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260 results for “Interceptions”
FIGURE 48 in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURE 48. CO1 sequence alignments showing sequence polymorphisms between species in the annealing sites of primers and probes. Mismatches are shown in bold, forward primer, probe and reverse primer annealing sites are boxed, left to right respectively.
FIGURES 39–47. Trialeurodes vaporariorum. 39 in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 39–47. Trialeurodes vaporariorum. 39, third instar on E. pulcherrima from Italy; 40, fourth instar on E. pulcherrima from Italy; 41, diagrammatic representation of left compound eye of adult female; 42, upper and lower compound eyes separate; 43, mesotibia combs; 44, male abdomen with dorsal discoidal pores; 45, female antenna; 46, aedeagus; 47, female cement gland.
FIGURES 31–38. Trialeurodes spp. 31, T in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 31–38. Trialeurodes spp. 31, T. ricini, diagrammatic representation of left compound eye of adult female; T. ricini, 32, upper and lower compound eyes linked by two to four ommatidia; T. ricini, 33, male antenna; T. ricini, 34, aedeagus; T. ricini, 35, female cement gland; 36, T. vaporariorum, ovum on Euphorbia pulcherrima from Italy; 37, T. vaporariorum, first instar on E. pulcherrima from the UK; 38, T. vaporariorum, second instar on E. pulcherrima from Italy.
FIGURES 3–4 in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 3–4. General morphology of a whitefly. 3, third-larval instar; 4, fourth-larval instar (puparium).
FIGURES 25–30. Trialeurodes ricini. 25 in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 25–30. Trialeurodes ricini. 25, ovum on Ricinus communis from Gran Canaria; 26, first instar on R. communis from Gran Canaria; 27, second instar on R. communis from Gran Canaria; 28, third instar on R. communis from Gran Canaria; 29–30, fourth instar on Telfairia sp. from Nigeria showing variation in submarginal tubercles.
FIGURES 18–24. B. tabaci. 18 in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 18–24. B. tabaci. 18, third instar on E. pulcherrima; 19, fourth instar on E. pulcherrima; 20, diagrammatic representation of left compound eye of adult female; 21, upper and lower compound eyes linked by one ommatidium; 22, female antenna; 23, aedeagus; 24, female cement gland.
FIGURES 10–17. Bemisia spp. 10, B in Morphological and molecular identification of all developmental stages of four whitefly species (Hemiptera: Aleyrodidae) commonly intercepted in quarantine
FIGURES 10–17. Bemisia spp. 10, B. afer, diagrammatic representation of left compound eye of adult female; B. afer, 11, upper and lower compound eyes linked by one ommatidium; B. afer, 12, female antenna; B. afer, 13, aedeagus; B. afer, 14, female cement gland; 15, B. tabaci, ovum on Euphorbia pulcherrima; 16, B. tabaci, first larval instar on Solidago from Spain; 17, B. tabaci, second instar on E. pulcherrima.
FIGURES 15–16 in Thysanoptera intercepted in the Netherlands on plant products from Ethiopia, with description of two new species of the genus Thrips
FIGURES 15–16 Thrips dezeeuwi (15) tergite VIII and IX (16) tergite VIII, posteromedial 17–22 Thrips scotti (17) pronotum, right half (18) left forewing (19) meso- and metanotum (20) tergite II, right half (21) tergite VIII, right half (22) right tergite III and pleurotergite III, 23–26 Haplothrips biformis (23) right antenna (24) head, right anterior (25) right forewing (26) abdominal segment VII–X.
FIGURES 1–2 in Thysanoptera intercepted in the Netherlands on plant products from Ethiopia, with description of two new species of the genus Thrips
FIGURES 1–2 Anaphothrips latis (1) right antennal segments I-V (2) metanotum, 3–8 Thrips cacuminis (3) holotype body (4) head, dorsal, right ocular and ocellar region (5) pronotum (6) holotype metanotum (7) paratype meso- and metanotum (8) tergite VIII and IX, 9–15 Thrips dezeeuwi (9) holotype body (10) right antennal segments III–VIII (11) head, dorsal (12) Left forewing clavus (13) metanotum (14) metanotum, posteromedial.
FIGURES 10–14 in Thrips atactus (Thysanoptera, Thripidae): first records of the male and host plant, intercepted in quarantine at Japan
FIGURES 10–14. Thrips atactus, male. (10) Antenna, left; (11) Abdominal tergites V–VI; (12) Abdominal tergite VIII; (13) Abdominal tergite IX; (14) Abdominal sternites III–V.
FIGURES 3–9 in Thrips atactus (Thysanoptera, Thripidae): first records of the male and host plant, intercepted in quarantine at Japan
FIGURES 3–9. Thrips atactus, female. (3) Head & pronotum; (4) Antenna, left; (5) Metascutum; (6) Fore wing, left; (7) Abdominal tergite II, right side; (8) Abdominal tergite V; (9) Abdominal tergites VII–X.
Data from: Low-cost automated flight intercept trap for the temporal sub-sampling of flying insects attracted to artificial light at night
<p>Sampling methods are selected depending on the targeted species or the spatial and temporal requirements of the study. However, most methods for passive sampling of flying insects have poor temporal resolution because it is time consuming, costly and/or logistically difficult. Effective sampling of flying insects attracted to artificial light at night (ALAN) requires sampling at user-defined time points (nighttime only) across well-replicated sites resulting in major time and labor-intensive survey effort or expensive automated technologies. Described here is a low-cost automated intercept trap that requires no specialist equipment or skills to construct and operate, making it a viable option for studies that require temporal sub-sampling across multiple sites. The trap can be used to address a wide range of other ecological questions that require a greater temporal and spatial scale than is feasible with previous trap technology.</p>
Fig. 4 in État de l'invasion de Trichoferus campestris (Faldermann, 1835) au plan international et réflexion sur sa première interception en Belgique
Fig. 4. Trichroferus campestris (Faldermann, 1835), habitus vue dorsale. A, mâle (18 mm). B, femelle (19 mm). Belgique, Hainaut, env. Brugelette, à l'intérieur de lodges, VIII.2019, in IRSNB. (© Jérôme CONSTANT).
Fig. 2 in État de l'invasion de Trichoferus campestris (Faldermann, 1835) au plan international et réflexion sur sa première interception en Belgique
Fig. 2: Trichoferus campestris, larves interceptées au port de Vienne (Autriche). A, vue latérale. B, vue ventrale. C, vue de la tête et du pronotum. (© James Connell).
Fig. 3 in État de l'invasion de Trichoferus campestris (Faldermann, 1835) au plan international et réflexion sur sa première interception en Belgique
Fig. 3. Exemple de bois d'emballage (palox) importé en Autriche et infesté (sciure) par des larves de Trichoferus campestris. (© James Connell).
Data from: Species mixing increases light interception efficiency and productivity while reducing Leaf Area Index in beech-fir stands
<p>Result data set for: Species mixing increases light interception efficiency and productivity while reducing Leaf Area Index in beech-fir stands, Rouet et al. (2024). Data set includes the altitude, number of tree, mean DBH and age, basal area and proportion of species per plot, as well as the triplet arrangement and the metrics.</p>
FIGURE 18. Hyperlasion aliens Mohrig, 2004 in Black fungus gnats (Diptera: Sciaridae) found in association with cultivated plants and mushrooms in Australia, with notes on cosmopolitan pest species and biosecurity interceptions
FIGURE 18. Hyperlasion aliens Mohrig, 2004 (specimen from Papua New Guinea). A. Hypopygium. B. Flagellomere 3–5. C. Male.
FIGURE 17 in Black fungus gnats (Diptera: Sciaridae) found in association with cultivated plants and mushrooms in Australia, with notes on cosmopolitan pest species and biosecurity interceptions
FIGURE 17. Scatopsciara atomaria (Zetterstedt, 1851). A. Hypopygium. B. Flagellomeres 4–6. C. Palpus. D. Fore tibia.
FIGURE 16 in Black fungus gnats (Diptera: Sciaridae) found in association with cultivated plants and mushrooms in Australia, with notes on cosmopolitan pest species and biosecurity interceptions
FIGURE 16. Bradysia strenua (winnertz, 1867). A. Left side of the hypopygium in ventral view. B. Gonostylus. C. 4th flagellomere. D. Scutellum.
FIGURE 15 in Black fungus gnats (Diptera: Sciaridae) found in association with cultivated plants and mushrooms in Australia, with notes on cosmopolitan pest species and biosecurity interceptions
FIGURE 15. Corynoptera concinna (winnertz, 1867). A. Hypopygium. B. Basal segments of antenna. C. Fore tibia.
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)
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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.