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304 results for “eucalyptus”
Figure 16 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 16 Characters used in the morphometric analysis. A Frontal view of the head illustrating the morphometric character malar space (mlr.l), Eadya annleckieae Ridenbaugh, sp. n. paratype B Dorsal view of the head illustrating the morphometric characters lateral ocellar line (LOL), ocular ocellar line (OOL), posterior ocellar line (POL), and occipital ocellar line (oci.l), Eadya annleckieae Ridenbaugh, sp. n. paratype. All scale bars are 1mm in length.
Figure 15 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 15 Cytochrome c oxidase subunit 1 amino acid sequences from Peixoto et al. (2018). Boxes indicate diagnostic molecular characters. For each sequence a unique corresponding DNA voucher code is listed as BJS followed by a number.
Figure 14 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 14 Eadya spitzer Ridenbaugh, sp. n. paratype. A Head, frontal view B Head, dorsal view C Head and mesoscutum, dorsal view D Mesopleuron, lateral view E Propodeum, dorsal view.
Figure 13 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 13 Eadya spitzer Ridenbaugh, sp. n. paratype. A Lateral habitus B Dorsal habitus C Metasoma, lateral view. All scale bars are 1mm in length.
Figure 11 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 11 Eadya paropsidis. A Head, frontal view B Head, dorsal view, arrow pointing to emarginate occipital carinae C Head and mesoscutum, dorsal view D Mesopleuron, lateral view E Propodeum, dorsal view F Propodeum, dorsal view, with arrows indicating transverse carinae. All scale bars are 1mm in length.
Figure 12 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 12 Eadya spitzer Ridenbaugh, sp. n. holotype. A Lateral habitus B Dorsal habitus C Metasoma, lateral view. All scale bars are 1mm in length.
Figure 10 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 10 Eadya paropsidis. A Lateral habitus B Dorsal habitus C Fore and hindwing. All scale bars are 1mm in length.
Figure 1 from: Ridenbaugh RD, Barbeau E, Sharanowski BJ (2018) Description of four new species of Eadya (Hymenoptera, Braconidae), parasitoids of the Eucalyptus Tortoise Beetle (Paropsis charybdis) and other Eucalyptus defoliating leaf beetles. Journal of Hymenoptera Research 64: 141-175. https://doi.org/10.3897/jhr.64.24282
Figure 1 Multivariate morphometric ratio analysis of female specimens of Eadya paropsidis, and Eadya daenerys Ridenbaugh, sp. n. A Scatterplot of the first shape principal component plotted against the second shape principal component. Black - Eadya paropsidis, Green - Eadya daenerys sp. n. B Scatterplot of isosize plotted against the first shape principal component. Black - Eadya paropsidis, Green - Eadya daenerys sp. n. C Ratio spectrum for the first principal component with horizontal bars representing 68% confidence based on 1000 bootstrap replicates D Allometry ratio spectrum with horizontal bars representing 68% confidence based on 1000 bootstrap replicates.
Phenotype data Eucalyptus wood properties CNB Cirad-Ufla
<p>Phenotypic data obtained by NIR prediction on wood of the studied trees (5 trees for 10 clones of CENIBRA in 3 sites in Brazil) : wood density, stiffness and microfibril angle of cell walls</p> <p> </p>
Figure 1 in Study of histoarchitectural changes in Anopheles stephensi larvae following exposure to Eucalyptus globulus and Aloe vera oils
Figure 1. Longitudinal sections of 4th instar Anopheles stephensi larvae (4×): (a) Control larva showing normal and intact body; (b) Eucalyptus globulus oil treated larva showing disintegration of body; (c) Aloe vera oil treated larva showing disintegration of body.
Figure 6 in Study of histoarchitectural changes in Anopheles stephensi larvae following exposure to Eucalyptus globulus and Aloe vera oils
Figure 6. Longitudinal sections of epithelium layer of midgut of 4th instar Anopheles stephensi larvae (40×): Control larva showing cells having nucleus (N), peritrophic membrane (PM), basement membrane (BM), and microvilli (MV); Eucalyptus globulus oil treated larva showing lysis of epithelial cells; Aloe vera oil treated larva showing ruptured areas.
Ecosystem resilience and pest resistance in Eucalyptus plantations is driven by understorey complexity due to forest management
Open the record for dataset details and reuse information.
Figure 2 from: Gullan P (2010) Australian gall-inducing scale insects on Eucalyptus: revision of Opisthoscelis Schrader (Coccoidea, Eriococcidae) and descriptions of a new genus and nine new species. ZooKeys 58: 1-74. https://doi.org/10.3897/zookeys.58.507
Figure 2 - Galls of species of Tanyscelis: Tanyscelis conica, ex Eucalyptus dumosa, Victoria, Mittyack: a gall of female b gall of female, showing both sides of leaf. Tanyscelis convexa: c gall of female, ex Eucalyptus polyanthemos, Victoria, Melbourne d dry galls of males, ex Eucalyptus goniocalyx, Victoria, Dandenong. Tanyscelis grallatorsp. n.: e gall of female, ex ironbark, Queensland, Dunmore State Forest. Tanyscelis maculata: f gall of female (center of photo) and galls of males, ex Eucalyptus melliodora, Victoria, Nagambie g dry gall of female from type material of Opisthoscelis recurva, ex Eucalyptus sp., New South Wales, Warrah. Tanyscelis maskelli, ex Eucalyptus sp., New South Wales, Flemington, W.W. Froggatt No. 1944E: h dry gall of female i dry galls of males. [Photographs by PJG]
Figure 1 from: Gullan P (2010) Australian gall-inducing scale insects on Eucalyptus: revision of Opisthoscelis Schrader (Coccoidea, Eriococcidae) and descriptions of a new genus and nine new species. ZooKeys 58: 1-74. https://doi.org/10.3897/zookeys.58.507
Figure 1 - Galls of species of Opisthoscelis: Opisthoscelis beardsleyi sp. n.: a gall of female, ex Eucalyptus goniocalyx, Victoria, Belgrave South b gall of female, ex Eucalyptus viminalis, Victoria, Cranbourne c immature galls of males, ex Eucalyptus viminalis, Cranbourne. Opisthoscelis serrata, ex Eucalyptus polyanthemos, Victoria, Melbourne d gall of female e gall cut open to reveal adult female f galls of males. Opisthoscelis subrotunda: g gall of female, ex Eucalyptus ?camaldulensis, Victoria, Shepparton h galls of females showing orifice, ex Eucalyptus camaldulensis, Victoria, Grampians National Park i galls of males, ex Eucalyptus sp., New South Wales. Opisthoscelis thurgoona sp. n.: j young galls of females (four with slit-like orifice visible, top left gall showing underside), ex Eucalyptus melliodora, New South Wales, Thurgoona. Opisthoscelis tuberculatasp. n.: k vacated pit galls of females, ex Eucalyptus sp., Victoria, Benalla. Opisthoscelis ungulifinis sp. n.: l dry galls of females showing star-like orifice, ex Eucalyptus ?oleosa, South Australia, Oodla Wirra. [Photographs by PJG except i by L.A. Mound]
Figure 16 from: Gullan P (2010) Australian gall-inducing scale insects on Eucalyptus: revision of Opisthoscelis Schrader (Coccoidea, Eriococcidae) and descriptions of a new genus and nine new species. ZooKeys 58: 1-74. https://doi.org/10.3897/zookeys.58.507
Figure 16 - Adult female of Tansyscelis megagibba Hardy & Gullan, sp. n. Inset shows a side view of the female as it appears in life.
Figure 3 from: Gullan P (2010) Australian gall-inducing scale insects on Eucalyptus: revision of Opisthoscelis Schrader (Coccoidea, Eriococcidae) and descriptions of a new genus and nine new species. ZooKeys 58: 1-74. https://doi.org/10.3897/zookeys.58.507
Figure 3 - Galls of species of Tanyscelis: Tanyscelis megagibba sp. n.: a gall of adult female (upper), plus gall opened to show adult female (lower), ex Eucalyptus microcarpa, South Australia, Aldinga Beach. Tanyscelis pisiformis, ex Eucalyptus sp., probably from New South Wales: b dry galls of females c dry galls of males. Tanyscelis spinosa: d mature female gall, ex Eucalyptus ?goniocalyx sapling, Victoria, Bendigo e young galls of females and one gall of male (right), ex Eucalyptus microcarpa, Victoria, Long Forest, near Bacchus Marsh. Tanyscelis tripocula sp. n.: f galls of females, ex Eucalyptus cephalocarpa, Victoria, Macclesfield. Tanyscelis verrucula: g gall of female, ex Eucalyptus cephalocarpa, Victoria, Macclesfield h galls of males, ex Eucalyptus ?goniocalyx, Victoria, Bendigo. Tanyscelis villosigibba sp. n.: i gall of adult female, ex ironbark, Queensland, Dunmore State Forest. [Photographs by PJG except a from HMB photographic collection number 696A]
Figures 1-2 from: Burks RA, Mottern JL, Pownall NG, Waterworth R, Paine TD (2015) First record of Closterocerus chamaeleon, parasitoid of the Eucalyptus Gall Wasp Ophelimus maskelli (Hymenoptera, Chalcidoidea, Eulophidae), in the New World. ZooKeys 504: 149-152. https://doi.org/10.3897/zookeys.504.9728
Figures 1-2 - 1 Closterocerus chamaeleon reared from Ophelimus maskelli gall collected on UCR campus; body, lateral view. UCRCENT00412686 2 Antennae and head of the same specimen, oblique anteromedial view.
Genomic divergence in sympatry indicates strong reproductive barriers and cryptic species within Eucalyptus salubris
Genetic studies are increasingly detecting cryptic taxa that likely represent a significant component of global biodiversity. However, cryptic taxa are often criticized because they are typically detected serendipitously and may not receive the follow-up study required to verify their geographic or evolutionary limits. Here, we follow-up a study of Eucalyptus salubris that unexpectedly detected two divergent lineages but was not sampled sufficiently to make clear interpretations. We undertook comprehensive sampling for an independent genomic analysis (3,605 SNPs) to investigate whether the two purported lineages remain discrete genetic entities or if they intergrade throughout the species' range. We also assessed morphological and ecological traits, and sequenced chloroplast DNA. SNP results showed strong genome-wide divergence (FST=0.252) between two discrete lineages: one dominated the north and one the southern regions of the species' range. Within lineages gene flow was high, with low differentiation (mean FST=0.056) spanning hundreds of kilometres. In the central region, the lineages were interspersed but maintained their genomic distinctiveness: an indirect demonstration of reproductive isolation. Populations of the southern lineage exhibited significantly lower specific leaf area and occurred on soils with lower phosphorus relative to the northern lineage. Finally, two major chloroplast haplotypes were associated with each lineage but were shared between lineages in the central distribution. Together, these results suggest that these lineages have non-contemporary origins and that ecotypic adaptive processes strengthened their divergence more recently. We conclude that these lineages warrant taxonomic recognition as separate species and provide fascinating insight to eucalypt speciation.
Supplementary material 2 from: Pham NQ, Marincowitz S, Chen SF, Rodas CA, Wingfield MJ (2022) Soil-borne Calonectria (Hypocreales, Nectriaceae) associated with Eucalyptus plantations in Colombia. MycoKeys 94: 17-35. https://doi.org/10.3897/mycokeys.94.96301
Collection details and GenBank accessions of isolates included in the phylogenetic analyses
Fig. 3 in Acylphloroglucinol-monoterpene meroterpenoids from Eucalyptus tereticornis and their inhibitory activity against ATP citrate lyase
Fig. 3. Key NOESY correlations of 1 and 2.
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