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FIGURE 3 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 3. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Stephanocyclus meneghinianus. B. Cyclotella kingstonii. C–E. Discostella stelligera. D–E. Teratological valves. F. Melosira varians. G. Orthoseira roeseana. H. Aulacoseira ambigua. I. A. brasiliensis. J. A. granulata var. angustissima. K. A. granulata. L–N. A. pusilla. O–Q. A. tenella. R–T. Fragilaria fragilarioides. U–AA. F. radians. X–AA. Teratological valves. AB–AH. F. pectinalis. AE–AH. Teratological valves. AI–AK. F. tenera. AL–AO. F. tenera var. nanana. AN–AO. Teratological valves. AP–AR. F. spectra. AS–AT. Fragilariforma javanica. AU. Ulnaria contracta. AV. U. delicatissima. AW–AZ. U. ulna. AX–AZ. Teratological valves. Scale bars: 10 µm.
FIGURE 2 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 2. Variability of environmental data for the eight sampling sites in the Cascavel River micro-watershed, Paraná State, Brazil. a) Principal Component Analysis for abiotic data analyzed from water samples (BOD: Biochemical Oxygen Demand; NO: nitrate; 3 Cond: electrical conductivity; DS: dissolved solids; TP: total phosphorus; PO −: Component 4 orthophosphate). b) Principal Analysis for metals data analyzed in the surface sediment (Co: cobalt, Cr: chromium, Cu: copper, Mn: manganese, Ni: nickel, Pb: lead, Zn: zinc). The sampling sites for surface sediment were represented by polygons.
FIGURE 10 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 10 (continued). Therophytes. G: Chrozophora tinctoria, H: Euphorbia szovitsii, I: Glaucium elegans, J: Hyoscyamus pusillus, K: Lamium amplexicaule, L: Trigonella monantha.
FIGURE 10. Therophytes. A in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 10. Therophytes. A: Adonis aestivalis, B: Alyssum turkestanicum, C: Arnebia fimbriopetala, D: Asperula arvensis, E: Astragalus stalinskyi, F: Ceratocephala falcata.
FIGURE 8. Chamaephytes. A in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 8. Chamaephytes. A: Acantholimon erinaceum, B: Acanthophyllum brevibracteatum, C: Acanthophyllum elatius, D: Acanthophyllum korshinsky, E: Astragalus chiwensis, F: Astragalus chrystostachys.
FIGURE 7 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 7 (continued). Hemicryptophytes. S: Ranunuculus crymophilus, T: Taraxacum brevirostre, U: Taraxacum oliganthum, V: Taraxacum serotinum, W: Trifolium pratense, X: Veronica kurdica.
FIGURE 1 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 1. The map of the studied area, mountains between Damghan and Shahrud including Gavkoshan, Karkasi, Chaloei and Shahvar Mts. The squares show the main locations of plant sampling during the 10-year fieldwork.
FIGURE 6 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 6 (continued). Examples of the Irano-Turanian Endemics. S: Ranunculus elbursensis, T: Rindera bungei, U: Silene demawendica, V: Tanacetum tenuisectum, W: Tragopogon porphyrocephalus, X: Veronica aucheri.
FIGURE 7 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 7 (continued). Hemicryptophytes. M: Gnaphalium supinum, N: Jurinella microcephala, O: Linaria pyramidalis, P: Potentilla bungei, Q: Potentilla polyschista, R: Pseudosedum multicaule.
FIGURE 6 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 6 (continued). Examples of the Irano-Turanian Endemics. M: Corydalis chionophila, N: Cousinia shahvarica, O: Jurinea boreoiranica, P: Linaria michauxii, Q: Myopordon hyrcanum, R: Onobrychis gaubae.
FIGURE 7 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 7 (continued). Hemicryptophytes. G: Dianthus crossopetalus, H: Didymophysa aucheri, I: Dielsiocharis kotschyi, J: Dracocephalum aucheri, K: Echinops chorassanicus, L: Erysimum caespitosum.
FIGURE 7. Hemicryptophytes. A in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 7. Hemicryptophytes. A: Androsace villosa, B: Astragalus dactylocarpus, C: Astragalus masenderanus, D: Cerastium purpurascens, E: Corydalis rupestris, F: Cousinia smirnowii.
FIGURE 9. Geophytes. A in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 9. Geophytes. A: Allium barsczewskii, B: Allium cristophii, C: Allium scabriscapum, D: Asparagus breslerianus, E: Berula erecta, F: Gagea alexeenkoana.
FIGURE 6 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 6 (continued). Examples of the Irano-Turanian Endemics. G: Astragalus gueldenstaedtiae, H: Astragalus perdurans, I: Astragalus plagiophacos, J: Astragalus subalpinus, K: Astragalus touranicus, L: Colutea porphyrogramma.
FIGURE 9 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 9 (continued). Geophytes. G: Gagea chomutovae, H: Gagea confusa, I: Gagea tenuifolia, J: Geranium kotschyi, K: Iris kopetdagensis, L: Tulipa micheliana.
FIGURE 8 in Floristic composition, life forms and phytogeography of the mountains between Damghan and Shahrud, Eastern Alborz (Iran)
FIGURE 8 (continued). Chamaephytes. G: Capparis spinosa, H: Convolvulus fruticosus, I: Hymenocrater calycinus, J: Onobrychis cornuta, K: Ononis spinosa, L: Salsola arbusculiformis.
Form-specific prospective environmental risk assessment of graphene-based materials in European Freshwaters
<p>This dataset is related to the following publication:</p> <p>Title: Form-specific prospective environmental risk assessment fo graphene-based materials in European freshwaters</p> <p>Authors: Hyunjoo Hong, Bernd Nowack </p> <p>The files contain input files and final codes of the fs-MFA and fs-PSSD models.</p>
FIG. 3 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 3. Evidence of genetic variation in plasticity. Different sibships varied in propensity to produce carnivores in response to the absence vs. presence of desiccated conspecifics. Similar-shaded boxes are siblings (i.e., similar genotypes; within each soil type, the four boxes refer to sibships 1–4 reading from left to right). Box plots show quintiles and median (middle horizontal line). Groups not connected by the same letter above the box plots are significantly different from each other (P, 0.05; Tukey HSD test).
FIG. 1 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 1. Study system. Mexican Spadefoots, Spea multiplicata, breed in (A) ephemeral pools that (B) dry rapidly (this is the same pond as in panel 'A,' but nine days later). (C) Consequently, the tadpoles often desiccate before reaching metamorphosis. (D) To speed development, Spea tadpoles have evolved phenotypic plasticity to shift from an 'omnivore' morph (left) to a more rapidly developing 'carnivore' morph (right).
FIG. 2 in Dead Spadefoot Tadpoles Adaptively Modify Development in Future Generations: A Novel Form of Nongenetic Inheritance?
FIG. 2. Effects of soil type on growth, development, and trophic morphology. Compared to their siblings reared in the absence of tadpole remains (control soil), by the end of the experiment, those reared in the presence of desiccated conspecifics (tadpole-remains soil) were: (A) larger, (B) more developmentally advanced, and (C) more carnivore-like in trophic morphology. Box plots show quintiles and median (middle horizontal line).
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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.