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Figure 2 from: Vilhelmsen L (2016) A new species of Ophrella Middlekauff, 1985 (Hymenoptera, Orussidae) from French Guiana. Journal of Hymenoptera Research 51: 171-185. https://doi.org/10.3897/jhr.51.9075

Figure 2 - Consensus tree of 9 trees of fit 41,51167 produced by implied weighting analysis with k = 10. Only crown group Orussidae shown; genera outside the ophrynopine clade have been collapsed to single terminals.

Figure 3 from: Vilhelmsen L (2016) A new species of Ophrella Middlekauff, 1985 (Hymenoptera, Orussidae) from French Guiana. Journal of Hymenoptera Research 51: 171-185. https://doi.org/10.3897/jhr.51.9075

Figure 3 - Consensus tree of 9 trees of fit 25,58786 produced by implied weighting analysis with k = 20. Only crown group Orussidae shown; genera outside the ophrynopine clade have been collapsed to single terminals.

Figure 1 from: Vilhelmsen L (2016) A new species of Ophrella Middlekauff, 1985 (Hymenoptera, Orussidae) from French Guiana. Journal of Hymenoptera Research 51: 171-185. https://doi.org/10.3897/jhr.51.9075

Figure 1 - Consensus tree of 9 trees of fit 51,39931 produced by implied weighting analysis with k = 7. Only crown group Orussidae shown; genera outside the ophrynopine clade have been collapsed to single terminals.

Figure 4 from: Vilhelmsen L (2016) A new species of Ophrella Middlekauff, 1985 (Hymenoptera, Orussidae) from French Guiana. Journal of Hymenoptera Research 51: 171-185. https://doi.org/10.3897/jhr.51.9075

Figure 4 - Ophrella seagi sp. n., female holotype, NHMD000071774. A Habitus dorsal B Head, anterior C Head and antenna, lateral. Yellow arrow = cross vein cu-a; red arrow = longitudinal furrow on top of head; blue arrow = pronotal transverse carina; green arrow = antennomere 10.

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Figure 4 from: Pech P, Bezděk A (2016) Ergatomorph wingless males in Technomyrmex vitiensis Mann, 1921 (Hymenoptera: Formicidae). Journal of Hymenoptera Research 53: 25-34. https://doi.org/10.3897/jhr.53.8904

Figure 4 - Head of a wingless Technomyrmex vitiensis male with normal (left) and aberrant (right) scape.

Figure 4 from: Barour C, Baylac M (2016) Geometric morphometric discrimination of the three African honeybee subspecies Apis mellifera intermissa, A. m. sahariensis and A. m. capensis (Hymenoptera, Apidae): Fore wing and hind wing landmark configurations. Journal of Hymenoptera Research 52: 61-70. https://doi.org/10.3897/jhr.52.8787

Figure 4 - Extreme shape differences between Apis mellifera intermissa, Apis mellifera sahariensis and Apis mellifera capensis along the first two canonical variates (Fig. 3A, B). A and B fore wing shape differences along the first and second canonical variate, respectively. C and D hind wing shape differences along the first and second canonical variate, respectively (scale factor ×3 and ×2 respectively). Grey lines depict the shape associated with the negative values and black lines the shape associated with the positive values of the respective canonical variate.

Figure 1 from: Barour C, Baylac M (2016) Geometric morphometric discrimination of the three African honeybee subspecies Apis mellifera intermissa, A. m. sahariensis and A. m. capensis (Hymenoptera, Apidae): Fore wing and hind wing landmark configurations. Journal of Hymenoptera Research 52: 61-70. https://doi.org/10.3897/jhr.52.8787

Figure 1 - Location of the landmarks digitized on a right fore and hind wing of Apis mellifera workers (drawn to the same scale). MR: marginal cell, CC: cubital cell, MC: median cell, SMC: sub-median cell, and RC: radial cell.

Figure 3 from: Barour C, Baylac M (2016) Geometric morphometric discrimination of the three African honeybee subspecies Apis mellifera intermissa, A. m. sahariensis and A. m. capensis (Hymenoptera, Apidae): Fore wing and hind wing landmark configurations. Journal of Hymenoptera Research 52: 61-70. https://doi.org/10.3897/jhr.52.8787

Figure 3 - Shape variability among Apis mellifera intermissa, Apis mellifera sahariensis and Apis mellifera capensis: first two canonical variates. A fore wing shape B hind wing shape.

Figures 1-8 from: Kim C-J, Notton DG, Lee J-W (2016) Discovery of Trichopria keralensis (Hymenoptera, Diaprioidea, Diapriidae) in South Korea and Japan, a review of the keralensis species group of Trichopria and the nomenclature and synonymy of Alareka. Journal of Hymenoptera Research 52: 143-151. https://doi.org/10.3897/jhr.52.8546

Figures 1-8 - Trichopria keralensis (Rajmohana & Narendran, 2000). 1 Female habitus, lateral 2 Female head and mesosoma, lateral 3 Female fore wing, dorsal 4 Female head, dorsal 5 Female mesosoma, dorsal 6 Male habitus, lateral 7 Male head and face, frontal 8 Male antenna (A7–A9), lateral.

Fig 2 from: Bowles DE (2018) Introduced Japanese burrowing cricket (Orthoptera: Gryllidae: Velarifictorus (Velarifictorus) micado) range continues to expand in North America. Journal of Orthoptera Research 27(2): 177-181. https://doi.org/10.3897/jor.27.29067

Fig 2 Map showing the commonly projected distribution of Velarifictorus (Velarifictorus) micado (Saussure, 1877) in the United States of America and itscurrent known distribution. The shaded area indicates the previously reported range, triangles represent data collected by the authors, and circles represent data generated by public sources. Records are shown only for those locations that fall outside the previously reported range.

Fig 1 from: Bowles DE (2018) Introduced Japanese burrowing cricket (Orthoptera: Gryllidae: Velarifictorus (Velarifictorus) micado) range continues to expand in North America. Journal of Orthoptera Research 27(2): 177-181. https://doi.org/10.3897/jor.27.29067

Fig 1 Velarifictorus (Velarifictorus) micado (Saussure, 1877), nymph. Source: USGS Bee Inventory and Monitoring Lab, Public Domain.

Fig 1 from: Jung Y, Baek M, Lee S-i, Jablonski PG (2018) Microhabitat segregation among three co-existing species of grasshoppers on a rural meadow near Seoul, South Korea. Journal of Orthoptera Research 27(2): 173-175. https://doi.org/10.3897/jor.27.28402

Fig 1 The use of different types of substrates by the three grasshopper species. A. Substrates divided according to taxonomy; B. Substrates divided according to vegetation structure.

Fig 9 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 9 Scatter plot of the Principal Components Analysis (PCA) from Orphulellapunctata (De Geer, 1773) lateral head shape in populations collected in the Cerrado, Atlantic Forest, and Pantanal. A. Thin-plate spline of the positive (+) and B. negative (-) axes of PCA 2; C.PCA plot.

Fig 5 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 5 Scatter plot of the Principal Components Analysis (PCA) from Orphulellapunctata (De Geer, 1773) femur shape in populations collected in the Cerrado, Atlantic Forest, and Pantanal. A. Thin-plate spline of the positive (+) and B. negative (-) axes of PCA 1; C.PCA plot.

Fig 8 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 8 Similarity dendrogram for the head in dorsal view for Orphulellapunctata populations from the Cerrado, Atlantic Forest, and Pantanal by the UPGMA method. The permutation test was carried out with 10,000 replicates and a cophenetic correlation coefficient of 79.2%.

Fig 4 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 4 Similarity dendrogram for the pronotum in Orphulellapunctata populations from the Cerrado, Atlantic Forest, and Pantanal by the UPGMA method. The permutation test was carried out with 10,000 replicates and a cophenetic correlation coefficient of 97.1%.

Fig 1 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 1 Collection sites for Orphulellapunctata (De Geer, 1773): Cerrado, Atlantic Forest and Pantanal.

Fig 6 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 6 Similarity dendrogram for the femur from Orphulellapunctata populations from the Cerrado, Atlantic Forest, and Pantanal by the UPGMA method. The permutation test was carried out with 10,000 replicates and a cophenetic correlation coefficient of 86.83%.

Fig 11 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 11 Analysis of the size of the A. pronotum, B. femur, C. head in dorsal view and D. head in lateral view. Similar letters indicate that these biomes are statistically equivalent in relation to the size of the pronotum, femur, dorsal, and lateral view of the head by Tukey's test (p<0.05).

Fig 7 from: Silva ACS, Nunes LA, Batista WL, Lhano MG (2018) Morphometric variation among males of Orphulella punctata (De Geer, 1773) (Acrididae: Gomphocerinae) from different biomes in Brazil. Journal of Orthoptera Research 27(2): 163-171. https://doi.org/10.3897/jor.27.21203

Fig 7 Scatter plot of the Principal Components Analysis (PCA) from Orphulellapunctata (De Geer, 1773) dorsal head shape in populations collected in the Cerrado, Atlantic Forest, and Pantanal. A. Thin-plate spline of the positive (+) and B. negative (-) axes of PCA 2; C.PCA plot.