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33 results for “Sodalis”
FIGURE 5 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 5. Rhyacodrilus quileuticus sp. n. A. Anterior part of the body. B. Reproductive organs. C. Spermathecal chaetae. D. Penial chaetae.
FIGURE 10 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 10. Rhyacodrilus propiporus sp. n. A. Schematic outline of anterior part of the body and clitellar region. B. Schematic drawing of reproductive organs. C. Histological (sagittal) section of spermatheca. D–F. Consecutive series of histological sections of atrial ampulla and vas deferens.
FIGURE 16 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 16. Rhyacodrilus (=Edmonsonia) montana (Brinkhurst, 1965). A–C. Chaetae in holotype, dorsal chaetae in segment VIII (A), ventral chaetae in segment VIII (B) and posterior segments (C). D–G. Dorsal chaetae in paratype, in segment II (D), IV (E), postclitellar (F), and very posterior (G). H–J. Ventral chaetae in paratype, in segment II (H), VIII (I), posterior (J). K. Coelomocytes in paratype.
FIGURE 12 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 12. Rhyacodrilus alcyoneus sp. n. A. Anterior part of the body showing the position of clitellum, chaetal tubercles and male pores. B. Dorsal pores. C. Coelomocytes. D. chloragenous cells with granules. E. Dorsal pore in the secondary annulation of segment V. F–H. Dorsal chaetae in segments VI, XIII and posterior. I–J. Ventral chaetae in segment VII and posterior, respectively. K. Atrium and penial chaetae arranged fan-wise, with numerous dorso-ventral muscular strands. L. Detail of penial chaetae and penial sac surrounded by musculature. M. Ventral chaetae in segments VII and X (spermathecal segment), for comparison.
FIGURE 17 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 17. Rhyacodrilus sodalis (Eisen, 1879). A–B. Schematic view of the anterior part of the body (A) and the reproductive system (B). C–F. Histological sections of the spermatheca (C) and atrium (D), with details of the atrial ampulla and prostate cells (E) and a section of the atrial duct with a narrow penis (F) marked by an arrow.
FIGURE 9 in New species of Rhyacodrilus (Annelida: Clitellata: Rhyacodrilinae) of North America, with re-description of R. sodalis (Eisen, 1879)
FIGURE 9. Rhyacodrilus propiporus sp. n. (A–J, M–N) and Rhyacodrilus subterraneus Hrabë, 1963 (K–L). A–J. Rhyacodrilus propiporus sp. n. A. Prostomium with coelomocytes. B–E. Dorsal chaetae of segment II (B), V (C), IX (D), and postclitellar (E). F–I. Ventral chaetae of segment V (F), VII (G), postclitellar (H) and very posterior (I). J. Dorsal chaetae of very posterior segments. K–L. Chaetae of Rhyacodrilus subterraneus (Martínez-Ansemil's collection, see text). K. Anterior pectinates. L. Ventrals. M–N. Rhyacodrilus propiporus sp. n. Ventral view of the body, whole mount. M. Spermathecal pores and male pores. N. Atrium opening in a porophore.
Data from: Social behavior in bees influences the abundance of Sodalis (Enterobacteriaceae) symbionts
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Data from: Habitat suitability and connectivity modeling reveal priority areas for Indiana bat (Myotis sodalis) conservation in a complex habitat mosaic
Context <p>Conservation for the Indiana bat (<i>Myotis sodalis), </i>a federally endangered species in the United States of America, is typically focused on local maternity sites; however, the species is a regional migrant, interacting with the environment at multiple spatial scales. Hierarchical levels of management may be necessary, but we have limited knowledge of landscape-level ecology, distribution, and connectivity of suitable areas in complex landscapes.</p> Objectives <p>We sought to 1) identify factors influencing <i>M. sodalis </i>maternity colony distribution in a mosaic landscape, 2) map suitable maternity habitat, and 3) quantify connectivity importance of patches.</p> Methods <p>Using 3 decades of occurrence data, we tested <i>a priori</i>,<i> </i>hypothesis-driven<i> </i>habitat suitability models. We mapped suitable areas and quantified connectivity importance of habitat patches with probabilistic habitat availability metrics.</p> Results <p>Factors improving landscape-scale suitability included limited agriculture, more forest cover, forest edge, proximity to medium-sized water bodies, lower elevations, and limited urban development. Areas closer to hibernacula and rivers were suitable. Binary maps showed that thirty percent of the study area was suitable for <i>M. sodalis</i> and 29% was important for connectivity. Most suitable patches were important for intra-patch connectivity and far fewer contributed to inter-patch connectivity.</p> Conclusions <p>While simple models may be effective for small, homogenous landscapes, complex models are needed to explain habitat suitability in large, mixed landscapes. Suitability modeling identified factors that made sites attractive as maternity areas. Connectivity analysis improved our understanding of important areas for bats, identified suitable patches that may be isolated from the habitat network, and prioritized areas to target restoration.</p>
Sodalis assembly from Chrysoperla carnea
<p>Draft genome of the endosymbiont <em>Sodalis</em> in the common green lacewing (<em>Chrysoperla carnea</em>). DNA was extracted from a adult <em>Chrysoperla carnea</em> from a laboratory culture, originated from the company Sauter and Stepper. DNA was sequenced with Illumina HiSeq 2500 and the assembly was created using SPAdes.</p>
Data from: Habitat suitability and connectivity modeling reveal priority areas for Indiana bat (Myotis sodalis) conservation in a complex habitat mosaic
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Expression of Sodalis glossinidius genes derived from self-cleared and control Glossina palpalis gambiensis flies
GEO Series GSE48360. Sodalis glossinidius. 8 samples. Type: Expression profiling by array.
Controlling a Necessary Evil: Quorum Sensing Attenuates Virulence in Sodalis praecaptivus.
GEO Series GSE97720. Sodalis praecaptivus. 15 samples. Type: Expression profiling by high throughput sequencing.
Expression of Sodalis glossinidius genes derived from self-cleared and infected Glossina palpalis gambiensis flies
GEO Series GSE48361. Sodalis glossinidius. 24 samples. Type: Expression profiling by array.
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OpenNeuro
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