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Fig. 9 - A in The Unnamed Plateau (Western Desert of Egypt). New geological and geoarchaeological data from an exploration in a remote area

Fig. 9 - A) Tracks of Clayton's vehicle. / Impronte lasciate dall'auto di Clayton. B) Crescent-like white stone inside a stone circle./ Pietra bianca in forma di crescente lunare al centro di un cerchio di pietre.

Fig. 1 in The Unnamed Plateau (Western Desert of Egypt). New geological and geoarchaeological data from an exploration in a remote area

Fig. 1 - Map of Egypt. The Unnamed Plateau is located at the southwestern corner (Google Earth™, modified). / Mappa satellitare dell'Egitto. L'Unnamed Plateau si trova all'estremità sud-occidentale.

Fig. 10 in The Unnamed Plateau (Western Desert of Egypt). New geological and geoarchaeological data from an exploration in a remote area

Fig. 10 - Fitted stone in an array of smaller stones. / Pietra fitta circondata da pietre più piccole.

Fig. 3 in The Unnamed Plateau (Western Desert of Egypt). New geological and geoarchaeological data from an exploration in a remote area

Fig. 3 - Hydrographic network around the Unnamed Plateau as reconstructed for the Plio-Pleistocene (modified from Gonheim, 2012). The two water courses originate from the two sides of the "Through valley". / Ricostruzione del reticolo idrografico attorno ad Unnamed Plateau per il periodo Plio-Pleistocenico (modificato da Gonheim, 2012). I due corsi d'acqua hanno origine dai due versanti della "valle di Through".

Fig. 6 - A in The Unnamed Plateau (Western Desert of Egypt). New geological and geoarchaeological data from an exploration in a remote area

Fig. 6 - A) Landscape of Area 1 looking south. / Vista dell'Area 1 verso sud. B) Example of stone circle with the opening to the south. / Uno dei cerchi di pietre con aperture verso sud. C) Tethering stones. / Pietre da cattura. D) The rock panel with two engraved cows. / Pannello su parete di roccia con figure di vacche incise. E) Narrow passage on top of the plateau, between the two branches of Wadi Handal. This is the area with most stone circles documented so far on the plateau. / Stretto passaggio che separa le due testate delle vallette laterali di Wadi Handal. In quest'area è stato documentato il maggior numero di cerchi di pietre sull'altopiano.

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Figs. 4-5 in Detection of the invasive western conifer seed bug Leptoglossus occidentalis Heidemann, 1910 (Heteroptera: Coreidae: Coreinae) in Chile.

Figs. 4-5.- Metatibial dilations of Leptoglossus from Chile. 4.- Leptoglossus occidentalis. 5.- Leptoglossus chilensis.

Fig. 6 in Evolution and systematics of Green Bush-crickets (Orthoptera: Tettigoniidae: Tettigonia) in the Western Palaearctic: testing concordance between molecular, acoustic, and morphological data

Fig. 6 Comparison of the duty cycle in the songs of the T. armeniaca complex and T. caudata (left panel) and the Tettigonia viridissima group (right panel)

Fig. 2 in Evolution and systematics of Green Bush-crickets (Orthoptera: Tettigoniidae: Tettigonia) in the Western Palaearctic: testing concordance between molecular, acoustic, and morphological data

Fig. 2 Oscillograms of the song of the Tettigonia viridissima group (1–9) and T. cantans (10) recorded at two speeds: 1 T. cf. longealata (MO: Ajabo, T = 20 °C), 2 T. cf. vaucheriana (MO: N Fes, T = 20 °C), 3 T. cf. vaucheriana (MO: Bouchfaa W of Taza, T = 21 °C), 4 T. cf. vaucheriana (MO: Tilougguite Pass, T = 23 °C), 5 T. cf. vaucheriana and cf. longealata (MO: El Kebab, T = 25 °C), 6 T. cf. vaucheriana (MO: El Kebab, T = 28–30 °C), 7 T. cf. viridissima (MO: S Aïn Zora, T = 22 °C), 8 T. cf. viridissima (MO: S Aïn Zora, T = 25 °C), 9 T. viridissima (BG: Sofia, T = 27 °C), and 10 T. cantans (IT: Val Malene; from Massa et al. 2012, T = 15 °C)). Scale bar for A is 10 s and for B 2 s

Fig. 5 in Evolution and systematics of Green Bush-crickets (Orthoptera: Tettigoniidae: Tettigonia) in the Western Palaearctic: testing concordance between molecular, acoustic, and morphological data

Fig. 5 Appearance of some taxa of Western Palaearctic Tettigonia (relative size proportions between photos not retained). a T. cantans, male, Germany, Gunzenhausen; b T. cantans, female, Germany, Gunzenhausen; c T. uvarovi Ebner, 1946—male, holotype, Siberia (NHMW), lateral view; d same, dorsal view; e T. caudata, male, Bulgaria, Russe district, Byala; f T. acutipennis Ebner, 1946—male, holotype, "Kleinasien 1914 | Marasch, Tölg. | coll. R. Ebner" (NHMW), dorsal view; g same, lateral view; h T. armeniaca, male, Armenia, Djermuk; i T. armeniaca, male, Turkey, Ispir; j T. viridissima morphotype of longealata, male, Morocco, El Kebab; k T. viridissima morphotype of longealata, female, Morocco, El Kebab; l T. viridissima morphotype of vaucheriana, male, Morocco, El Kebab; and m T. viridissima, male and female in copula, Bulgaria, Haskovo district, Kostilkovo village

Fig. 4 in Evolution and systematics of Green Bush-crickets (Orthoptera: Tettigoniidae: Tettigonia) in the Western Palaearctic: testing concordance between molecular, acoustic, and morphological data

Fig. 4 Phylogenetic tree of the genus Tettigonia based on BI analysis of concatenated COI-ITS1-ITS2 sequences. BI posterior probability (PP) values are shown near resolved branches (only support values above 0.50). Species groups, as defined by genetic and morpho-acoustic data, are distinctly shaded, and the respective branches are marked with an open circle and a capital letter as follows: "A"—T. viridissima group, "B"—T. caudata group, and "C"—T. cantans group. Haplotype codes correspond to Table 1 in the Supplement, followed by morphological identification. Squares on the right side of names correspond to relative wing length: filled squares short wings and open squares long wings;

Fig. 7 in Evolution and systematics of Green Bush-crickets (Orthoptera: Tettigoniidae: Tettigonia) in the Western Palaearctic: testing concordance between molecular, acoustic, and morphological data

Fig. 7 Relationship between the duration of chirps and inter-chirp intervals in T. caudata and the Tettigonia armeniaca complex. Green triangles mark recordings from Ispir, Turkey, where monosyllabic, disyllabic, and polysyllabic songs of T. armeniaca were recorded, as well as a song of T. caudata (Color figure online)

Figure 7 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia

Figure 7. The remains of a humpback whale juvenile (length estimate 8–9 m), <60 h after it was last seen intact (and probably still alive) at the surface; it was apparently killed and then eaten by sharks during 20–22 May 2014, off Coral Bay, WA. Photo: Migration Media.

Figure 3. A in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia

Figure 3. A mother humpback and her calf at Ningaloo Reef, Western Australia. Although the killer whales broke off the attack when the pair moved into shallow reef waters, the damage to the calf's lower jaw during the attack would likely prove fatal (#11). Photo: J. Totterdell.

Figure 1 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia

Figure 1. Location of our study area off Ningaloo Reef, Western Australia, showing locations and outcomes of interactions between humpback whales and killer whales. Inset in upper right shows area where our survey effort was concentrated in 2013 (see Methods).

Figure 4. A in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia

Figure 4. A humpback mother lifts her calf out of the water on her back shortly before it was killed by attacking killer whales (#9). The killer whale on the far left is carrying the carcass of another humpback calf taken several minutes earlier (#8). Photo: S. Wenngren.

Figure 2 in Whale killers: Prevalence and ecological implications of killer whale predation on humpback whale calves off Western Australia

Figure 2. Movements of a satellite-tagged killer whale that we tracked for 22 d in July/ August 2013 off Western Australia. The track was estimated by fitting a continuous-time correlated random walk model (Johnson et al. 2008) to 452 locations calculated by the Argos satellite system (http://www.argos-system.org) to estimate locations and velocities at hourly intervals. Colored circles represent the estimated displacement velocity for each predicted location (speed in km/h; green is slower, red is faster), with speed classified into one of four velocity intervals, determined by the Jenks algorithm for natural breaks (Jenks 1967).

Fig. 14 in Anatomical Study of the Right Forearm and Hand of One Western Gorilla (Gorilla gorilla) for Comparison with Humans with Respect to Motions of the Thumb and Fingers

Fig. 14. Grasping pattern of the hand. A. Grasping a bough of the tree; B. Holding a piece of fruit. Sketches are drawn imitating the hand motion shown in movies of NHK BS TV program (Yamagiwa, 2012).

Fig. 13. Knuckle walk. A in Anatomical Study of the Right Forearm and Hand of One Western Gorilla (Gorilla gorilla) for Comparison with Humans with Respect to Motions of the Thumb and Fingers

Fig. 13. Knuckle walk. A. The trunk tilts backward because of longer forelimbs; B. The knuckle walk of gorillas is walking with MP joints in extension and PIP joints in deep flexion bearing the weight on the dorsal aspects of the middle phalanges of the hands. Sketches are drawn imitating the walking style shown in movies of NHK BS TV program (Yamagiwa, 2012).

Fig. 12 in Anatomical Study of the Right Forearm and Hand of One Western Gorilla (Gorilla gorilla) for Comparison with Humans with Respect to Motions of the Thumb and Fingers

Fig. 12. Dorsal aspect of the metacarpophalangeal joint. A. A shallow groove (white arrows) is seen along the dorsal margin of the articular cartilage of the metacarpal head; B. The dorsal edge of the proximal phalanx base sits in the groove by extending the MP joint passively; C. Grooves are deep enough at the 3rd and 4th metacarpals (white arrows), but not at the 2nd and 5th in the skeletal specimen of another gorilla stored in National Museum of Nature and Science.

Fig. 11. Extensor apparatus and retaining ligaments. A in Anatomical Study of the Right Forearm and Hand of One Western Gorilla (Gorilla gorilla) for Comparison with Humans with Respect to Motions of the Thumb and Fingers

Fig. 11. Extensor apparatus and retaining ligaments. A. Extensor apparatus consists of two components: extrinsic compornent (dark green) and intrinsic component (light green). Ligamentous structures are shown in orange color. The interosseous hood is the proximal hood-like portion of the aponeurotic expansion of the interosseous tendon (a thick arrow). (modified from Tubiana and Valentin, 1964); B. On the radial side of the middle finger, the interosseous hood is shown. Adherent to the proximal margin of this interosseous hood, a sagittal band expands between DTML and EDC tendon; C. The oblique retinacular ligament (ORL) is well developed at the radial aspect.