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99 results for “Tylenchida”
Fig. 2 in Current Distribution Of Golden Potato Cyst Nematode, Globodera Rostochiensis (Tylenchida, Heteroderidae), In Ukraine
Fig. 2. Occurrence of Golden potato cyst nematode, Globodera rostochiensis, on the territory of Ukraine: A — Volynska; B — Rivnenska; C — Zhytomyrska; D — Kyivska; E — Сhernihivska; F — Sumska; G — Lvivska; H — Ternopilska; I — Khmelnytska; J — Cherkaska; K — Poltavska; L — Kharkivska; M — Luhanska; N — Zakarpatska; O — Ivano-Frankivska; P — Chernivetska; Q — Vinnytska; R — Kirovogradska; S — Dnipropetrovska; T — Donetska; U — Odeska; V— Mylolaivska; W — Khersonska; X — Zaporizka; Y — AR Krym.
Fig. 1 in Current Distribution Of Golden Potato Cyst Nematode, Globodera Rostochiensis (Tylenchida, Heteroderidae), In Ukraine
Fig. 1. Study area of monitoring survey of G. rostochiensisin soils of private farm plots (own data, 2017–2018) 1. Chernihiv Region: а — Horodniansky District; b — Chernihivsky District; c — Mensky District; d — Koryukivsky District; e — Novhorod-Siversky District. 2. Kyiv Region: а — Borodiansky District.
Figure 6 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 6: Phylogenetic relationships of Tylenchus zeae n. sp. with other select Tylenchidae, as inferred from a 418 bp alignment of mitochondrial COI sequences, according to the GTR + I + G model of nucleotide substitution and incorporated into MrBayes (MB) as described. A 50% majority rule consensus tree was generated with posterior probabilities (PP) shown on appropriate branches, with Bursaphelenchus cOnicaudatus as the outgroup. New sequences are indicated in bold.
Figure 4 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 4: Phylogenetic relationships of Tylenchus zeae n. sp. with other select Tylenchidae, as inferred from a 1585 bp alignment of 18S rRNA sequences, according to the GTR + I + G model of nucleotide substitution and incorporated into MrBayes (MB) as described. A 50% majority rule consensus tree was generated with posterior probabilities (PP) shown on appropriate branches, with AphelenchOides besseyi as the outgroup. New sequences are indicated in bold.
Figure 3 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 3: Line drawings of Tylenchus zeae n. sp. A: Female pharyngeal region; B: Female lip region showing stylet; C: Areolated lateral field; D: Male spicule, gubernaculum, and bursa. E: Vulval region showing vulva, uterus, and spermatheca; F–G: female tails.
Figure 2 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 2: Photomicrographs of Tylenchus zeae n. sp. males and females. A–B: Anterior end with arrows pointing toward the excretory pore; C: Excretory pore; D: Areolated lateral field; E: Entire female body; F: Female basal bulb; G: Female gonad; H–I: female posterior end with arrow pointing the anal area (H); J: Female vulva region with arrow pointing toward the spermatheca; K: Male spicule.
Figure 5 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 5: Phylogenetic relationships of Tylenchus zeae n. sp. with other select Tylenchidae, as inferred from an 822 bp alignment of 28S rRNA sequences, according to the GTR + I + G model of nucleotide substitution and incorporated into MrBayes (MB) as described. A 50% majority rule consensus tree was generated with posterior probabilities (PP) shown on appropriate branches, with Bursaphelenchus mucrOnatus as the outgroup. New sequences are indicated in bold.
Figure 1 in Molecular and morphological characterization of Tylenchus zeae n. sp. (Nematoda: Tylenchida) from Corn (Zea mays) in South Carolina
Figure 1: Scanning electron micrograph (SEM) images of Tylenchus zeae n. sp. A: Female specimen, anterior end, arrow pointing toward the excretory pore; B: Female specimen, head; C: Female specimen, face view; D: Lateral field (midbody); E: Female specimen, anal opening; F: Female specimen, vulval opening; G: Male specimen, spicule; H: Female specimen, arrow showing the anal opening; I: Female specimen, tail; J: Male specimen, posterior end.
Figure 4 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 4: Bayesian 50% majority rule consensus tree inferred from the SSU rDNA of Boleodorus bushehrensis n. sp. under the GTR + G + I model. Bayesian posterior probability values are given for corresponding clades. The new species is in bold font. GTR, general time-reversible; G, gamma; I, invariant; rDNA, ribosomal DNA; SSU, small subunit.
Figure 3 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 3: Scanning electron microphotographs of Boleodorus bushehrensis n. sp. (female). (A) Anterior body region showing beginning of lateral field (arrow showing the excretory pore). (B–D) Anterior end in ventrolateral, ventral, and en face views, respectively (arrows pointing to the amphidial openings). (E, F) Excretory pore in lateral and ventral views, respectively (arrow). (G) Lateral field at vulva. (H, I) Vulva in lateral and ventral views, respectively. (J) Anterior body region in ventral view showing excretory pore. (K,N) Lateral field at midbody showing unusual division and four incisures, respectively. (L,M) Anus in ventral and lateral views, respectively.
Figure 2 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 2: Light microphotographs of Boleodorus bushehrensis n. sp. (A, B, C, E, F, I, J, K: female; D, G, H: male). (A, B) Anterior region showing cephalic region and stylet, respectively. (C) Pharyngeal metacorpus. (D) Anterior body region showing the oral aperture in a depression. (E, J) Pharyngeal bulb region showing excretory pore. (F, G, I) Tail tip. (H) Bursa. (K) Lateral field at midbody. (All scale bars = 10 Mm).
Figure 6 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 6: Scanning electron microphotographs of Boleodorus thylactus Thorne, 1941 (female). (A–C) Anterior end in ventral and frontal views, respectively (arrows pointing to the amphidial openings). (D,E) Excretory pore in ventral and lateral views (arrow). (F, K) Lateral field at midbody showing four incisures. (G,H) Vulva in lateral and ventral views, respectively. (I) Posterior end in lateral view. (J) Anus in ventral view.
Figure 1 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 1: Line drawings of Boleodorus bushehresnsis n. sp. (A, B, D, E, G: female; C, F: male). (A) Pharynx. (B) Posterior body region. (C) Anterior body region. (D) Vulval region, showing offset spermatheca. (E–G) Tail.
Figure 5 in Description of BOLeODOruS buShehreNSIS n. sp. (Rhabditida: Tylenchidae) from Southern Iran, and Observations on a Commonly Known Species
Figure 5: Bayesian 50% majority rule consensus tree inferred from the LSU rDNA D2–D3 sequences of Boleodorus bushehrensis n. sp. under the GTR + G + I model. Bayesian posterior probability values are given for the corresponding clades. The new species is in bold font. GTR, general time-reversible; G, gamma; I, invariant; LSU, large subunit; rDNA, ribosomal DNA.
Figure 5 in Cephalenchus driekieae n. sp. (Nematoda: Tylenchidae) from South Africa, a new member of the genus with a long pharyngeal overlap
Figure 5: Bayesian 50% majority rule consensus tree inferred from D2-D3 expansion segments of large subunit (LSU) rDNA gene sequence of CephalenChUS dRiekieae n. sp. from South Africa under GTR + I + G model (lnL = 7,632.2964; freqA = 0.1794; freqC = 0.2463; freqG = 0.3573; freqT = 0.2170; rAC = 0.9583; rAG = 2.6626; rAT = 1.2424; rCG = 0.6711; rCT = 5.4981; Pinv = 0.2528; Alpha = 0.6707). Bayesian posterior probability (BPP) values>0.50 are given for appropriate clades. The sequence of the new species is indicated by bold font.
Figure 4 in Cephalenchus driekieae n. sp. (Nematoda: Tylenchidae) from South Africa, a new member of the genus with a long pharyngeal overlap
Figure 4: Bayesian 50% majority rule consensus tree inferred from small subunit (SSU) rDNA gene sequence of CephalenChUS dRiekieae n. sp. from South Africa under GTR + I + G model (lnL = 6,436.7202; freqA = 0.2443; freqC = 0.2268; freqG = 0.2864; freqT = 0.2425; rAC = 1.0699; rAG = 2.8891; rAT = 1.2180; rCG = 1.1273; rCT = 5.8691; Pinv = 0.4073; Alpha = 0.6044). Bayesian posterior probability (BPP) values>0.50 are given for appropriate clades. The sequence of the new species is indicated by bold font.
Figure 2 in Cephalenchus driekieae n. sp. (Nematoda: Tylenchidae) from South Africa, a new member of the genus with a long pharyngeal overlap
Figure 2: Light micrographs of CephalenChUS dRiekieae n. sp. from South Africa, female. (A) Entire body; (B) pharyngeal region; (C) lateral lines; (D) part of reproduction system; (E) anterior region; (F) pharyngeal overlap; (G) tail; (H) tail terminus. (Scale bars = 10 µm).
Figure 3 in Cephalenchus driekieae n. sp. (Nematoda: Tylenchidae) from South Africa, a new member of the genus with a long pharyngeal overlap
Figure 3: Scanning electron microscopy of CephalenChUS dRiekieae n. sp. from South Africa, female. (A) Anterior region; (B) lip region; (C) posterior body region; (D, E) vulval region in lateral and ventral view; (F) anus and lateral lines in anus region.
Figure 1 in Cephalenchus driekieae n. sp. (Nematoda: Tylenchidae) from South Africa, a new member of the genus with a long pharyngeal overlap
Figure 1: Line drawings of CephalenChUS dRiekieae n. sp. from South Africa, female. (A) Entire body; (B) anterior region; (C) pharyngeal region; (D) reproductive system; (E) tail.
Figure 1 in Response of Hypothenemus hampei Ferrari (Coleoptera: Curculionidae: Scolytinae) parasitized by the nematode Metaparasitylenchus hypothenemi Poinar (Tylenchida: Allantonematidae) to different colors of light
Figure 1: Relative attraction of CBB (parasitized with MetaparaSityleNChUS hypOtheNeMi and non-parasitized) to 14 light wavelengths compared to the control (570 nm). The asterisk-labeled treatment was statistically different to the control using the χ2 test (P = 0.01). Relative attraction (%) was calculated using the number of borers that chose the treatment and control, applying the formula: [(treatment) (100) / (treatment + control)].
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