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22,710 results for “Plants for planting”
Figure 19 in Jumping plant-lice of the family Phacopteronidae (Hemiptera: Psylloidea) from Cameroon
Figure 19. Pseudophacopteron lecaniodisci, fifth instar larva: left dorsal and right ventral surfaces.
Figure 10 in Jumping plant-lice of the family Phacopteronidae (Hemiptera: Psylloidea) from Cameroon
Figure 10. Pseudophacopteron spp. (A) P. cuniculus; (B) P. kala; (C) P. nothospondiadis; (D) P. fuscivenosum; (E) P. electum; (F) P. morion; (G) P. lecaniodisci; (H) P. pusillum; (I) P. eastopi. (A–I) Distal segment of aedeagus, in profile. Scale bars: a (A–E, G–I); b (F).
Figure 3 in Jumping plant-lice of the family Phacopteronidae (Hemiptera: Psylloidea) from Cameroon
Figure 3. Pseudophacopteron spp. (A, B) P. cuniculus; (C, D) P. nothospondiadis. (A) Antennal segments 3–4; (B) apex of antennal segment 4 with multiple rhinaria; (C) antennal segments 4–5; (D) apex of antennal segment 5 with single rhinarium. Scale bars: 0.03 mm (A); 0.005 mm (B, D); 0.01 mm (C).
Figure 7 in Jumping plant-lice of the family Phacopteronidae (Hemiptera: Psylloidea) from Cameroon
Figure 7. Pseudophacopteron spp. (A) P. cuniculus; (B) P. kala; (C) P. nothospondiadis; (D) P. fuscivenosum; (E) P. electum; (F) P. morion; (G) P. lecaniodisci; (H) P. pusillum; (I) P. eastopi. (A–I) Fore wings, distribution of surface spinules (delimited by dashed lines).
Figure 2 in Parallelism in secondary loss of sex from a heterogonic life cycle on different host plants in the Andricus mukaigawae complex (Hymenoptera: Cynipidae), with taxonomic notes
Figure 2. Representative karyotype of Andricus targionii (s. lat.) on Quercus dentata, Kitami. Scale bar: 10 mm.
Figure 1 in Parallelism in secondary loss of sex from a heterogonic life cycle on different host plants in the Andricus mukaigawae complex (Hymenoptera: Cynipidae), with taxonomic notes
Figure 1. Andricus targionii (s. lat.) populations on Quercus dentata used for the present chromosome study. 1, Kitami; 2, Minami-chitose; 3, Aomori; 4, Mt Haruna; 5, Lake Yamanaka; 6, Lake Shirakaba.
Figure 4 in Specifics of life cycle and damage of Oligonychus ununguis (Acari: Tetranychidae) on introduced species of coniferous plants in conditions of megalopolis
Figure 4. Relationship between the start of mass hatching of O. ununguis larvae and HC values at air temperature higher than 10 ℃.
Figure 2 in Specifics of life cycle and damage of Oligonychus ununguis (Acari: Tetranychidae) on introduced species of coniferous plants in conditions of megalopolis
Figure 2. Relationship between shoot growth of P. menziesii var. viridis Franco plants and the level of damage caused by O. ununguis.
Figure 3 in Specifics of life cycle and damage of Oligonychus ununguis (Acari: Tetranychidae) on introduced species of coniferous plants in conditions of megalopolis
Figure 3. Hydrothermal coefficient (HC) values for periods after the threshold temperature of 10 ℃ (2012– 2016).
Figure 1 in Specifics of life cycle and damage of Oligonychus ununguis (Acari: Tetranychidae) on introduced species of coniferous plants in conditions of megalopolis
Figure 1. Density levels (%) of Oligonychus ununguis on host plants of species and subspecies of Pseudotsuga menziesii (Mirb.) Franco and Picea glauca (Moench.) Voss. in the Fomin Botanical Garden (2012–2016).
Fig. 2a-f in Wild bees (Anthophila) of Porto Santo (Madeira Archipelago) and their habitats: species diversity, distribution patterns and bee-plant network *
Fig. 2a-f: a) Andrena dourada, female; b) Andrena portosanctana, female collecting pollen on Cakile maritima; c) Lasioglossum wollastoni, female in front of nesting site; d) Osmia latreillei iberoafricana, male visiting Cakile maritima; e) Amegilla quadrifasciata maderae, female collecting pollen on Echium portosanctensis, f) Bombus terrestris lusitanicus, worker, collecting pollen on Echium portosanctensis. Photos: A. Kratochwil (a, b, e), A. Schwabe (c, d, f).
Fig. 1 in Wild bees (Anthophila) of Porto Santo (Madeira Archipelago) and their habitats: species diversity, distribution patterns and bee-plant network *
Fig. 1: Aspects from some of our sampling sites and their surroundings in March after an extreme dry winter and a wet winter: Left: March 2012 (November 2011–March 2012, no precipitation); right: March 2017 (October 2016–March 2017, 301 mm precipitation); a, b: sand beach with Vila Baleira in the centre; c, d: Pico Juliana and mainly fallow land; e, f: southern-exposed extensively grazed dry grassland; view from Capela da Graça (in the background right: Pico do Facho with Pinus plantations). Photos: A. Schwabe.
Plant community data for European ecoregions
<p>Patterns in macroecology are related to species occurrence across meaningful spatial and temporal scales. The dataset provided here reports species distribution data (presence-absence) for herbaceous plants across a number of European habitats (ecoregions). Species occurrence is accompanied by the corresponding plant's maximun stem height values. This dataset has been used to unveil patterns of herbaceous plant height clustering in mid-latitude European ecoregions.</p> <p>Presence-absence data for herbaceous plants were drawn from Atlas Florae Europaeae (Jalas & Suominen, 1964-1999). Associated to each species, a dominant habitat (ecoregion) was assigned according to the WWF Biomes of the World classification. Each herbaceous species in an ecoregion was characterized by its maximum stem height. Mean height values were obtained for different sources. In order to correlate clustering patterns with productivity measures, actual evapotranspiration (AET) data is also provided. AET maps were obtained from data estimated through remote sensing (Mu et al., 2011), which are publicly available in the MODIS project website (http://www.ntsg.umt.edu/project/modis/mod17.php).</p> <p>Plant distribution and trait data across Europe unveils a relation between plant height clustering and actual evapotranspiration. This clustering is most evident in mid-latitude ecoregions, where conditions for growth (reflected in actual evapotranspiration rates) are optimal. Away from this optimum, climate severity leads to non-significant height clustering in actual communities.</p>
Figs 35–41. Doubledaya sinuata Zia, 1934 in Morphology of adult and immature stages, and host plant use of Doubledaya sinuata (Coleoptera: Erotylidae: Languriinae)
Figs 35–41. Doubledaya sinuata Zia, 1934, adult male and female (35), adult female (36–37) and oviposition hole (38–39) on recently dead Sinobambusa sat bamboo culm and larva inside S. sat internode cavity (40–41). 35 – mating; 36 – making an oviposition hole; 37 – inserting the ovipositor into an oviposition hole; 38 – outer opening; 39 – inner opening; 40 – young instar larva; 41 – mature larva. Arrows indicate pith tissue. Scale bars = 1.0 mm (38–39), 5.0 mm (40–41).
Figs 1–18. Doubledaya sinuata Zia, 1934 in Morphology of adult and immature stages, and host plant use of Doubledaya sinuata (Coleoptera: Erotylidae: Languriinae)
Figs 1–18. Doubledaya sinuata Zia, 1934, adult female (1–12) and male (13–18). 2, 14 – head, dorsal view; 3 – right antenna, dorsal view; 4, 15 – pronotum; 5 – prosternal process; 6 – anterior part of elytron with scutellum; 7 – apices of elytron; 8 – abdominal segment VII, ventral view; 9 – abdominal segment VIII, dorsal view; 10 – apex of ovipositor, left lateral view; 11 – apex of ovipositor, ventral view; 12 – spermatheca; 16 – tegmen, ventral view; 17–18 – median lobe, dorsal (17) and ventral (18) views. An arrow indicates gonostylus. Scale bars = 2.0 mm (1, 13), 1.0 mm (2–7, 14–18) 0.5 mm (8–11), 0.1 mm (12).
Figs 19–34. Doubledaya sinuata Zia, 1934 in Morphology of adult and immature stages, and host plant use of Doubledaya sinuata (Coleoptera: Erotylidae: Languriinae)
Figs 19–34. Doubledaya sinuata Zia, 1934, larva (19–28) and pupa (29–34). 19–20 – larva, dorsal (19) and left lateral (20) views; 21 – head; 22 – right antenna, dorsal view; 23 – left mandible, ventral view; 24–25 – left maxilla, dorsal (24) and ventral (25) views; 26 – labium, ventral view; 27 – right front leg, anterior view; 28 – spiracle of abdominal segment I; 29–31 – pupa, ventral (29), left lateral (30) and dorsal (31) views; 32 – spines on abdominal tergite VII, posterior view; 33 – spines on abdominal sternite VII, posterior view; 34 – urogomphi, dorsal view. Scale bars = 5.0 mm (19–20, 29–31), 0.5 mm (21, 27), 0.2 mm (22–26, 32–34), 0.1 mm (28).
Figs. 11−18 in Species inventory, preys and host plants of Anthocoridae sensu lato (Hemiptera: Heteroptera) in Shiraz and its environs (Iran, Fars province)
Figs. 11−18. Parameres of Anthocoridae. 11 − Temnostethus reduvinus parilis (Horváth, 1891), 12 − Anthocoris minki pistaciae Wagner, 1957, 13 − Orius albidipennis (Reuter, 1884), 14 − O. niger (Wolff, 1811), 15 − O. laevigatus laevigatus (Fieber, 1860), 16 − O. laticollis discolor (Reuter, 1884), 17 − O. horvathi (Reuter, 1884), 18 − O. vicinus (Ribaut, 1923). Abbreviations: cn − cone, dt − denticule, fg − flagellum. Scale bars = 0.05 mm.
Figs 146–151 in Taxonomic review of the plant bug genera Amapacylapus and Cylapus with descriptions of two new species and a key to the genera of Cylapini (Hemiptera: Heteroptera: Miridae)
Figs 146–151. Scanning electron micrographs of Cylapus tucuruiensis Carvalho, 1989 (146, 147), Peltidocylapus scutellaris (Poppius, 1909) (148, 149), and Valdasus sp. (150, 151): 146, 149, 151 – thoracic pleura; 147 – pretarsal structure; 148, 150 – lateral view. Abbreviations: ea = evaporative areas; msp = metathoracic spiracle; pc = posterior carina; per = peritreme.
Figs 110–119 in Taxonomic review of the plant bug genera Amapacylapus and Cylapus with descriptions of two new species and a key to the genera of Cylapini (Hemiptera: Heteroptera: Miridae)
Figs 110–119. Male genitalia of Cylapus stellatus (Distant, 1883) (110–114) and C. striatus Reuter, 1907 (115–119): 110, 115 – endosoma; 111, 116 – left paramere (dorsal view); 112, 117 – left paramere (right lateral view); 113, 118 – apical process of left paramere; 114, 119 – right paramere (left lateral view). Abbreviations: bpr = basal process; dss = sclerotized portion of ductus seminis inside endosoma; es1–4 = endosomal sclerites 1–4; pb = paramere body; sg = secondary gonopore; sl = sensory lobe. Scale bars: 0.1 mm.
Figs 97–106 in Taxonomic review of the plant bug genera Amapacylapus and Cylapus with descriptions of two new species and a key to the genera of Cylapini (Hemiptera: Heteroptera: Miridae)
Figs 97–106. Male genitalia of Cylapus marginicollis (Distant, 1883) (97–101) and C. ruficeps Bergroth, 1922 (102–106): 97, 102 – endosoma; 98, 103 – left paramere (dorsal view); 99, 104 – left paramere (right lateral view); 100, 105 – apical process of left paramere; 101, 106 – right paramere (left lateral view). Abbreviations: bpr = basal process; dss = sclerotized portion of ductus seminis inside endosoma; es1–4 = endosomal sclerites 1–4; pb = paramere body; sg = secondary gonopore; sl = sensory lobe. Scale bars: 0.1 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.