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FIGURES 1–20 in What is a genus-interpreting structural diversity among species of urothripine Phlaeothripinae (Thysanoptera)

FIGURES 1–20. Antennae of urothripines. (1) Amphibolothrips grassii; (2) A. knechteli; (3) Conocephalothrips tricolor; (4) Bebelothrips flavicinctus; (5) Baenothrips guatemalensis; (6) B. moundi; (7) B. chiliensis; (8) B. cuneatus; (9) Bradythrips hesperus; (10) Stephanothrips buffai; (11) S. uvarovi (paratype); (12) S. uvarovi (Brazil); (13) S. howei; (14) S. barretti; (15) S, broomei; (16–17) S. erythrinus (paratypes); (18) S. austrinus; (19) S. adnatus; (20) Antennae of five Asian Stephanothrips species in Okajima (1989).

FIGURE 29 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURE 29. Violin plot with cell diameter of the four species studied, based on the data of Table 1.

FIGURES 7–11 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURES 7–11. Skeletonema ardens, SEM (7, 9) and TEM (8, 10, 11). Fig. 7. A complete frustule in a chain, showing high mantle with tiny spines or knobs (small arrows), intercalary and terminal fulto- and rimoportulae (TR with an arrow), and 1:1 junctions of IF. Fig. 8. Terminal valve with high mantle bearing tiny spines or knobs (small arrows), fultoportulae (perhaps broken), a rather short rimoportula (arrow), and parts of the valvocopula and copulae. Fig. 9. Two terminal cells in division showing the IF's and the long IR's, almost touching each other (arrow). Fig. 10. Detail of TF's and TR (arrows), note the very spiny tips of the TF's. Fig. 11. Detail of a terminal truncated fultoportula showing three satellite pores at its base (arrow).

FIGURES 1–6 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURES 1–6. Skeletonema ardens, LM (1–3), SEM (4, 5) and TEM (6). Figs 1–3. Three different chains with 2, 5 and 6 cells, respectively, with one to two chloroplasts per cell; the small arrow (Fig. 1) points to a long terminal process (probably a rimoportula). Fig. 4. A short chain with two cells, arrows point to terminal rimoportulae (TR's). Fig. 5. Solitary cell with very long fulto- and rimoportulae (arrows). Fig. 6. Chain with three cells, showing the terminal fulto- and the single rimoportula (arrow).

FIGURES 23–28 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURES 23–28. Skeletonema tropicum, LM (23) and SEM (24–28). Fig. 23. A long and robust chain with 12 cells, some cells dividing and each cell with 4–6 chloroplasts. Fig. 24. Terminal part of a chain, with developing or collapsed TF's and TR, and very short IR's (small arrows). Fig. 25. A complete chain (6 cells), most probably developing, with overlaid copulae between various intercalary valves. Fig. 26. Intercalary cells and valves with IF's fusing in 1:1 and 1:2 types; delicate and thin threads of unknown nature are coming out from some IF's (small arrows). Fig. 27. Terminal cell and valve showing the areolae on the face and mantle, mantle also shows very delicate siliceous ridges, the TF's have clawlike tips or tips with fine spines, and a single, long TR (arrow). Fig. 28. Internal view of a valve with details of the areolation, the fultoportulae (with three satellite pores), and a single labiate structure of the rimoportula (arrow).

FIGURES 18–22 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURES 18–22. Skeletonema pseudocostatum, LM (18) and SEM (19–22). Fig. 18. A complete chain with 9 cells, one cell is dividing (arrow). Fig. 19. Broken chain with 4 cells in development. Fig. 20. Terminal part of a chain, with fusion of the IF's, including 1:1 and 1:2 junctions. Fig. 21. Two terminal valves with relative high valve mantle and TF's showing the characteristic spines of their tips (small arrows) and a TR (arrow). Fig. 22. A terminal valve showing the areolae on the face, TF's and TR (arrow).

FIGURES 12–17 in Further studies on the species diversity of the marine planktonic diatom genus Skeletonema (Bacillariophyta) in the Mexican Pacific

FIGURES 12–17. Skeletonema grevillei, LM (12), SEM (13–16) and TEM (17). Fig. 12. A rather long chain of 8 cells, some of them dividing, containing two chloroplasts per cell. Fig. 13. Terminal part of a chain showing terminal and intercalary valves, siliceous ridges (small arrows) between face and mantle at the terminal valve, TF's, one TR (arrow), and broken IF's. Fig. 14. Intercalary valves with IF's fusing to those of sibling valve in 1:1 junction type, a short IR (arrow), and siliceous ridges (small arrows) around bases of IF's. Fig. 15. Terminal valve with fultoportulae (TF's) irregularly truncated, a marginal rimoportula (arrow), and siliceous ridges (small arrows) dividing valve face and mantle. Fig. 16. Another terminal valve showing details of the areolae, siliceous ridges (small arrows) around bases of the TF's, and a marginal rimoportula with slightly inflated tip (arrow). Fig. 17. Details of the three to four satellite pores surrounding each fultoportula (arrows).

FIGURE 2 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 2. Maximum likelihood phylogenetic tree based on combined SSU-ITS-LSU sequence data for Sympoventuriaceae. Bootstrap support values of maximum likelihood greater than 60% and Bayesian posterior probabilities (BYPP) greater than 0.95 are indicated above the nodes. Newly added strains are in blue and ex-type strains are in bold. The tree is rooted to Venturia inaequalis (CBS 594.70 and CBS 815.69). Isolated substrates are indicated in triangles. Black: Human/ animal, green: plants, brown: soil, purple: rock/ sediments, blue: aquatic habitat. unknown: empty

FIGURE 5 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 5. Verruconis soli (MFLU22-0257, holotype) a. Colony from above (on PDA). b. Colony from below (on PDA). c. Sporulated colony. d. Melanized hyphae. e. Hyaline hyphae f–l. Conidiogenesis. m–r. Conidia. Scale bars: e = 15 μm, d, f–k = 10 μm, l–r = 5 μm.

FIGURE 6 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 6. Verruconis thailandica (MFLU22-0258, new record) a. Colony from above (on PDA). b. Colony from below (on PDA). c. Sporulated colony with conidial attachments on the mycelium. d. Immature hyphae e. Mature septate hyphae. f. Conidiogenesis synnematous. g–j. Conidiogenesis mononematous conidiophores. k–p Conidia. Scale bars: d, e = 20 μm, f–l, n = 10 μm, m, o, p = 5 μm.

FIGURE 4 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 4. Curvularia chiangmaiensis (MFLU22-0252, new record) a. Colony from above (on PDA). b. Colony from below (on PDA). c. Sporulated colony with conidial attachments on the mycelium. d. Immature hyphae e. Mature melanized hyphae. f. Hyaline chlamydospores. g. Melanized chlamydospores h. Macronematous conidiogenesis on the conidiophore. i–m. Conidiogenesis. n–s. Conidia. Scale bars: g = 25 μm, d–f, h–l = 20 μm, m–s= 10 μm

FIGURE 1 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 1. (Continued) Maximum likelihood phylogenetic tree generated of the combined ITS-GAPDH-tef1-α sequence data for Curvularia.

FIGURE 3 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 3. Curvularia chiangraiensis (MFLU22-0256, holotype). a. Colony from above (on PDA). b. Colony from below (on PDA). c. Sporulated colony with conidial attachments on the mycelium. d. Immature hyphae. e. Mature melanized hyphae. f–k. conidiogenesis. l–p. Conidia. Scale bars: g = 25 μm, d–f, h–l = 20 μm, g, m–p= 10 μm.

FIGURE 1 in Isolation and characterization of novel Dothideomycetes species from forest soils in Chiang Rai and Krabi (Thailand): additions to the diversity of Curvularia and Verruconis

FIGURE 1. Maximum likelihood phylogenetic tree generated of the combined ITS-GAPDH-tef1-α sequence data for Curvularia. Bootstrap support values of maximum likelihood greater than 60% and Bayesian posterior probabilities (BYPP) greater than 0.95 are indicated above the nodes. Newly added strains are in blue and ex-type strains are in bold. The tree is rooted to Bipolaris maydis (CBS13629P) and B. panici-miliacei (CBS 19929). Isolated substrates/ habitat is indicated in triangles. Black: Human/ animal, green: plants, brown: soil, pink: air, blue: aquatic habitat. unknown:empty

Figure 18 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 18. Species of Phyllopterini, Pycnopalpini, Scaphurae genus group, Scudderini, Enthephippion olivaceum and Pseudophyllinae sampled at Guartelá State Park. (a) Phylloptera fosteri, male; (b) Phylloptera sp. 1, female; (c) Pycnopalpa bicordata, male; (d) Topana angulata, female; (e) Scaphura elegans, male; (f) Homotoicha similis, male (top) and female (bottom); (g) Theudoria melanocnemis, male; (h) Enthephippion olivaceum, male (top right) and female (bottom left); (i) Dasyscelus intermedius.

Figure 16 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 16. Phaneropteroides longicercatus, female. (a) in vivo individual; (b) head, anterior view; (c) head and pronotum, lateral view; (d) head and pronotum, dorsal view; (e) ovipositor, lateral view; (f) female left tegmen (veins: black = ScP; blue = R; red = M); (g) hindwing.

Figure 15 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 15. Anaulacomera (Cervicercora) melloi sp. nov. (a) Holotype, in vivo; (b) holotype, lateral habitus; (c) head and pronotum, dorsolateral view; (d) male left stridulatory area, dorsal view; (e, f) male subgenital plate and cerci, lateral and ventral view, respectively; (g) left = drawing of male cercus, lateral view, right = drawing of ventroproximal process of cercus, dorsal view; (h) male left tegmen (veins: black = ScP; blue = R; red = M; yellow = M+ CuA; green = CuA; arrow indicates A1). Abbreviations: d, distal process of cercus; ds, dorsal process of cercus; vp, v, and vd, ventroproximal, ventral and ventrodistal lobules or process of cercus, respectively.

Figure 17 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 17. Tomeophera modesta biology. (a) First-instar nymph; (b–d) third-, fourth- and fifth-instar nymphs; (e) adult male; (f) adult female; (g) female after copulation, with spermatophore and spermatophyllax attached in her terminalia; (h) an adult individual of Epidendrum delicatum (Orchidaceae) at the site where a female laid her eggs and the individuals emerged; (i) flowers of E. delicatum. Photos (h) and (i) kindly provided by Phillip Watzke Engelking.

Figure 7 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 7. Principal component analysis: (a) variation of data in each component (b–c), and box plots of sound variables of Conocephalus (Anisoptera) species. Same letters indicate data are not statistically different; different letters represent isolated differences. The two principal components exploit 79.21% of the data. (a–b) PF = peak frequency; BW = bandwidth 90%; PD = pulse duration; ED = echeme duration; MI = mute interval. (b–h) Cgo = C. (A.) goianus; Cgu = C. (A.) guartela sp. nov., Csa = C. (A.) saltator; and Ctr = C. (A.) truncatus. In box plots, middle line shows median; upper and lower box limits indicate first and third quartiles, respectively; and whiskers show the non-outlier range.

Figure 14 in Katydids (Orthoptera: Tettigoniidae) from Guartelá State Park, State of Paraná, Southern Brazil: diversity, bioacoustics and description of five new species

Figure 14. Anaulacomera (Anaulacomera) szinwelskii sp. nov. (a) Holotype, in vivo; (b) holotype, lateral habitus; (c) head and pronotum, dorsolateral view; (d) male stridulatory area; (e) male stridulatory file; (f) male subgenital plate and cerci, ventral view; (g) male left tegmen (veins: black = ScP; blue = R; red = M; yellow = M+ CuA; green = CuA; arrow indicates A1); (h) sonogram of an echeme; (i) spectrogram of an echeme, in linear intensity scale.