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Fig. 10 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires

Fig. 10. Cheek teeth of Matutinia (IVPP V7442, V7443). A–B, Occlusal and lingual views of P3– M3; C–D, occlusal and lingual views of p3–m3. Images photographically reversed to facilitate comparison with those of Rhombomylus. Modified from Ting et al. (2002).

Fig. 30 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires

Fig. 30. Ventral views of the rostra of Rhombomylus (IVPP V5278, V5293, V5289, V5280, V7585), showing the conditions of the incisive foramen, premaxillamaxillar suture, and shape of the diastema in individuals of different ages.

Fig. 40 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires

Fig. 40. Peeled petrosal showing casts of the inner ear of Rhombomylus (IVPP V5265, V7494). aa, anterior ampulla; asc, anterior semicircular canal; cc, crus commune; fc, fenestra cochleae; fv, fenestra vestibuli; iam, internal acoustic meatus; la, lateral ampulla; lsc, lateral semicircular canal; pa, posterior ampulla; pm, promontorium; psc, posterior semicircular canal; and saf, subarcuate fossa.

Fig. 18 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires

Fig. 18. Enamel distribution and microstructure of a lower incisor from a juvenile individual of Rhombomylus (IVPP V5280), in which deciduous premolars are present and germs of M3/m3 are completely embedded in bones. A, Distribution of the enamel on the labial surface of the incisor; B–C, cross and longitudinal sections showing microstructure of the enamel. See text for description and discussion.

Fig. 1 in The Osteology Of Rhombomylus (Mammalia, Glires): Implications For Phylogeny And Evolution Of Glires

Fig. 1. Phylogenetic hypotheses of basal Glires and the phylogenetic position of Rhombomylus, based on Meng et al. (1994), Averianov (1994), Li et al. (1987), Dashzeveg et al. (1998), and Meng and Wyss (2001).

Fig. 3 in Food preference of the Bornean elephant (Elephas maximus borneensis) in North Kalimantan Province, Indonesia, and its conservation implications

Fig. 3. The OPLS score plot (a) showing the correlation between 1H NMR data and Bornean elephant predictive food preference level. The loading coefficient plot (b) showing the signals that are positively (on the positive y-axis) and negatively (negative y-axis) correlated to the preference prediction [C = Calamus sp., DC = Donax canniformis, EG = Elaeis guineensis, E = Etlingera sp., MB = Musa borneensis, SS = Saccharum spontaneum, BO = Bambusa oldhamii, SO = Saccharum officinarum, CN = Cocos nucifera, AH = Artocarpus heterophyllus, L = Licuala sp., CM = Caryota mitis, AP = Arenga pinanga].

Fig. 2 in Food preference of the Bornean elephant (Elephas maximus borneensis) in North Kalimantan Province, Indonesia, and its conservation implications

Fig. 2. The orthogonal projections to latent structures (OPLS) score plot (a) showing separation of nutritional values among the samples [C = Calamus sp., Dc = Donax canniformis, Eg = Elaeis guineensis, E = Etlingera sp., Mb = Musa borneensis, Ss = Saccharum spontaneum, Bo = Bambusa oldhamii, So = Saccharum officinarum, Cn = Cocos nucifera, Ah = Artocarpus heterophyllus, L = Licuala sp., Cm = Caryota mitis, Ap = Arenga pinanga] The response-related profile (b) showing signals that are positively and negatively correlated to the preference prediction [NDF = Neutral detergent fibre, ADF = Acid detergent fibre, HC = Hemicellulose, ADL = Acid detergent lignin, CP = Crude protein, P = Phosphorus, K = Potassium, Ca = Calcium, Mg = Magnesium, Na = Sodium].

Fig. 1 in Food preference of the Bornean elephant (Elephas maximus borneensis) in North Kalimantan Province, Indonesia, and its conservation implications

Fig. 1. Map of the study area showing transects containing feeding signs of Bornean elephant in the study area in Tulin Onsoi Sub-district, North Kalimantan Province (after Suba et al., 2018).

Fig. 4 in Modelling the change in the distribution of the black-shanked douc, Pygathrix nigripes (Milne-Edwards) in the context of climate change: Implications for conservation

Fig. 4. The predicted distribution of the black-shanked douc (P. nigripes) generated by the MaxEnt software under the RCP8.5 scenario. BGM = Bu Gia Map National Park; CYS = Chu Yang Sin National Park; CT = Cat Tien National Park; HB = Hon Ba Nature Reserve; KL-SM = Kalon-Song Mao Nature Reserve; KT = Krong Trai Nature Reserve; NK = Nam Ka Nature Reserve; NN = Nam Nung Nature Reserve; NC = Nui Chua National Park; NO = Nui Ong Nature Reserve; TK = Takou Nature Reserve; VC = Vinh Cuu Nature Reserve.

Fig. 2 in Modelling the change in the distribution of the black-shanked douc, Pygathrix nigripes (Milne-Edwards) in the context of climate change: Implications for conservation

Fig. 2. The predicted distribution of the black-shanked douc (P. nigripes) generated by the MaxEnt software under the RCP4.5 scenario. BGM = Bu Gia Map National Park; CYS = Chu Yang Sin National Park; CT = Cat Tien National Park; HB = Hon Ba Nature Reserve; KL-SM = Kalon-Song Mao Nature Reserve; KT = Krong Trai Nature Reserve; NK = Nam Ka Nature Reserve; NN = Nam Nung Nature Reserve; NC = Nui Chua National Park; NO = Nui Ong Nature Reserve; TK = Takou Nature Reserve; VC = Vinh Cuu Nature Reserve.

Fig. 3 in Modelling the change in the distribution of the black-shanked douc, Pygathrix nigripes (Milne-Edwards) in the context of climate change: Implications for conservation

Fig. 3. Response curve plots illustrate the dependence of predicted potential distribution on the three most important environmental variables for the black-shanked douc (P. nigripes). The curve shows the mean response of 10 replicates by MaxEnt (red line) and the standard deviation (blue band).

Fig. 1. The 472 in Modelling the change in the distribution of the black-shanked douc, Pygathrix nigripes (Milne-Edwards) in the context of climate change: Implications for conservation

Fig. 1. The 472 points recorded for the black-shanked douc (P. nigripes) that were used in this study. BGM = Bu Gia Map National Park; CYS = Chu Yang Sin National Park; CT = Cat Tien National Park; HB = Hon Ba Nature Reserve; KL-SM = Kalon-Song Mao Nature Reserve; KT = Krong Trai Nature Reserve; NK = Nam Ka Nature Reserve; NN = Nam Nung Nature Reserve; NC = Nui Chua National Park; NO = Nui Ong Nature Reserve; TK = Takou Nature Reserve; VC = Vinh Cuu Nature Reserve.

FIGURE 13 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 13. Outcrop map of member 3 and member 4 of the Goler Formation (adapted from Cox, 1982; Cox and Diggles, 1986) showing location of the most productive mammal yielding sites, with shared taxa listed in text boxes: Grand Canyon site (no. 2, V200510), Land of Oz (no. 3, V200001), Laudate Discovery Site (no. 6, V94014), and Edentulous Jaw Site (no. 7, V98012). Other sites as numbered in figure 1.

FIGURE 8 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 8. Dentition of Promioclaenus walshi, new species. A. Occlusal view of RAM 6724, right dentary fragment with m2 and talonid of m1 from RAM locality V200001. B–E. Holotype of Promioclaenus walshi, RAM 9098, partial right and left lower dentitions from RAM locality V200510: B. occlusal view, C. labial view, and D. lingual view of RAM 9098, right dentary fragment with m3 with damaged m2; E. occlusal view of RAM 9098, left m2–3 with anterior part of m2 trigonid missing. F. Oblique occlusal view of RAM 6926, right maxillary fragment with M2–3, from RAM locality V200001; G. drawing of RAM 6926 in occlusal view.

FIGURE 3 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 3. Occlusal views of mandibles of Nannodectes lynasi, new species. A. RAM 9044, holotype of Nannodectes lynasi, right dentary fragment with damaged i1, alveolus of p2, p3–m3 from RAM locality V200510. B. RAM 9429, right dentary fragment with i1 root and p3–m3 from RAM locality V200706. C. RAM 10029, right dentary fragment with damaged p4–m3 from RAM locality V200804.

FIGURE 2 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 2. Mandibles and teeth of Protictis, Bessoecetor, and Taeniodonta. A. Occlusal view of RAM 9099, right dentary fragment with m2–3 of Bessoecetor septentrionalis from RAM locality V200510; B. labial view of RAM 9099. C. Lingual view of RAM 6927, a right dentary fragment with c, p1–p2, p4, and partial m1 of Protictis paralus from RAM locality V200001 (with partial imprint of dentary); D. occlusal view of p1–2, p4–m1 of RAM 6927. E. Lingual view of partial m1 of RAM 7246, left dentary fragment with partial m1 of Protictis cf. P. agastor from RAM locality V200001; F. labial view of partial m1 of RAM 7246; G. occlusal view of RAM 7246. H. Posterior view of RAM 15328, partial lower canine of a taeniodont from RAM locality V200612; I. anterior view of RAM 15328. Scale bar for C–D also applies to E–G.

FIGURE 1 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 1. Map of California (inset) with location of study area shaded and outcrop map of member 3 and member 4 of the Goler Formation within the El Paso Mountains (adapted from Cox, 1982; Cox and Diggles, 1986) showing location of sites discussed in text; members 1–2 not shown. Numbers refer to a specific site or group of sites within a limited geographic area, with the numerical order reflecting the approximate stratigraphic sequence of localities referred to in the text. Open circles are areas where strata at a specific site underwent paleomagnetic analysis; results presented in Albright et al. (2009). 1, Red Flat area (V201014, V201122); 2, Grand Canyon area (V200508, V200510, V200706, V200802, V200804); 3, Land of Oz (V200001); 4, Phenacodus Pocket area (V200603, V200612); 5, R-Z Zone area (V200303, V200304, V200702); 6, Laudate Discovery Site area (V94014, V94133); 7, Edentulous Jaw Site (V98012); 8, Primate Gulch (V200202); 9, Lone Tooth (V200704); 10, Butte Tooth (V200613); 11, Honey Pot (V200120); 12, Shark Site (V200307).

FIGURE 11 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 11. Upper dentition of Phenacodus cf. P. bisonensis. A. Occlusal view of RAM 9672, left maxillary fragment with P3–4, from RAM locality V200510. B. Occlusal view of RAM 7248, left maxillary fragment with P4–M1 and damaged M2, from RAM locality V200304. C. Occlusal view of RAM 9659, right M1 from RAM locality V98012. D. Occlusal view of RAM 6722, right M1 from RAM locality V200001. E. Occlusal view of RAM 15000, right maxilla fragment with dP4–M2 from RAM locality V201122. F. Occlusal view of RAM 9021, right M2 from RAM locality V200603. G. Occlusal view of RAM 9020, associated left M2 and M3 from RAM locality V200612. H. Occlusal view of RAM 7245, maxillary fragment with left dP3–4 from RAM locality V200001. I. Occlusal view of RAM 7205, right dP4 from RAM locality V200001.

FIGURE 6 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 6. Dentition of oxyclaenids and arctocyonids. A. Occlusal view of RAM 9041, right m1 of Thryptacodon sp. from RAM locality V200510. B. Occlusal view of RAM 15622, right dentary fragment with talonid of p4, and m1–2 of Mimotricentes tedfordi from RAM locality V201014; C. oblique labial view of RAM 15622. D. Occlusal view of RAM 9670, left dentary fragment of Mimotricentes tedfordi with damaged m1 and base of p4 from RAM locality V200510. E. Occlusal view of RAM 6928, right dentary fragment of Mimotricentes tedfordi with m3 talonid and base of trigonid from RAM locality V200001. F. Occlusal view of RAM 9040, right M1 of Lambertocyon cf. L. gingerichi from RAM locality V200001. G. Occlusal view of RAM 9043, left p3 fragment of Lambertocyon cf. L. gingerichi from RAM locality V200001. H. Occlusal view of RAM 9660, premolar of undetermined arctocyonid from RAM locality V200613.

FIGURE 9 in New records of eutherian mammals from the Goler Formation (Tiffanian, Paleocene) of California and their biostratigraphic and paleobiogeographic implications

FIGURE 9. Lower dentition of Phenacodus cf. P. bisonensis. A. Occlusal view of RAM 9023, right dentary with p3–m2 and anterior portion of m3 trigonid from RAM locality V200612; B. lingual view of RAM 9023; C. labial view of RAM 9023. D. Occlusal view of RAM 9046, left dentary with m1–3 from RAM locality V200603. E. Occlusal view of RAM 6723, right dentary fragment with m2–3 from RAM locality V200001. F. Occlusal view of RAM 9024, left dentary fragment with m2–3 from RAM locality V200612. G. Occlusal view of RAM 9045, left dp4 from RAM locality V200704.