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46 results for “Oedipodinae”
FIGURES 17–32. Bryodemini. 17–19 in Revision of the genus Angaracris Bey-Bienko, 1930 (Orthoptera: Acrididae, Oedipodinae) with notes on the tribe Bryodemini
FIGURES 17–32. Bryodemini. 17–19, Bryodemella (Bryodemella) holdereri (Krauss, 1901), male: 17, apex of hind femur, dorsal view; 18, mesosternum, ventral view; 19, apex of hind femur, lateral view; 20, Bryodema gebleri (Fischer von Waldheim, 1836), the base of male hind tibia, dorsal view; 21–23, Uvaroviola multispinosa Bey-Bienko, 1930, male: 21, apex of hind femur, dorsal view; 22, base of hind tibia, dorsal view; 23, apex of hind tarsus, dorsal view; 24–26, Angaracris barabensis (Pallas, 1773), male: 24, base of hind tibia, dorsal view; 25, apex of hind tarsus, dorsal view; 26, apex of hind femur, lateral view; 27–28, Bryodemacris uvarovi Bey-Bienko, 1930, male: 27, apex of hind femur, dorsal view; 28, pronotum, lateral view; 29, Bryodemella (Marikovskiella) semenovi (Ikonnikov, 1911), male mesosternum, ventral view; 30, Bryodema lustiosum (Stoll, 1813), male pronotum, lateral view; 31, Bryodema nigripennis Mistshenko et Gorochov, 1989, female sternal plate, ventral view; 32, Andrea gorochovi Mistshenko, 1989, female sternal plate, ventral view. (Figs. 17–25, 27–30 after Benediktov, 1998; Figs. 31–32 after Gorochov et al., 1986).
FIGURES 1–4 in Revision of the genus Angaracris Bey-Bienko, 1930 (Orthoptera: Acrididae, Oedipodinae) with notes on the tribe Bryodemini
FIGURES 1–4. Angaracris barabensis, male body, dorsal view. 1, neotype of Gryllus (Locusta) barabensis Pallas, 1773; 2, neotype of Oedipoda hospes Fischer von Waldheim, 1846; 3, neotype of Oedipoda lugubris Fischer von Waldheim, 1846; 4, neotype of Oedipoda rhodopa Fischer von Waldheim, 1836. Scale bars 10 mm.
FIGURE 4 in A new species of the genus Hilethera Uvarov, 1923 (Orthoptera: Acrididae: Oedipodinae) from China and its complete mitochondrial genome
FIGURE 4. Genetic distance of individual genes within Oedipodinae. Each boxplot represents P distance for 13 PCGs, rrnL and rrnS in sixteen Oedipodinae species. Lower horizontal bar, non-outlier smallest observation; lower edge of rectangle, 25 percentile; central bar within rectangle, median; upper edge of rectangle, 75 percentile; upper horizontal non-outlier largest observation; open circle, outlier.
FIGURE 1 in A new species of the genus Hilethera Uvarov, 1923 (Orthoptera: Acrididae: Oedipodinae) from China and its complete mitochondrial genome
FIGURE 1. Hilethera xinjiangensis sp. nov. male: A. body dorsal view; B. head frontal view; C. head and pronotum lateral view; D. body lateral view; E. head and pronotum dorsal view; F. end of abdomen dorsal view; G. epiphallus.
FIGURE 6 in A new species of the genus Hilethera Uvarov, 1923 (Orthoptera: Acrididae: Oedipodinae) from China and its complete mitochondrial genome
FIGURE 6. Phylogenetic reconstruction of Oedipodinae using mitochondrial PCGs and rRNAs concatenated dataset inferred from Bayesian inference (BI, on the left of figure) and Maximum likelihood (ML, on the right of figure). Values on nodes indicate branch support, BI posterior probabilities (PP) / Maximum likelihood Bootstrap support values (BV). Asterisks are used to indicate maximum support (1.0 for PP and 100% for BV). Accession number of each species recorded in GenBank was indicated in brackets.
Figs 4–11 in Male calling signals of Sphingonotus obscuratus latissimus (Uvarov, 1925) (Orthoptera: Acrididae: Oedipodinae) from the population near the type locality in southeastern Kazakhstan
Figs 4–11. Male calling signals of Sphingonotus obscuratus latissimus from the environs of the type locality in southeastern Kazakhstan: 4–5, 7–11 — oscillograms; 6 — sonogram and oscillogram at the same speed. Faster oscillograms of the parts of signals indicated as "6–11" are given under the same numbers. Рис. 4–11. ПриЗывные сигналы самцов Sphingonotus obscuratus latissimus иЗ окрестностей типового местонахождениЯ в юго- восточном КаЗахстане: 4–5, 7–11 — осциллограммы; 6 — сонограмма и осциллограмма при одной скорости раЗвертки. Фрагменты сигналов, помеченные цифрами "6–11", представлены при больШей скорости раЗвёртки на осциллограммах под соответствуюЩими номерами.
Figs 1–3 in Male calling signals of Sphingonotus obscuratus latissimus (Uvarov, 1925) (Orthoptera: Acrididae: Oedipodinae) from the population near the type locality in southeastern Kazakhstan
Figs 1–3. Sphingonotus obscuratus latissimus: 1 — habitat in the environs of the type locality in southeastern Kazakhstan; singing males concentrated on a rocky place in the middle part of the photo; 2 — same locality, male after flight display; 3 — dry male specimen from the environs of the type locality. Рис. 1–3. Sphingonotus obscuratus latissimus: 1 — местообитание в окрестностЯх типового местонахождениЯ в юго-восточном КаЗахстане; поюЩие самцы концентрировались на каменистом участке в средней части фото; 2 — там же, самец после демонстрационного полёта; 3 — самец иЗ окрестностей типового местонахождениЯ.
FIGURE 2 in Type catalogue of Oedipodinae (Orthoptera: Acrididae) present in Naturalis Biodiversity Center Leiden (Netherlands)
FIGURE 2. Dorsal view of the current valid primary types housed in Naturalis Biodiversity Center. Abbreviations stand for: HT—Holotype, ST—Syntype, LT—Lectotype. A: Aiolopus thalassinus dubius Willemse, 1923—LT; B: Dittopternis zebrata Saussure, 1884—ST; C: Gastrimargus africanus parvulus Sjöstedt, 1928—NT; D: Gastrimargus subfasciatus (Haan, 1842)— LT; E: Gastrimargus willemsei Ritchie, 1982—HT; F: Lactista eustatia Bland, 2002—HT; G: Oedaleus virgula (Snellen van Vollenhoven, 1869)—HT; H: Ptenoscirta caliginosa (Haan, 1842)—ST.
FIGURE 1 in Type catalogue of Oedipodinae (Orthoptera: Acrididae) present in Naturalis Biodiversity Center Leiden (Netherlands)
FIGURE 1. Locations of type material housed in Naturalis Biodiversity Center of currently valid species names (black dots) and junior synonyms (black triangles). As coordinates for some locations were missing these were approximated. Numbers stand for the type location of 1—Aiolopus thalassinus dubius; 2—Chortoicetes sumbaensis; 3—Gastrimargus subfasciatus; 4— Gastrimargus willemsei; 5—Heteropternis respondens insularis; 6—Lactista eustatia; 7—Oedipoda kurda; 8—Sphingonotus lusitanicus; 9—Sphingonotus miramae; 10—Sphingonotus zebra; 11—Acridium vulneratum; 12—Acridium (Oedipoda) 4- maculatum; 13—Acrotylus insubricus biskrensis; 14—Gastrimargus amplus; 15—Gastrimargus chinensis; 16—Gastrimargus grossiceps; 17—Locusta gallica; 18—Scintharista punjabi.
FIGURE 3 in Type catalogue of Oedipodinae (Orthoptera: Acrididae) present in Naturalis Biodiversity Center Leiden (Netherlands)
FIGURE 3. Dorsal view of the current junior synonym species. A: Current valid species: Trilophidia annulata (Thunberg, 1815), Current junior synonym deposited at Naturalis: Acridium (Oedipoda) vulneratum Haan, 1842—LT; B: Currently valid species: Acrotylus deustus (Thunberg, 1815), Current junior synonym deposited at Naturalis: Acridium (Oedipoda) 4-maculatum (De Haan, 1842)—ST; C: Currently valid species: Gastrimargus nubilus Uvarov, 1925; Current junior synonym deposited at Naturalis: Gastrimargus africanus chinensis Willemse, 1933—ST; D: Currently valid species: Gastrimargus crassicollis (Saussure, 1888); Current junior synonym deposited at Naturalis: Gastrimargus grossiceps Sjöstedt, 1932—ST; E: Currently valid species: Gastrimargus africanus parvulus Sjöstedt, 1928; Current junior synonym deposited at Naturalis: Gastrimargus africanus pusillus Sjöstedt, 1928—HT.
FIGURE 7 in A revision of the subgenus Parasphingonotus Benediktov & Husemann, 2009 (Orthoptera: Oedipodinae: Sphingonotini)
FIGURE 7. Inner side of hind femora of a) S. femoralis, b) S. radioserratus, c) S. turkanae.
FIGURE 2 in A revision of the subgenus Parasphingonotus Benediktov & Husemann, 2009 (Orthoptera: Oedipodinae: Sphingonotini)
FIGURE 2. Fore and hind wings of a) S. P. femoralis, b) S. P. radioserratus, and c) S. P. turkanae.
FIGURE 16 in Revision of the genus Angaracris Bey-Bienko, 1930 (Orthoptera: Acrididae, Oedipodinae) with notes on the tribe Bryodemini
FIGURE 16. Angaracris barabensis, variability of the hind wing pattern (after Benediktov, 2016).
Figure 3 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 3 - Individual changes in color in the final surviving azure sand grasshoppers when kept on bluish-gray stones (blue lines, N = 2) or reddish-brown soil (red lines, N = 3). The comparison is between the same individuals at the beginning of the experiment and once frozen and cleaned at the end. Color is expressed in the three independent dimensions of the CIE-L*a*b* space (see text).
Figure 2 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 2 - Average changes in color over time (days since the start of each treatment) for adult azure sand grasshoppers kept on bluish-gray stones (blue symbols and lines) or reddish-brown soil (red symbols and lines). Color is expressed in the three independent dimensions of the CIE-L*a*b* space (see text). Lines show the predicted values for each CIE-L*a*b dimension according to a fitted model containing Time, Substrate, Sex, Time:Substrate and sqTime; we excluded the subject random effect for better visualization. Continuous lines and circles are for females while dashed lines and triangles are for males. The "Red Earth" treatment had to be restarted using grasshoppers from the same field location but captured later in time. As a result, the timing of data collection is out of phase between treatments, and L is initially slightly lower for "Red Earth" individuals (since the species gets darker with age).
Figure 1 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 1 - Example of an image taken for color measurement. The individual was held in place by the transparent plastic lid of the Petri dish to obtain a correct position. Brightness and hue were measured in the red diamond-shaped part of the thorax. The color of a small area of the background paper was also measured (red circle) as a reference gray standard to correct for lighting variation among images.
Figure 4 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 4 - Change in color over time for two example individuals. From left to right: at the start of the experiment, 7 weeks later, and after freezing and cleaning at the end of the experiment. Individual a. was kept on blue-gray substrate and individual b. was kept on reddish-brown substrate. For visualization, the bars under the images show the average dorsal color as captured by the CIE-L*a*b* values measured for each individual at each point in time.
Figure 2 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 2 - Average changes in color over time (days since the start of each treatment) for adult azure sand grasshoppers kept on bluish-gray stones (blue symbols and lines) or reddish-brown soil (red symbols and lines). Color is expressed in the three independent dimensions of the CIE-L*a*b* space (see text). Lines show the predicted values for each CIE-L*a*b dimension according to a fitted model containing Time, Substrate, Sex, Time:Substrate and sqTime; we excluded the subject random effect for better visualization. Continuous lines and circles are for females while dashed lines and triangles are for males. The "Red Earth" treatment had to be restarted using grasshoppers from the same field location but captured later in time. As a result, the timing of data collection is out of phase between treatments, and L is initially slightly lower for "Red Earth" individuals (since the species gets darker with age).
Figure 4 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 4 - Change in color over time for two example individuals. From left to right: at the start of the experiment, 7 weeks later, and after freezing and cleaning at the end of the experiment. Individual a. was kept on blue-gray substrate and individual b. was kept on reddish-brown substrate. For visualization, the bars under the images show the average dorsal color as captured by the CIE-L*a*b* values measured for each individual at each point in time.
Figure 3 from: Peralta-Rincon JR, Escudero G, Edelaar P (2017) Phenotypic plasticity in color without molt in adult grasshoppers of the genus Sphingonotus (Acrididae: Oedipodinae). Journal of Orthoptera Research 26: 21-27. https://doi.org/10.3897/jor.26.14550
Figure 3 - Individual changes in color in the final surviving azure sand grasshoppers when kept on bluish-gray stones (blue lines, N = 2) or reddish-brown soil (red lines, N = 3). The comparison is between the same individuals at the beginning of the experiment and once frozen and cleaned at the end. Color is expressed in the three independent dimensions of the CIE-L*a*b* space (see text).
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