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1,104 results for “morphological variations”
FIGURE 4 in Morphological and phylogenetic studies of Agaricus bresadolanus, Agaricus infidus (nom. inval.) and Agaricus romagnesii (Agaricaceae) reveal their conspecificity and variation in toxicity of this taxon
FIGURE 4. Bayesian phylogenetic tree inferred from the nrITS dataset of Agaricus sect. Spissicaules. Bayesian posterior probabilities (BPP) and the corresponding Maximum Likelihood Bootstrap (MLB) support values are shown above branches. Agaricus campestris MA-Fungi-80998 (NR_151745) was used as outgroup taxon.
FIGURE 3 in Morphological and phylogenetic studies of Agaricus bresadolanus, Agaricus infidus (nom. inval.) and Agaricus romagnesii (Agaricaceae) reveal their conspecificity and variation in toxicity of this taxon
FIGURE 3. Locations of the collecting sites of specimens of "Psalliota infida" and Agaricus bresadolanus in Turin. A. Gruppo Fiat, authentic specimen of "Psalliota infida" (duplicate in LAPAG 516). B. Viale Filippo Turati, authentic specimen of "Psalliota infida" (duplicate in LAPAG 1084). C. Parco del Valentino, Agaricus bresadolanus, TO-AV180518. D. Parco del Valentino, authentic specimen of "Psalliota infida". E. Fontana dei Francesi, authentic specimen of "Psalliota infida". Plate by L. A. Parra.
FIGURE 2 in Morphological and phylogenetic studies of Agaricus bresadolanus, Agaricus infidus (nom. inval.) and Agaricus romagnesii (Agaricaceae) reveal their conspecificity and variation in toxicity of this taxon
FIGURE 2. Relevant old herbarium material used in our study and analyses. A. authentic specimen of A. bresadolanus (LAPAG 680). B. authentic specimen of "Psalliota infida" (duplicate in LAPAG 1084). C. authentic specimen of "Psalliota infida" (duplicate in LAPAG 516). D. specimen from the same collecting site that one of the Alessio's original specimens from Turin (TO-AV180518). E. holotype of A. romagnesii. (KW-M 71174). F. authentic specimen of A. romagnesii (KW-M 71176) G. "A. alessii" in herbario M. Contu & L. Currelli (881204.A.377; duplicate in LAPAG 609). H. "A. alessii" in Contu's private herbarium (Contu 92/968; duplicate in LAPAG 986). Scale bar = 1 cm. Photos by L.A. Parra: A, C, F–H; A. Vizzini: B, D; M. Zykova: E.
FIGURE 1 in Morphological and phylogenetic studies of Agaricus bresadolanus, Agaricus infidus (nom. inval.) and Agaricus romagnesii (Agaricaceae) reveal their conspecificity and variation in toxicity of this taxon
FIGURE 1. Relevant iconography in mycological literature mentioned in the text. A. BRESADOLA (1931: Pl. 827); B. ROMAGNESI (1937: Fig. 4); C. KÜHNER & ROMAGNESI (1953: Fig. 584); D. BOHUS (1969: Fig. 2); E. BOHUS (1971: Fig. 1); F. ESSETTE (1964: Pl. 22); G. ALESSIO (1975: Pl. 11); H. HEIM (1957: Fig. 289); I. REID (1972: Pl. 42); J. WASSER (1977: Fig. 1); K. WASSER (1989: Fig. 21). Plate by L. A. Parra.
Figure 3. a, linear discriminant function illustrating shape variation between iguanids. Kernel density ellipses for each species illustrate 90 in Morphological and performance modifications in the world's only marine lizard, the Galápagos marine iguana, Amblyrhynchus cristatus
Figure 3. a, linear discriminant function illustrating shape variation between iguanids. Kernel density ellipses for each species illustrate 90% and 70% of the data distribution. b, graph of morphometric trait loadings from LD analysis.
FIGURE 29 Aponychus firmainae. A in Redescription of three species of Aponychus from China with ontogenetic development and morphological variations of A. corpuzae (Acariformes: Tetranychidae)
FIGURE 29 Aponychus firmainae. A, female, palp, lateral-ventral view; B, male, palp, lateral-dorsal view; C, female, peritreme; D, male, peritreme, E–G, aedeagus.
FIGURE 25 in Redescription of three species of Aponychus from China with ontogenetic development and morphological variations of A. corpuzae (Acariformes: Tetranychidae)
FIGURE 25. Aponychus corpuzae. Photographs. Showing striae on dorsum. A, propodosoma. larva; B, propodosoma, protonymph; C, hysterosoma (anterior part), protonymph; D, propodosoma, deutonymph; E, hysterosoma (anterior part), deutonymph; F, opisthosoma deutonymph.
FIGURE 26. Aponychus corpuzae. A in Redescription of three species of Aponychus from China with ontogenetic development and morphological variations of A. corpuzae (Acariformes: Tetranychidae)
FIGURE 26. Aponychus corpuzae. A, dorsum, larva; B, opisthosoma, protonymph; C, opisthosoma, deutonymph; D, caudal, female.
FIGURE 6 in Redescription of three species of Aponychus from China with ontogenetic development and morphological variations of A. corpuzae (Acariformes: Tetranychidae)
FIGURE 6. Aponychus corpuzae. Female: A, femur and genu of leg Ⅰ; B, tibia and tarsus of leg Ⅰ; C, femur and genu of leg II; D, tibia and tarsus of leg II; E, trochanter, femur and genu of leg III; F, tibia and tarsus of leg III; G, trochanter, femur and genu of leg IV; H, tibia and tarsus of leg IV.
FIGURE 5. Aponychus corpuzae. A in Redescription of three species of Aponychus from China with ontogenetic development and morphological variations of A. corpuzae (Acariformes: Tetranychidae)
FIGURE 5. Aponychus corpuzae. A, female, palp; B, male, palp; C, deutonymph, palp; D, protonymph, palp; E, larva, palp.
Fig. 4 in An analysis of variations in morphological characteristics, essential oil content, and genetic sequencing among and within major Iranian Juniper (Juniperus spp.) populations
Fig. 4. (A) A map of Iran showing the relative geographic location of each habitat, (B) Representative of DNA fragments generated by the UBC807 primer in the nine juniper populations. The left-most (L) column corresponds to the biological ruler (Ladder) and the right-most column () is a negative control., (C) Dendrogram obtained from five ISSR primers using UPGMA method by Dice similarity coefficient for 27 juniper genotypes (D) Principal Component Analysis based on Dice matrix for 27 juniper genotypes.
Fig. 2 in An analysis of variations in morphological characteristics, essential oil content, and genetic sequencing among and within major Iranian Juniper (Juniperus spp.) populations
Fig. 2. (A): Cluster analysis using an average of 40 compounds identified in the 27 individuals from across the Juniperus genus. (B): Cluster analysis dendrogram of juniper populations evaluated based on 13 morphological characters using SPSS 0.16 and Average Linkage method (Within Group). The abbreviations of the labels are given in Table S6.
Fig. 1 in An analysis of variations in morphological characteristics, essential oil content, and genetic sequencing among and within major Iranian Juniper (Juniperus spp.) populations
Fig. 1. Typical representative GC-MS chromatograms of EOs collected from (A1): J. excelsa of Torbat-Heydaryeh (JET1), (A2): J. sabina of Ramsar (JSR) and (A3): J. communis of Tooskestan (JCT), (B1): Analysis of EO percentage among the studied populations (B2,3): Mean comparison of top 10 EO constituents.
Fig. 3 in An analysis of variations in morphological characteristics, essential oil content, and genetic sequencing among and within major Iranian Juniper (Juniperus spp.) populations
Fig. 3. Mean comparison of morphological characteristics in 9 juniper populations. (Cwe: Cone weight, CL: Cone length, CD: Cone length, SN: Seed number of cone, SL: Seed length, Swi: Seed width, Swe: Cone weight, NL: Needle length, Nwi: Needle width, NLP5: Number of leaves per 5-mm section of ultimate lateral branchlet, RCL/D: Ratio of cone length to diameter, RCD/SN: Ratio of cone diameter to seed number, RSL/Wi: Ratio of seed length to width.)
Fig. 2 in Exploration of genetic, morphological and essential oil variation reveals tools for the authentication and breeding of Salvia pomifera subsp. calycina (Sm.) Hayek
Fig. 2. Principal Coordinates Analysis based on the codominant genotypic distances of the S. pomifera subsp. calycina individuals from the five Peloponnese populations (pom1 (blue square): 1–10, pom2 (green rhombus): 11–20, pom3 (pink triangle): 21–30, pom4 (purple x): 31–39, pom5 (red circle): 40–49). (For interpretation of the references to colour in this figure legend, the reader is referred to the Web version of this article.)
Fig. 3 in Exploration of genetic, morphological and essential oil variation reveals tools for the authentication and breeding of Salvia pomifera subsp. calycina (Sm.) Hayek
Fig. 3. Proportion of membership of each pre-defined population in each genetic group created by STRUCTURE for a. K = 2 and b. for K = 4. Every individual is represented by a vertical line divided into colours representing the different genetic groups (1–10: S. fruticosa populations, 11–15: S. pomifera subsp. calycina populations, last vertical line S. officinalis sample). (For interpretation of the references to colour in this figure legend, the reader is referred to the Web version of this article.)
Fig. 1 in Exploration of genetic, morphological and essential oil variation reveals tools for the authentication and breeding of Salvia pomifera subsp. calycina (Sm.) Hayek
Fig. 1. Discriminant analysis based on the thirty-one essential oil components, present above 0.1 % in all Salvia pomifera subsp. calycina samples, with the population (pom1-pom5) as grouping variable.
Fig. 11 in The Male Hindwing Costal Roll in Cochylina (Lepidoptera: Tortricidae): Morphological Variation, Phylogenetic Distribution, and Relationship to Host Utilization
Fig. 11. Transformation series of the CR across the Cochylina phylogeny. A, CR as a morphological character mapped into main groups of Cochylina phylogeny. Line colors indicate CR presence (green) or absence (red). B, Abouheif′s test of serial independence for CR as a bi-state character (Obs. = 0.59; S. Obs. = 7.32; P-value = 0.01). C, general structure of the hindwing CR in Cochylina. D, CR as a simple sclerotization of the costa with some external scales. E, CR with hairpencil. F, CR with hairpencil and microscales. Abbreviations: es, external scales; hp, hairpencil; ir, internal ridge; ms, microscales; ms1, microscale type I; ms2, microscale type II; r, roll. Figure not drawn to scale.
Fig. 8 in The Male Hindwing Costal Roll in Cochylina (Lepidoptera: Tortricidae): Morphological Variation, Phylogenetic Distribution, and Relationship to Host Utilization
Fig. 8. Plant-herbivore matrix of Cochylina genera vs. plant families. Color of circles represents presence (green) or absence (red) of the CR. Areas of circles are proportional to number of species of Cochylina feeding of each family from 1 to 16.
Fig. 6 in The Male Hindwing Costal Roll in Cochylina (Lepidoptera: Tortricidae): Morphological Variation, Phylogenetic Distribution, and Relationship to Host Utilization
Fig. 6. Scanning electron microscope images of type I microscales. A, transition between microscales in CR of Lorita baccharivora. B, Neocochylis dubitana, C. Cochylis roseana. D, Falseuncaria ruficiliana. E, C. flaviciliana. Scale bars: 10 µm.
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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