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Figures 8–17 in New taxa of the parasitic quill mites associated with accipitrid birds indicating close relationship of falconid birds to Psittaci-Columbi clade

Figures 8–17. Peristerophila accipitridicus sp. n. female. (8) Hypostomal apex in dorsal view; (9) peritremes; (10) palpa in dorsal view; (11) palpa in ventral view; (12) tarsus of leg III in dorsal view; (13) tarsus of leg III in ventral view; (14) solenidions of leg I; (15) propodonotum, male; (16) peritremes; (17) ano-genital region. Notes: Scale bars, (8–14, 16) 20 µm; (15, 17) 50 µm. Explanation of labels in text.

Figures 1–2 in New taxa of the parasitic quill mites associated with accipitrid birds indicating close relationship of falconid birds to Psittaci-Columbi clade

Figures 1–2. Megasyringophilus aquilus sp. n. female. (1) Dorsal view; (2) ventral view. Note: Explanation of labels in text.

Figures 6–7 in New taxa of the parasitic quill mites associated with accipitrid birds indicating close relationship of falconid birds to Psittaci-Columbi clade

Figures 6–7. Peristerophila accipitridicus sp. n. female. (6) Dorsal view; (7) ventral view. Note: Explanation of labels in text.

Figures 18–19 in New taxa of the parasitic quill mites associated with accipitrid birds indicating close relationship of falconid birds to Psittaci-Columbi clade

Figures 18–19. Peristerophila accipitridicus sp. n. male. (18) Dorsal view; (19) ventral view. Note: Explanation of labels in text.

Figures 3–5 in New taxa of the parasitic quill mites associated with accipitrid birds indicating close relationship of falconid birds to Psittaci-Columbi clade

Figures 3–5. Megasyringophilus aquilus sp. n. female. (3) Gnathosoma in ventral view; (4) tarsus of leg III in ventro-lateral view; (5) claw with basal angle.

opennotspecifiedMay 2010View details →

Figure 6. Molecular time-scale for decapodiform cephalopods indicating a in A redescription of the fossil coleoid cephalopod genus Palaeololigo Naef, 1921 (Decapodiformes: Palaeololiginidae) and its relationship to Recent squids

Figure 6. Molecular time-scale for decapodiform cephalopods indicating a potential position for the Palaeololiginidae and Chtenopteryx on two alternative decapodiform phylogenies (modified from Strugnell et al. [2006]). The topologies result from two alternative Bayesian analyses using: (A) all three codon positions of three nuclear genes (octopine dehydrogenase, rhodopsin, pax-6) partitioned by codon; and (B) only first and second codon positions of the same three nuclear genes. The divergence dates of Palaeololiginidae from Bathyteuthis and Chtenopteryx and also Chtenopteryx from Bathyteuthis are hypothetical. A simplified possible scenario of morphological character loss is depicted. Notes: Ɨ indicates the presence of suckers on the buccal lappets; • indicates the presence of accessory nidamental glands (which is present in Chtenopteryx, but apparently lost in Bathyteuthis); indicates the presence of fused axons in the giant nerve fibre system; ▲ indicates the "juvenile" characters for Oegopsida detailed by Naef (1923), namely the form of gladius with a long narrow rachis, subterminal position of the fins, and also quadriserial suckers on the arms, which Naef (1923) believed to the ancestral form for all Oegopsida; "open" shapes (O, O, Δ, Z)

Figure 4 in Community properties of benthic molluscs as indicators of environmental stress induced by organic enrichment

Figure 4. MDS plots of Functional Feeding Groups (FFG) where mean abundance of each group is superimposed.

Figure 3 in Community properties of benthic molluscs as indicators of environmental stress induced by organic enrichment

Figure 3. MDS plot (a) and cluster analysis (b) of species abundances highlighting three main groups of areas.

Figure 2 in Community properties of benthic molluscs as indicators of environmental stress induced by organic enrichment

Figure 2. Probability funnels of diversity indices Δ+ (a) and Λ+ (b) for all sampling stations and seasons in the study area.

Figure 1. A in Community properties of benthic molluscs as indicators of environmental stress induced by organic enrichment

Figure 1. A map of the island of Lesvos indicating Gera Gulf, the study area (Palioloutro) where the fish farm unit is located and the sampling sites.

FIGURES NJ27–NJ30. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ27, Scrobipalpa acuminatella; NJ28, Sophronia gelidella; NJ29, Anthophila fabriciana; NJ30, Phiaris bipunctana. in Shared but overlooked: 30 species of Holarctic Microlepidoptera revealed by DNA barcodes and morphology

FIGURES NJ27–NJ30. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ27, Scrobipalpa acuminatella; NJ28, Sophronia gelidella; NJ29, Anthophila fabriciana; NJ30, Phiaris bipunctana.

FIGURES NJ17–NJ19, NJ21. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ17, Agonopterix conterminella. NJ18, Depressaria depressana; NJ19, Coleophora atriplicis; NJ21, Coleophora granulatella. in Shared but overlooked: 30 species of Holarctic Microlepidoptera revealed by DNA barcodes and morphology

FIGURES NJ17–NJ19, NJ21. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ17, Agonopterix conterminella. NJ18, Depressaria depressana; NJ19, Coleophora atriplicis; NJ21, Coleophora granulatella.

FIGURES NJ20, NJ22–NJ26. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ20, Coleophora glitzella; NJ22, Coleophora texanella; NJ23, Coleophora vitisella; NJ24, Scythris sinensis; NJ25, Altenia perspersella; NJ26, Gnorimoschema jalavai. in Shared but overlooked: 30 species of Holarctic Microlepidoptera revealed by DNA barcodes and morphology

FIGURES NJ20, NJ22–NJ26. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ20, Coleophora glitzella; NJ22, Coleophora texanella; NJ23, Coleophora vitisella; NJ24, Scythris sinensis; NJ25, Altenia perspersella; NJ26, Gnorimoschema jalavai.

FIGURES NJ7–NJ12. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ7, Parornix betulae; NJ8, Phyllonorycter maestingella; NJ9, Paraswammerdamia albicapitella; NJ10, Paraswammerdamia conspersella; NJ11, Plutella hyperboreella; NJ12, Lyonetia pulverulentella. in Shared but overlooked: 30 species of Holarctic Microlepidoptera revealed by DNA barcodes and morphology

FIGURES NJ7–NJ12. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ7, Parornix betulae; NJ8, Phyllonorycter maestingella; NJ9, Paraswammerdamia albicapitella; NJ10, Paraswammerdamia conspersella; NJ11, Plutella hyperboreella; NJ12, Lyonetia pulverulentella.

FIGURES NJ1–NJ6. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ1, Scardia amurensis; NJ2, Triaxomera parasitella; NJ3, Nemapogon cloacella; NJ4, Elabotia montelliella; NJ5, Tinea svenssoni; NJ6, Caloptilia suberinella. in Shared but overlooked: 30 species of Holarctic Microlepidoptera revealed by DNA barcodes and morphology

FIGURES NJ1–NJ6. Neighbor-joining trees. Scale bar = 1%. Blue circles indicate Nearctic specimens, red circles Palearctic specimens, and mixed circles indicate a combination of the two; diamonds indicate outgroups. In parentheses are numbers of specimens per node. NJ1, Scardia amurensis; NJ2, Triaxomera parasitella; NJ3, Nemapogon cloacella; NJ4, Elabotia montelliella; NJ5, Tinea svenssoni; NJ6, Caloptilia suberinella.

opennotspecifiedDec 2010View details →

FIG. 1 in New indications of the phylogenetic anity of Spongosorites suberitoides Diaz et al., 1993 (Porifera, Demospongiae) as revealed by 28S ribosomal DNA

FIG. 1. Strict consensus tree of two most parsimonious topologies. Numbers above the branches represent bootstrap support for the various clades with 1000 iterations under maximum parsimony, numbers below the branches are bootstrap support from 1000 iterations under distance matrix (and 100 iterations under maximum likelihood).

FIGURE 8 in Nuclear ITS/ETS sequence data indicate the membership of Senecio racemulifer, but not S. acutipinnus and S. graciliflorus, within the genus Jacobaea (Asteraceae, Senecioneae)

FIGURE 8. Phylogeny of tribe Senecioneae using maximum likelihood analysis based on concatenated ITS and ETS data. Bootstrap values (maximum likelihood/maximum parsimony; MLBS/MPBS) ≥ 70% and Bayesian posterior probabilities (PP) ≥ 0.95 are indicated above and below branches, respectively. Dashes (-) indicate bootstrap values <70%.

FIGURE 5 in Nuclear ITS/ETS sequence data indicate the membership of Senecio racemulifer, but not S. acutipinnus and S. graciliflorus, within the genus Jacobaea (Asteraceae, Senecioneae)

FIGURE 5. Senecio acutipinnus in the wild (Wenshan county, Yunnan, China). A. Habitat. B. Habit. C. Rhizome and roots. D. Proximal to distal stem leaves. E. Synflorescence. F. Capitula. G. Phyllaries (abaxial side). H. Disc florets. I. Achene and pappus. Photographed by Wen-qun Fei.

FIGURE 6 in Nuclear ITS/ETS sequence data indicate the membership of Senecio racemulifer, but not S. acutipinnus and S. graciliflorus, within the genus Jacobaea (Asteraceae, Senecioneae)

FIGURE 6. Senecio graciliflorus in the wild (Lhünzê, Xizang, China). A. Habitat. B. Habit. C. Rhizome and roots. D. Leaf. E. Synflorescence. F. Capitula. G. Phyllaries (abaxial side). H. Ray florets. I. Disc florets. Photographed by Long Wang.

FIGURE 7 in Nuclear ITS/ETS sequence data indicate the membership of Senecio racemulifer, but not S. acutipinnus and S. graciliflorus, within the genus Jacobaea (Asteraceae, Senecioneae)

FIGURE 7. Mitotic metaphase chromosomes (A–D) and karyotypes (E–H) of Senecio acutipinnus (A, B, E, F), S. graciliflorus (C, G), and S. racemulifer (= Jacobaea racemulifera; D, H). All the three species have 2n = 40 = 40 m. A–C, the same scale; E–H, the same scale.