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Figure 1 in New records of the exotic jumping spider Pseudeuophrys erratica (Araneae: Salticidae: Euophryini) in the United States
Figure 1. Known distribution of Pseudeuophrys erratica in the northeastern United States.
Fig. 9 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 9. Femoro-tibial joint of the hind legs in Alticini (Chrysomelidae) and Rhamphini (Curculionidae). A, B, Longitarsus sp., A, genuflexor sclerite in a locked position, B, genuflexor sclerite in an unlocked position, C, D Disonycha xanthomela, C, genuflexor sclerite in a locked position, D, genuflexor sclerite in an unlocked position, E, F, Orchestes mixtus, E, tibial flexor sclerite in an unlocked position, F, tibial fexor sclerite in a locked position (GFS = genuflexor scelite,TFS = tibial flexor sclerite, s = distal sclerotic element of the femoral abutment [=femoral abutment of Lever's trinagular plate], vfw = ventral femoral wall, distal to the left).
Fig. 7 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 7. SEM micrographs showing anatomical structures at the femoro-tibal joint of the fore leg of male T. dalmanni. A, internal (dorsal) view, B, ventral view, C, external (ventral view), D, ventral view, E and F, lateral view (GFS = genuflexor sclerite,TFS = tibial flexor sclerite, HL = Heitler's lump, pit = pit corresponding to the invagination of the femoro-tibial flexor tendon, fe-tifld = distal tibial flexor muscle [potential trigger or release muscle], fe-tiflp=proximal tibial flexor muscle, distal to the left).
Fig. 8 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 8. TEM and CLSM micrographs showing the femoro-tibial joint in T. dalmanni (TFS = tibial flexor sclerite, core = electron dense core ofTFS, cov = electron lucent external surface [coating] on the ventral portion of the TFS, col = electron dense external region [coating] on the lateral portion of the TFS, tib = tibia, fe-tifld = distal tibial flexor muscle [potential trigger or release muscle], fe-tiflp = proximal tibial flexor muscle, distal to the left).
Fig. 6 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 6. Synchrotron-based micro-CT micrographs showing the femoro-tibial joint of grasping legs. A–F, T. dalmanni, male, fore leg; G, H, Podagrion sp., female, hind leg (GFS = genuflexor sclerite,TFS = tibial flexor sclerite, HL = Heitler's lump, con = femoro-tibial conjunctiva, cnd = condyles [pivot points], tib = tibia, fem = femur, A–F, distal to the right, H, distal to the left).
Fig. 4 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 4. Synchrotron based micro-CT micrographs of the femoro-tibial joints of the stalk-eyed fly, Teleopsis dalmanni (Wiedemann, 1830). A–D, male fore leg; E, female fore leg; F, G, male middle and hind legs (GFS = genuflexor sclerite,TFS = tibial flexor sclerite, HL = Heitler's lump, fe-tifld = distal tibial flexor muscle (potential trigger or release muscle), fe-tiflp = proximal tibial flexor muscle, fem = femur, tib = tibia, A–D, distal to the left; E–F, distal to the top.
Fig. 5 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 5. Bright field images and CLSM micrographs of the femoro-tibial joint of grasping insect legs. A–D, T. dalmanni, female, fore leg; E–F, Ochthera sp., female, fore leg; G, Podagrion sp., female, hind leg; H, T. dalmanni, male, fore leg (GFS = genuflexor sclerite,TFS = tibial flexor sclerite, HL = Heitler's lump, ten = tendon of the femoro-tibial muscle, con = femoro-tibial conjunctiva; cov = glassy ventral layer of the tibial flexor sclerite; fe-tifl = tibial flexor muscle, pit = pit corresponding to the invagination of the femoro-tibial flexor tendon, tib=tibia).
Fig. 3 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 3. Line drawings showing the three major types of locking mechanisms in the ventral portion of the femoro-tibial joint. Left: extended position; Right: flexed position. (A, B) TFS over Heitler's lump without conjunctiva in between (grasping legs); (C, D) GFS locked at tip of femur, no conjunctiva in between (Alticini); (E, F) GFS over Heitler's lump with conjunctiva in-between (Orthoptera); (G, H) TFS locked at tip of femur, conjunctiva in between; GFS = genuflexor sclerite, TFS = tibial flexor sclerite, distal to the left.
Fig. 2 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 2. The femoro-tibial joint of the hind leg of the locust, Omocestus haemorrhoidalis (Charpentier, 1825) (Orthoptera:Acrididae); (A–C) closing of the joint, (D) open joint, (E) closed joint (conjunctiva is located between Heitler's lump and GFS), (F) open joint (CLSM), (G) same at greater magnification (GFS = genulexor sclerite, conj = conjunctiva between the site of origin of the tibial flexor tendon and the distoventral margin of the femur, HL = Heitler's lump, SLP = semilunar process, distal to the left).
Fig. 1 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 1. Generalized representation of an insect leg and modifications in the tibio-femoral joint for jumping and grasping.Two muscles connect the tibia and the femur.The tibial flexor (blue) bends (flexes) while the tibial extensor (brown) straightens (extends) the femoro-tibial joint.The tibial extensor is enlarged in a jumping legs (A), the two muscles are similar in their mass in walking legs (B), and the tibial flexor is enlarged in grasping legs (C).The locking mechanism between the tibial flexor muscle tendon and the ventral wall of the tibia is composed of the Heitler's lump (HL) and the genuflexor sclerite (GFS) in orthopterans (flexed (D) and extended (E) positions, modified after Gronenberg 1996; cx = coxa, tr = trochanter, tib = tibia, fem = femur, tar = tarsus; distal to the left).
Fig. 10 in Jumping and Grasping: Universal Locking Mechanisms in Insect Legs
Fig. 10. Synchrotron-based micro-CT micrographs showing the hind leg femoro-tibial joint of Gryllus campestris (slp = semilunar process, fem = femur, tib = tibia, HL = Heitler's lump, GFS = genuflexor sclerite, con = femoro-tibial conjunctiva, fe-tifl = tibial flexor muscle, fe-tiex = tibial extensor muscle, lines marked with E, F show the sites of sections on E and F, distal to the left).
Supplementary material 1 from: Maddison WP, Evans SC, Hamilton CA, Bond JE, Lemmon AR, Lemmon EM (2017) A genome-wide phylogeny of jumping spiders (Araneae, Salticidae), using anchored hybrid enrichment. ZooKeys 695: 89-101. https://doi.org/10.3897/zookeys.695.13852
Supplementary table of assembly statistics : Explanation note: Statistics describing raw reads, loci, sequence lengths, and other aspects of sequencing assembly for each of the 34 salticid taxa and 12 outgroup taxa.
Supplementary material 1 from: Maddison W, Li D, Bodner M, Zhang J, Xin X, Liu Q, Liu F (2014) The deep phylogeny of jumping spiders (Araneae, Salticidae). ZooKeys 440: 57-87. https://doi.org/10.3897/zookeys.440.7891
Specimens used in phylogenetic analyses, with localities and GenBank numbers of sequences indicated.:
FIGURES 9–13. Mago spp. M in On four new species of the jumping spider genus Mago O. Pickard-Cambridge, 1882 from South America (Araneae: Salticidae)
FIGURES 9–13. Mago spp. M. furcatus sp. nov.: 9 left male palp (holotype), prolateral view; 10 same, ventral view; 11 same, retrolateral view. M. mimicus sp. nov.: 12 left male palp (holotype), ventral view; 13 same, retrolateral view. Scale bars: 0.5 mm.
FIGURE 26 in On four new species of the jumping spider genus Mago O. Pickard-Cambridge, 1882 from South America (Araneae: Salticidae)
FIGURE 26. Collection records of Mago spp described herein: yellow circle: M. furcatus sp. nov.; red circle: M. mimicus sp. nov.; cyan circles: M. apophysis sp. nov.; purple circle: M. pardo sp. nov.
FIGURES 5–8. Mago spp. M in On four new species of the jumping spider genus Mago O. Pickard-Cambridge, 1882 from South America (Araneae: Salticidae)
FIGURES 5–8. Mago spp. M. furcatus sp. nov.: 5 male holotype, dorsal view; 6 same, ventral view. M. mimicus sp. nov.: 7 male holotype, dorsal view; 8 same, ventral view.
FIGURES 14–17 in On four new species of the jumping spider genus Mago O. Pickard-Cambridge, 1882 from South America (Araneae: Salticidae)
FIGURES 14–17. Mago pardo sp. nov.: 14 male holotype, dorsal view; 15 same, ventral view; 16 female paratype, dorsal view; 17 same, ventral view.
FIGURES 1–4. Mago spp, live specimens. M in On four new species of the jumping spider genus Mago O. Pickard-Cambridge, 1882 from South America (Araneae: Salticidae)
FIGURES 1–4. Mago spp, live specimens. M. furcatus sp. nov.: 1 male holotype, dorsal view; 2 same, frontal view. M. mimicus sp. nov.: 3 male holotype, dorsal view; 4 same, frontal view. © 2015 W. Maddison, released under a Creative Commons Attribution (CC-BY) 3.0 license.
FIGURES 97‒100. HABITUS. 97. Trioza stackelbergi, ADULT MALE. 98. Trioza stackelbergi, ADULT FEMALE. 99 in On the taxonomy of Korean jumping plant-lice (Hemiptera: Psylloidea)
FIGURES 97‒100. HABITUS. 97. Trioza stackelbergi, ADULT MALE. 98. Trioza stackelbergi, ADULT FEMALE. 99. IMMATURE OF Trioza stackelbergi. 100. GALL INDUCED BY IMMATURE OF Trioza stackelbergi.
FIGURES 83‒90. HABITUS. 83. Eotrioza ussuriensis, ADULT MALE. 84. Eotrioza ussuriensis, ADULT FEMALE. 85 in On the taxonomy of Korean jumping plant-lice (Hemiptera: Psylloidea)
FIGURES 83‒90. HABITUS. 83. Eotrioza ussuriensis, ADULT MALE. 84. Eotrioza ussuriensis, ADULT FEMALE. 85. Trioza chilgia, ADULT MALE OF SUMMER GENERATION. 86. Trioza chilgia, ADULT FEMALE OF WINTER GENERATION. 87. Trioza cinnamomi, ADULT MALE. 88. Trioza cinnamomi, ADULT FEMALE. 89. Trioza cinnamomi, FIFTH INSTAR IMMATURE. 90. GALLS INDUCED BY IMMATURES OF Trioza cinnamomi.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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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.