) and 40th (MAP-6083).
Figure 6 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 6. Comparison between Turiasaurus and Losillasaurus teeth: right premaxillary teeth (MAP-6013) in labial (A) and apical (B) views of Losillasaurus giganteus (San Lorenzo specimen); right maxillary teeth (MAP-6019) in labial (C) and apical (D) views of Losillasaurus giganteus (San Lorenzo specimen); left maxillary teeth (CPT-1262) in labial (E) and apical (F) views of Turiasaurus riodevensis; left maxillary teeth (CPT-3941) in labial (G) and apical (H) views of Turiasaurus riodevensis.
Figure 5 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 5. Longitudinal grooves in the right premaxillary teeth (MAP-6013) in the labial view (A) and left dentary teeth (MAP-6035) in labial (B) and lingual (C) views of Losillasaurus giganteus (San Lorenzo specimen).
Figure 4 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 4. Dentary teeth of Losillasaurus giganteus (San Lorenzo specimen): right dentary teeth (MAP-6032) in lingual (A), labial (B), mesial (C), distal (D) and apical (E) views; left dentary teeth (MAP-6035) in lingual (F), labial (G), distal (H), mesial (I) and apical (E) views; left dentary teeth (MAP-6036) in lingual (K), labial (L), distal (M), mesial (N) and apical (O) views; left dentary teeth (MAP-6038) in lingual (P), labial (Q), distal (R), mesial (S) and apical (T) views; left dentary teeth (MAP-6039) in lingual (U), labial (V), distal (W) and apical (X) views; right dentary teeth (MAP-6034) in lingual (Y), labial (Z), distal (A') and apical (B') views; and left dentary teeth (MAP-6021) in labial (C'), lingual (D'), distal (E') and apical (F') views.
Figure 3 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 3. Right premaxillary and maxillary teeth of Losillasaurus giganteus (San Lorenzo specimen): premaxillary teeth (MAP-6013) in lingual (A), labial (B), mesial (C) and apical (D) views; maxillary teeth (MAP-6014) in lingual (E), labial (F) and apical (G) views; maxillary teeth (MAP-6015) in lingual (H), labial (I), mesial (J) and apical (K) views; maxillary teeth (MAP-6016) in lingual (L), labial (M) and apical (N) views; maxillary teeth (MAP-6017) in lingual (O), labial (P), mesial (Q) and apical (R) views; maxillary teeth (MAP-6018) in labial (S), lingual (T), mesial (U) and apical (V) views; and maxillary teeth (MAP-6019) in lingual (W), labial (X), mesial (Y) and apical (Z) views.
Figure 15 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 15. Right fibula (MAP-6116) of Losillasaurus giganteus (San Lorenzo specimen) in medial (A), dorsal (B), anterior (C), lateral (D) and posterior (E) views.
Figure 2 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 2. Left dentary and teeth (MAP-6008) of Losillasaurus giganteus (San Lorenzo specimen) in lingual view (A); left dentary teeth (MAP-6045) (d1), (MAP-6031) (d2), (MAP-6035) (d3), (MAP-6037) (d4), (MAP-6036) (d7), (MAP-6038) (d8), (MAP-6039) (d9), (MAP-6040) (d10), (MAP-6020) (d13), (MAP-6021) (d14) in lingual views. Right dentary and teeth (MAP- 6009) of Losillasaurus giganteus (San Lorenzo specimen) in lingual view (B). Right dentary teeth (MAP-6032) (d2) and (MAP-6033) (d3) of Losillasaurus giganteus (San Lorenzo specimen) in lingual view.
Figure 18 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 18. Strict consensus cladogram of extended implied weight analysis (with the same protocol as Mannion et al., 2019) with Losillasaurus giganteus coded with the holotype, paratype and the referred to San Lorenzo specimen together and new taxon Narindasaurus thevenini.
Figure 1 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 1. Reconstructions of the skull of Turiasaurus (A) and Losillasaurus (B) in the lateral view. Left premaxilla, maxilla and teeth (MAP-6005) of Losillasaurus giganteus (San Lorenzo specimen) in labial or lateral (C) and lingual or medial (D) views. Right premaxillary tooth (MAP-6013) (E); and right maxillary teeth (MAP-6014) (F), (MAP-6015) (G), (MAP-6016) (H), (MAP-6017) (I), (MAP-6018) (J), (MAP-6019) (K) in lingual views.
Figure 10 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 10. Comparison of the caudal spines of Losillasaurus giganteus (CPT-1846, San Lorenzo specimen) in posterior (A), right lateral (B), left lateral (C), anterior (D) and dorsal (E) views and Turiasaurus riodevensis (CPT-1611, Puntal de Santa Cruz) in posterior (F), right lateral (G), anterior (H) and dorsal (I) views.
Figure 17 in Origin and evolution of turiasaur dinosaurs set by means of a new 'rosetta' specimen from Spain
Figure 17. Narindasaurus thevenini: right premaxillary-maxillary teeth (MNHN MAJ 423) in mesial (A), distal (B), lingual (C), labial (D) and apical (E) views; right tibia (MNHN MAJ 428) in medial view (F); left pubis (MNHN MAJ 430) in lateral view (G); anterior caudal vertebrae (MNHN MAJ 424) in anterior (H), right lateral (I), ventral (J) and left lateral (K) views; posterior caudal vertebrae (MNHN MAJ 426) in posterior (L), right lateral (M) and dorsal (N) views; distal chevron (MNHN MAJ 429) in right lateral view (O); middle-anterior chevron (MNHN MAJ 425) in dorsal (P), right lateral (Q), posterior (R) and anterior (S) views; and right fibula in lateral (T) and anterior (U) views from the same specimen.
Figure 6 in Global historical biogeography of hadrosaurid dinosaurs
Figure 6. Distribution of the main hadrosaurid clades discussed in the text on a paleogeographic reconstruction of continental coastlines during the Campanian. Continental paleocoastlines redrawn after Smith et al. (1994), Hay et al. (1999), Blakey (2001), Pough et al. (2004), and Hedges (2006).
Figure 5 in Global historical biogeography of hadrosaurid dinosaurs
Figure 5. Distribution of the main hadrosaurid clades discussed in the text on a paleogeographic reconstruction of continental coastlines during the Santonian. Continental paleocoastlines redrawn after Smith, Smith & Funnell (1994), Hay et al. (1999), Blakey (2001), Pough et al. (2004), and Hedges (2006). The partial skull depicted to represent basal lambeosaurines is that of Jaxartosaurus ararlensis.
Figure 4 in Global historical biogeography of hadrosaurid dinosaurs
Figure 4. Time-calibrated phylogram of Lambeosaurinae based on the reduced strict consensus tree of Prieto-Márquez (2010). Letters at each node represent ancestral areas as inferred in the DIVA analysis; their meaning is as in Fig. 1. The colors of the stratigraphic ranges of taxa indicate the following areas: white = Europe; black = North America; light grey = Asia; dark grey = range of an entire clade. Black stars indicate vicariance. Arrows indicate the direction of dispersal events. Note that the stratigraphic ranges for each species are not point estimates, but just extend to indicate divisions of particular geochronological stages. Geochronological ages from Gradstein et al. (2004).
Figure 3 in Global historical biogeography of hadrosaurid dinosaurs
Figure 3. Time-calibrated phylogram of Saurolophinae based on the reduced strict consensus tree of Prieto-Márquez (2010). Letters at each node represent ancestral areas as inferred in the DIVA analysis; their meaning is as in Fig. 1. The colors of the stratigraphic ranges of taxa indicate the following areas: white = South America; black = North America; light grey = Asia; dark grey = range of an entire clade. Black stars indicate vicariance. Arrows indicate the direction of dispersal events. Note that the stratigraphic ranges for each species are not point estimates, but just extend to indicate divisions of particular geochronological stages. Geochronological ages from Gradstein et al. (2004).
Figure 2 in Global historical biogeography of hadrosaurid dinosaurs
Figure 2. Time-calibrated phylogram of Hadrosauroidea based on the reduced strict consensus tree of Prieto-Márquez (2010). Letters at each node represent ancestral areas as inferred in the dispersal–vicariance analysis; their meaning is as in Fig. 1. The colours of the stratigraphical ranges of taxa indicate the following areas: white, Europe; black, North America; light grey, Asia; dark grey, range of an entire clade. Black stars indicate vicariance. Arrows indicate the direction of dispersal events. Note that the stratigraphical ranges for each species are not point estimates, but just extend to indicate divisions of particular geochronological stages. Geochronological ages from Gradstein, Ogg, Smith (2004). Abbreviations: a, North America; b, South America; c, Europe; d, Asia; ab, North and South America; ac, North America and Europe; ad, North America and Asia; cd, Eurasia.
Figure 1 in Global historical biogeography of hadrosaurid dinosaurs
Figure 1. Reduced strict consensus tree derived from parsimony analysis of hadrosauroid dinosaurs by Prieto-Márquez (2010), showing ancestral area reconstructions for all the nodes. Words between quotation marks are informal names created to facilitate the reference to specific clades throughout the text. Abbreviations: a, North America; b, South America; c, Europe; d, Asia; ab, North and South America; ac, North America and Europe; ad, North America and Asia; cd, Eurasia.
Figure 7 in Global historical biogeography of hadrosaurid dinosaurs
Figure 7. Distribution of the main hadrosaurid clades discussed in the text on a paleogeographic reconstruction of continental coastlines during the Maastrichtian. Continental paleocoastlines redrawn after Smith et al. (1994), Hay et al. (1999), Blakey (2001), Pough et al. (2004), and Hedges (2006).
Figure 17 in The anatomy of the basal ornithischian dinosaur Eocursor parvus from the lower Elliot Formation (Late Triassic) of South Africa
Figure 17. Eocursor parvus, holotype (SAM-PK-K8025). Right metatarsal II in medial (A), proximal (B), lateral (C), distal (D), and cranial (E) views. Right metatarsal III in medial (F), proximal (G), lateral (H), distal (I), and cranial (J) views. Pedal phalanges in cranial (K–M) views. Scale bars = 10 mm.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.