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FIGURE 6 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 6. Adult morphology of M. javanus. A–C Male habitus (A dorsal view; B ventral view; C lateral view). D–F Female habitus (D dorsal view; E ventral view; F lateral view) (Scale bar: 5 mm).
FIGURE 4 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 4. Phylogenetic trees of M. javanus (Nujiang) and 16 Tenebrionoidea species based on 13 mitochondrial PCGs and two rRNA genes. Inferred phylogenetic relationships among Tenebrionoidea based on nucleotide sequences of concatenated set of 13 PCGs and two rRNAs (rrnL and rrnS) using BI and ML analyses. Batocera lineolata and Massicus raddei were used as outgroups. Topology came from BI analysis, with numbers on each branch indicating Bayesian posterior probabilities (BBP)/ ML bootstrap values.
FIGURE 3 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 3. AT and GC skew (A) and relative synonymous codon usage (RSCU) (B) of 13 PCGs of M. javanus mitogenome. All PCGs have negative AT skew values and most PCGs also have negative GC values. RSCU of M. javanus indicates a strong bias toward A + T-rich codons.
FIGURE 2 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 2. Secondary structure of 22 tRNAs in mitogenome of M. javanus. All 22 tRNAs show typical cloverleaf structures, except trnS1.
FIGURE 7 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 7. Pronotum of M. javanus adults. A–B Type-I (typical) color pattern (Lincang). C–D Type-II color pattern (Nujiang). E–F Type-III color pattern (E: Lincang; F: Chuxiong). G Type-IV color pattern (Lincang). H Type-V color pattern (Lincang). (A, C, E, and H, male; B, D, F, and G, female; Scale bar: 1 mm).
FIGURE 1 in Complete mitogenome and phylogenetic significance of Metoecus javanus (Pic, 1913) (Coleoptera: Ripiphoridae) from Southwest China, with notes on morphological traits of adult and immature stages
FIGURE 1. Complete mitochondrial genome organization of M. javanus. Genes inside the circle are on the J-strand (majority strand) and those outside the circle are on the N-strand (minority strand).
FIGURE 32 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURE 32. Neighbor-joining tree based on Cytochrome oxidase I for sequences of C. paraensis (Goeldi), C. quasiparaensis Clastrier, C. neoparaensis Tavares and Souza, C. debilipalpis Lutz and C. limonensis Ortiz and León. Bootstrap values (1,000 replicates) are given on the branches.
FIGURES 27–31 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURES 27–31. Photographs of male pupa Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae) collected in Argentina: 27. Metathorax and tergite 1; 28. Segment 4, dorsal view; 29. Segment 4, lateral view; 30. Segment 4, ventral view; 31. Segment 9, ventral view. Genital lobe (GL), methatoracic sensilla (M-1-T, M-2-T), Segment 4 sensilla (D-2-IV, D-3-IV, D-4-IV, D-5-IV, D-7-IV,, L-1-IV, L-2-IV, L-3-IV, L-4-IV, V-IV, V-6-IV, V7-IV); supraalar sensillum (SA-2-T); tergite 1 sensilla (D-2-I, D-3-1, D-4-I, D-78-I, D-9-I, L-1-I, L-2-I, L-3-I); terminal processes (TP).
FIGURES 20–26 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURES 20–26. Phothographs of pupa Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae) collected in Argentina: 20–21. Female pupa; 22–26. Male pupa; 20. Entire pupa; 21. Cephalothorax; 22. Dorsal apotome; 23. Mouthparts; 24. Respiratory organ; 25. Cephalothoracic sensilla; 26. Dorsals. Antennae (AN). Anterolateral sensilla (AL-1-T, AL-2-T, AL-3-T); anteromedial sensilla (AM-1-T); clypeal/labral sensilla (CL-1-H, CL-2-H); cephalothorax (CL), dorsal apotome sensilla (DA-1-H, DA-2-H); dorsolateral cephalic sclerite sensilla (DL-1-H); dorsal seta (D-1-T, D-2-T, D-3-T, D-4-T); metathorax (MT); ocular sensilla (O-1-H, O-3-H); pedicel (P); respiratory organ (RO).
FIGURES 16–19 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURES 16–19. Photographs of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae) collected in Argentina: 16. Entire larva; 17. Head capsule, ventral view; 18. Mandible; 19. Caudal segment. Head capsule (HC); caudal segment (CS); dorsal comb (DC); epipharynx (epy); hypopharynx (hyp); mandible (MD); fossa mandibularis (MF); ventral comb (VC).
FIGURES 9–15 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURES 9–15. Scanning electron micrographs of female pupa Culicoides paraensis (Goledi) (Diptera: Ceratopogonidae) collected in Argentina: 9. Cephalothorax; 10. Respiratory organ; 11. Detail of apical portion of respiratory organ; 12. Detail of basal portion of respiratory organ; 13. Mouthparts; 14. Segment 9, dorsal view; 15. Segment 9, ventral view. Anntena (AN); clypeal/labral sensilla (CL-1-H, CL-2-H); dorsal apotome (DA); ocular sensilla (O-1-H, O-3-H); pedicel (P); respiratory organ (RO); terminal processes (TP).
FIGURE 1 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURE 1. Geographical location of Garupá, in Departamento Capital of Misiones province, northeast Argentina. In the box, the site of collection of immature stages.
FIGURES 2–8 in Redescription of immature stages of Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae), vector of the Oropouche virus
FIGURES 2–8. Scanning electron micrographs of larva Culicoides paraensis (Goeldi) (Diptera: Ceratopogonidae) collected in Argentina: 2. head capsule, dorsal view; 3. head capsule, ventral view; 4. Detail of head capsule, ventral view; 5. Palatum and maxillary palpus; 6. Mandible; 7. Caudal segment. Antennae (AN); frontoclypeus (FC); galeolacinia (GL); hypostoma (HY); labrum (LB); mandible (MD); maxillary palpus (MP); messors (MS); maxilla (MX); lacinial sclerite 2 (LC2); palatum (PL); scopae (SC); sensilla styloconica (ss); sensilla trichodea (st). Head capsule chaetotaxy are indicated by single letters: o, parahypostomal setae; s, anterior perifrontal setae; t, prefrontal setae; posterolateral setae; w, anterolateral setae y, ventral setae;"p", posterior perifrontal seta; "q", postfrontal setae. 8. Caudal segment chaetotaxy: "i", inner seta; "l1", first lateral seta; "o", outer seta, "j", collar pits.
Cowpea drought stress application at early vegetative stage 2022 - screen 02 - day 08 - raw image data
<p>Cowpea (<em>Vigna unguiculata</em>) miniCore accessions were screened for responses to drought stress at early vegetative stress. The cowpea seedlings were exposed to drought stress at 17 days after germination using the weight of the pot and AAWEsmo device, developed in Julkowska Lab, Boyce Thompson Institute. The seedlings were kept at 60 and 10% of soil water holding capacity for 2 weeks and the data on cowpea shoot size, evapotranspiration and photosystem II efficiency was collected. </p> <p>This dataset represents the images collected for Screen number 02 and day 08 after drought stress application. </p>
Supplementary Materials for "Temperature field, flow field and temporal fluctuations thereof 2 in ammonothermal growth of bulk GaN – transition from dis-3 solution stage to growth stage conditions"
<p>Video S1: dissolution stage (upper part of nutrient and above), Video S2: 630 dissolution stage (baffle region), Video S3: dissolution stage (top seed), Video S4: dissolution stage 631 (middle seed), Video S5: dissolution stage (bottom seed), Video S6: growth stage (upper part of 632 nutrient and above), Video S7: growth stage (baffle region), Video S8: growth stage (top seed), Video 633 S9: growth stage (middle seed), Video S10: growth stage (bottom seed).</p>
Sex differences in the behavioural traits across ontogenetic stages in a sexually-size dimorphic spider
<p>Data collected on males and females of the spider species <em>Dolomedes fimbriatus</em>. Behavioural biology, the relationship of sex, age and body mass to voracity, boldness and propensity to attack a simulated attacker throughout ontogeny.</p> <p>ID = individual code</p> <p>Gender = 0 - female; 1 - male</p> <p>Stage = 1 - juvenile; 2 - sub-adult; 3 - adult</p> <p>Repeat = the sequence number of the experiment repetition</p> <p>Boldess = Score for boldness experiments (0 - bold; 5 - shy)</p> <p>Voracity = Score for voracity experiment (0 - did not take a fly; 1 - took a fly)</p> <p>Attack = Score for propensity to attack simulated prefator (0 - did not attack; 1- attacked)</p> <p>Mass = Specimens body mass at the time of experiment in grams</p> <p>Age = Specimens age at the time of experiment in days before (negative) and after (positive) final molt</p> <p>Difference in masa = The difference in body mass between consecutive experiments for a specimen </p> <p>Difference in age = The difference in age between consecutive experiments for a specimen</p> <p>Difference Boldness = The difference in boldness scores between consecutive experiments for a specimen</p> <p>Absolute Difference Boldness = The absolute difference in boldness scores between consecutive experiments for a specimen </p> <p>Difference Voracity = The difference in voracity scores between consecutive experiments for a specimen </p> <p>Absolute Difference Voracity = The absolute difference in voracity scores between consecutive experiments for a specimen </p> <p>Difference Attack = The difference in attack scores between consecutive experiments for a specimen</p> <p>Absolute Difference Attack = The absolute difference in attack scores between consecutive experiments for a specimen</p>
Characterization of eyes, photoreceptors and opsins in developmental stages of the arrow worm Spadella cephaloptera (Chaetognatha)
<p>The phylogenetic position of chaetognaths, or arrow worms, has been debated for decades, however recently they have been grouped into the Gnathifera, a sister clade to all other Spiralia. Chaetognath photoreceptor cells are anatomically unique by exhibiting a highly modified cilium and are arranged differently in the eyes of the various species. Studies investigating eye development and underlying gene regulatory networks are so far missing. To gain insights into the development and the molecular toolkit of chaetognath photoreceptors and eyes a new transcriptome of the epibenthic species <em>Spadella cephaloptera</em> was searched for opsins. Our screen revealed two copies of <em>xenopsin</em> and a single copy of <em>peropsin</em>. Gene expression analyses demonstrated that only <em>xenopsin1</em> is expressed in photoreceptor cells of the developing lateral eyes. Adults likewise exhibit two <em>xenopsin1</em>+ photoreceptor cells in each of their lateral eyes. Beyond that, a single <em>cryptochrome</em> gene was uncovered and found to be expressed in photoreceptor cells of the lateral developing eye. In addition, <em>cryptochrome</em> is also expressed in the cerebral ganglia in a region in which also <em>peropsin</em> expression was observed. This condition is reminiscent of a non-visual photoreceptive zone in the apical nervous system of the annelid <em>Platynereis dumerilii</em> that performs circadian entrainment and melatonin release. <em>Cryptochrome</em> is also expressed in cells of the corona ciliata, an organ in the posterior dorsal head region, indicating a role in circadian entrainment. Our study highlights the importance of the Gnathifera for unraveling the evolution of photoreceptors and eyes in Spiralia and Bilateria.</p>
Données rapport de stage CIRAIG-UTC Lina Estévenon
<p>Ces documents correspondent aux données et graphiques réalisés par Lina Estévenon lors de son stage 2022-2023 au sein du CIRAIG pour l'UTC.</p>
FIGURE 9 in Morphology of all the developmental stages of Neogreenia osmanthus (Yang & Hu) (Hemiptera: Coccomorpha), and transfer of the genera Neogreenia MacGillivray and Jansenus Foldi to the family Qinococcidae
FIGURE 9. Third-instar male nymph of Neogreenia osmanthus (Yang & Hu): A. Antenna; B. Dorsum of antennal segments I and II; C. Foreleg; D. Capitate seta; E. Claw; F. Thoracic spiracle; G. Sieve-like multilocular disc pore; H. Small tube-like spiracle; I. Posterior 3 pairs abdominal spiracles; J. Anal ring; K. Oblong structure; L. Large simple pore; M. Small simple pores; N. Multilocular disc pores; O. Hair-like seta; P. Short spine.
FIGURE 4 in Morphology of all the developmental stages of Neogreenia osmanthus (Yang & Hu) (Hemiptera: Coccomorpha), and transfer of the genera Neogreenia MacGillivray and Jansenus Foldi to the family Qinococcidae
FIGURE 4. Adult male Neogreenia osmanthus (Yang & Hu): A. Venter; B. Dorsum; C. Fore wing. Each scale bar = 1 mm.
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.