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Fig. 3 in Communities Of Ditylenchus Destructor Satellite Species Of Nematodes In Infected Potato Tubers: Species Composition Of Phytonematode Complex And The Structure Of Their Infracommunities

Fig. 3. The dynamics of the ratio of the total number of various trophoecological group nematodes during the disease of potato tubers caused by D. destructor.

opencc-by-4.0Nov 2019View details →

Fig. 1 in Communities Of Ditylenchus Destructor Satellite Species Of Nematodes In Infected Potato Tubers: Species Composition Of Phytonematode Complex And The Structure Of Their Infracommunities

Fig. 1. Ditylenchus destructor (Thorne, 1945) potato nematode: A — female; B — head end of the female; C — spicules; D — male; E — head end of the male; F, G — lateral field by the Thorne, 1945.

opencc-by-4.0Nov 2019View details →

Fig. 5 in Communities Of Ditylenchus Destructor Satellite Species Of Nematodes In Infected Potato Tubers: Species Composition Of Phytonematode Complex And The Structure Of Their Infracommunities

Fig. 5. Occurrence of various species of phytonematodes during successive stages of the pathological process.

opencc-by-4.0Jun 2024View details →

Tuber melanosporum datasets from Taschen et al. 2016

<p>3 genetic datasets in genepop (.gen) or GenAlEx format (.csv) :</p> <ul> <li>"zygotes_SB1.gen"= genepop file containing 20 "diploid" individuals genotyped with 13 SSR markers, in one sampling site (SB1)</li> <li>"zygotes_SB2.gen"  = genepop file containing 10 "diploid" individuals genotyped with 13 SSR markers, in one sampling site (SB2)</li> <li>"SB1.csv" = GenAlEx file containing 19 haploid individuals genotyped with 11SSR markers, in one sampling site (SB1)</li> <li>"SB2.csv" = GenAlEx file containing 13 haploid individuals genotyped with 11SSR markers, in one sampling site (SB2)</li> </ul>

Fig. 3 in Assessing genetic diversity of three species of potato tuber moths (Gelechiidae, Lepidoptera) in the Ecuadorian highlands

Fig. 3. Distribution of 5 haplotypes and sequence identity between each pair of Symmetrischema tangolias haplotypes. St-H1 was present in all 4 provinces; St-H2 was present in 3 provinces; the other 3 haplotypes were present only in 1 province for each haplotype. Arrows point to province(s) instead of a specific sampling location.

Fig. 1 in Assessing genetic diversity of three species of potato tuber moths (Gelechiidae, Lepidoptera) in the Ecuadorian highlands

Fig. 1. Use of pheromone traps to collect potato tuber moths in Cacha, Chimborazo, and Tishinguirí, Bolívar: (A) potato crops are grown in mountainous regions of Ecuador where smallholder terrace farming is predominant; (B) low-cost pheromone traps were made of plastic bottles; a species-specific lure is fixed to the bottle cap using a string, and thumb-sized holes were carved to allow moths to fly into the bottle that was filled with soapy water; (C) 3 different traps were placed (pointed by arrows) in each field at least 100 m apart to catch different moths.

Fig. 5 in Assessing genetic diversity of three species of potato tuber moths (Gelechiidae, Lepidoptera) in the Ecuadorian highlands

Fig. 5. Distribution of 3 haplotypes and sequence identity between each pair of Phthorimaea operculella haplotypes. Po-H1 was present in all 4 provinces, Po-H3 was present only in Cotopaxi and Chimborazo; Po-H2 was limited to Tungurahua.

Fig. 2 in Assessing genetic diversity of three species of potato tuber moths (Gelechiidae, Lepidoptera) in the Ecuadorian highlands

Fig. 2. Alignment of 5 COI haplotype sequences of Symmetrischema tangolias samples. KX443104.1 is a reference sequence from GenBank. Sequences of these 5 haplotypes were deposited in GenBank with accession numbers MN223391 to MN223395.

Fig. 4 in Assessing genetic diversity of three species of potato tuber moths (Gelechiidae, Lepidoptera) in the Ecuadorian highlands

Fig. 4. Alignment of 3 unique COI haplotype sequences of Phthorimaea operculella. MF121882 is a reference sequence from GenBank. Sequences of these 3 haplotypes were deposited in GenBank with accession numbers MN205567 to MN205569.

Fig 4 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 4. Phylogenetic relationships among Asian black truffles based on MAT1-1-1 and MAT1-2-1 sequences. The phylogram was obtained by maximum likelihood inference under the TN93 model. SH-aLRT values and Bayesian posterior probabilities are shown as ML/BPP. https://doi.org/10.1371/journal.pone.0193745.g004

Fig 3 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 3. Relative frequencies of asci with one to six ascospores per ascus for the studied taxa. https://doi.org/10.1371/journal.pone.0193745.g003

Fig 2 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 2. Ascospore spine height of four-spored asci (A) and width of spine bases (B), for the studied taxa. Different letters above boxes indicate significant differences between mean according to Tukey–Kramer honestly significant difference test (P <0.01). https://doi.org/10.1371/journal.pone.0193745.g002

Fig 6 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 6. Tuber longispinosum photographs (holotype, TFM: S17009). A. Dried ascomata (bar = 1 cm). B. Fruit bodies photographed in the field. C. Peridial warts, (bar = 3 mm). D. Asci and ascospores (bar = 30 μm). E. Ascospore (bar = 10 μm). F. Peridium in cross section (bar = 50 μm). https://doi.org/10.1371/journal.pone.0193745.g006

Fig 1 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 1. SEM images of ascospores for Asian black truffles, showing the details of ornamentation. A–C: Tuber longispinosum (A: K70, B: K209, C: K466), D–F: Tuber sp. 6 (D: K152, E: S4, F: S23), G–I: T. formosanum (G: HKAS48268 paratype, H: HKAS62628 holotype, I: HKAS79547), J–L: T. himalayense (J: HP1-3, K: MY5-1, L: SHD1-1- 1), M–O: T. indicum (M: YSH1-8, N: YR1-4, O: HD6-16). Bars = 10 μm. https://doi.org/10.1371/journal.pone.0193745.g001

Fig 7 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 7. Tuber himalayense photographs (TFM: S17015). A. Ascomata (bar = 1 cm). B. Peridial warts, (bar = 3 mm). C. Asci and ascospores (bar = 30 μm). D. Peridium and glebal tissue in cross section (bar = 50 μm). E. Ascospore (bar = 10 μm). https://doi.org/10.1371/journal.pone.0193745.g007

Fig 5 in Using mating-type loci to improve taxonomy of the Tuber indicum complex, and discovery of a new species, T. longispinosum

Fig 5. Phylogenetic relationships among Asian black truffles based on three combined datasets (ITS, β-tublin, and TEF1-α). The phylogram was obtained by maximum likelihood inference under the TN93+I model. SH-aLRT values and Bayesian posterior probabilities are shown as ML/BPP.

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Figures 7–8 in Current disposition of earwigflies, Merope tuber Newman and Austromerope poultoni Killington (Mecoptera: Meropeidae), in the Florida State Collection of Arthropods

Figures 7–8. SEM images of undescribed presumptive stridulatory or wing interlocking structures on male Austromerope poultoni, near Yornup, Western Australia, Australia, collected 11 November 2001. 7) Jugal lobe of right wing; ventral view. Image originally shot at 250x; scale bar = 100 μm. 8) Ridged surface of right metanotum; dorsal view. Image originally shot at 1200x; scale bar = 10 μm. Photographs by Louis A. Somma.

opencc-by-4.0Feb 2016View details →

Figures 4–6 in Current disposition of earwigflies, Merope tuber Newman and Austromerope poultoni Killington (Mecoptera: Meropeidae), in the Florida State Collection of Arthropods

Figures 4–6. SEM images of male meropeids. 4) Merope tuber Apalachicola Bluffs Preserve, Nature Conservancy, Liberty County, Florida, USA, collected 20 April–4 May 1996; anterodorsal view of distal tips of dististyles. Image originally shot at 130x; scale bar = 100 μm. 5) Austromerope poultoni near Yornup, Western Australia, Australia, collected 11 November 2001; dorsocaudal view of distal tip of right dististyle. Image originally shot at 330x; scale bar = 50 μm. 6) SEM image of undescribed sensila on flagellomeres of right antenna of Austromerope poultoni, near Yornup, Western Australia, Australia, collected 11 November 2001; dorsal view, lower left is distalmost. Image originally shot at 50x; scale bar = 500 μm. Photographs by Louis A. Somma.

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Figures 1–3 in Current disposition of earwigflies, Merope tuber Newman and Austromerope poultoni Killington (Mecoptera: Meropeidae), in the Florida State Collection of Arthropods

Figures 1–3. Dorsal views of adult meropeids. 1) Female Merope tuber, Cades Cove, Abrams Creek, Blount County, Tennessee, Great Smoky Mountains National Park, USA, collected 7–9 July 2003; wings unspread. Body length = 10.5 mm. Photograph by David Serrano. 2) Female Merope tuber, Ferguson Cabin, The Purchase, Haywood County, North Carolina, Great Smoky Mountains National Park, USA, collected 15–17 August 2003; wings spread. Body length = 11 mm. Photograph by David Serrano. 3) Male Austromerope poultoni, near Yornup, Western Australia, Australia, collected 11 November 2001; wings spread. Body length = 7.0 mm; basistyle length = 7.6 mm. Photograph by Louis A. Somma.