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Fig. 3. Brounhister vividulus. A in Phylogenetic Placement of Abraeus vividulus Broun and Notes on New Zealand Histeridae (Coleoptera)

Fig. 3. Brounhister vividulus. A) Dorsal habitus, B) Ventral habitus, C) Head and prothorax, ventral view, D) Pygidium, dorsal view, E) Pro- and mesosterna, F) Prosternum, G) Mesosternum, H) Mesoventrite, lateral view.

Fig. 2 in Phylogenetic Placement of Abraeus vividulus Broun and Notes on New Zealand Histeridae (Coleoptera)

Fig. 2. Phylogenetic relationships of select genera of histerids, including Brounhister vividulus, based on the data matrix of Caterino and Vogler (2002). A) Strict consensus tree, B) 50% majority-rule consensus tree.

Fig. 7. Brounhister vividulus, ovipositor. A in Phylogenetic Placement of Abraeus vividulus Broun and Notes on New Zealand Histeridae (Coleoptera)

Fig. 7. Brounhister vividulus, ovipositor. A) Dorsal view, B) Ventral view, C) Lateral view, D) Gonocoxite, lateral view, E) Gonostylus, lateral view.

Fig. 2 in Biology, Distribution, and Phylogenetic Placement of the California Endemic Water Scavenger Beetle Hydrochara rickseckeri (Horn) (Coleoptera: Hydrophilidae)

Fig. 2. Known distribution of Hydrochara rickseckeri. Two vague localities ("Oakland" and "Santa Rosa") are not independently mapped as there are other, more specific localities given for both these areas.

Fig. 3 in Biology, Distribution, and Phylogenetic Placement of the California Endemic Water Scavenger Beetle Hydrochara rickseckeri (Horn) (Coleoptera: Hydrophilidae)

Fig. 3. Molecular phylogeny of the tribe Hydrophilini with an emphasis on the genus Hydrochara as inferred in IQ-TREE based on a multimarker dataset. Branches within each genus of Hydrophilini are color-coded with a different color for each genus; those in black represent outgroups. Nodal support is given across the topology as recovered in the ultrafast bootstrap (UFBS) analysis performed in IQ-TREE. Values of UFBS ±95 are considered as robust. A picture of Hydrochara caraboides (Linnaeus) is presented on the left of the phylogeny (Photograph by Jan Hamrsky, lifeinfreshwater.net/).

Figure 6 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 6. Single shortest cladogram for six genes and morphology in combination (14 570 steps) under parameter set 3221. Numbers above branches are jackknife frequencies> 50%. Navajo rugs (as explained in Fig. 5) for the six parameter sets shown below branches.

Figure 5 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 5. Single shortest cladogram for six genes in combination (14 465 steps) under parameter set 3221. Numbers above branches are jackknife frequencies> 50%. Navajo rugs below branches depict monophyly (black) or nonmonophyly (white) of clades under the six parameter sets shown at left; grey box indicates monophyly in some but not all shortest cladograms.

Figure 4 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 4. Strict consensus of nine best-fit cladograms based on morphological data in Table 2 under implied weights (k = 2, 3, 4, 5, and 6). GC values> 50% shown above branches for concavity constant k = 3. Position of Scolopocryptops simojovelensis highlighted.

Figure 3 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 3. Scolopocryptops simojovelensis sp. nov. Visualizations of synchrotron tomography data of holotype. A, B, dorsolateral and oblique anterodorsal views of head. C, ventral view of forcipules. D, lateral view of coxopleuron of left leg 23, anterior to left. Scale bars = 0.5 mm.

Figure 2 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 2. Scolopocryptops simojovelensis sp. nov. Holotype AMNH Ch-SH7. A, nearly dorsal view of tergites 17–22; arrows on TT17 and 18 indicate complete paramedian sutures. B, dorsolateral view of tergites 17–20; inset shows anastomizing ridges parallel to posterior margin on tergite 19. C, dorsal view of segment 23, showing tergite (T23), coxopleural process (cp), dorsomedial spinose process (ds) and ventral spinose process (vs) of prefemur. D, dorsolateral view of leg pairs 21–23. Scale bars: A, B, D = 1 mm; C = 0.5 mm.

Figure 1 in A scolopocryptopid centipede (Chilopoda: Scolopendromorpha) from Mexican amber: synchrotron microtomography and phylogenetic placement using a combined morphological and molecular data set

Figure 1. Scolopocryptops simojovelensis sp. nov. Holotype AMNH Ch-SH7. A, dorsolateral view of complete specimen. B, distal part of right leg 20, showing tibial spur (ti) and tarsal spur (ta). C, dorsolateral view of cephalic plate and right antenna. D, distal part of tarsus and pretarsus of right leg 20, showing accessory spurs (ac). Scale bars: A = 5 mm; B = 0.5 mm; C = 1 mm; D = 0.1 mm.

Figure 59 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 59. Chosen best tree of phylogenetic reconstruction of the genus Soesiladeepakius using morphological data. White and black circles on branches represent, respectively, homoplasious and nonhomoplasious transformations. Numbers over branches are Bremer support values. Numbers under circles indicate number of listed characters. For discussion on question marks under these numbers, see List of characters.

Figure 58 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 58. Consensus and bootstrap values (500 pseudoreplicates) found by maximum likelihood of the all-gene matrix. Names in bold letters represent salticids, whereas names on the right of the vertical bars represent major salticid taxa.

Figure 55 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 55. Phylogenetic reconstruction of salticid lineages under parsimony: single most parsimonious tree using the all-gene matrix. Names in bold letters and grey boxes represent salticids, whereas names on the right of the vertical bars represent major salticid taxa.

Figure 54 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 54. Phylogenetic reconstructions of salticid lineages under parsimony: majority consensus (0.5) using one (28S: 13 trees; Actin: two trees; 16S: six trees), two (ND1 + 16S: three trees; 28S + Actin: one tree), and three gene matrices (28S + Actin + 16S: six trees). Numbers on branches show group frequency. Names in bold letters and grey boxes represent salticid taxa.

Figure 47–52 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 47–52. Soesiladeepakius spp., left male palpal femora, ventral view. 47, Soesiladeepakius lyra sp. nov. 48, Soesiladeepakius retroversus sp. nov. 49, Soesiladeepakius arthrostylus sp. nov. 50, Soesiladeepakius biarmatus sp. nov. 51, Soesiladeepakius gasnieri sp. nov. 52, Soesiladeepakius uncinatus sp. nov.

Figure 56 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 56. Phylogenetic reconstructions of salticid lineages under maximum likelihood: best trees using single gene regions. Branch length is proportional to substitution rate per site. Names in bold letters represent salticid taxa.

Figure 41–46 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 41–46. Soesiladeepakius arthrostylus sp. nov. 41, left male palp, prolateral view. 42, ventral view. 43, retrolateral view. 44, ventroretrolateral view. 45, bulb, clarified, ventral view. 46, posterior view. co?, putative true conductor; ma?, putative median apophysis.

Figure 57 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 57. Best tree of phylogenetic reconstruction analyses of salticid lineages using maximum likelihood and the all-gene matrix. Branch length is proportional to substitution rate per site. Names in bold letters represent salticid taxa.

Figure 33–37 in DNA sequences corroborate Soesiladeepakius as a non-salticoid genus of jumping spiders: placement with lapsiines, phylogeny, and description of six new species (Araneae, Salticidae)

Figure 33–37. Soesiladeepakius biarmatus sp. nov. 33, left male palp, prolateral view. 34, ventral view. 35, retrolateral view. 36, female epigyne, ventral view. 37, dorsal view, clarified.