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Fig. 9 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 9 Relationship between the scutum width of Rhodanthidium caturigense and the geographic latitude. The scutum width highly correlates with other morphometric parameters and is a good indicator of body size
Fig. 10 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 10 Mean scutum width in the seven operational units (OUs) of Rhodanthidium caturigense. While scutum width is similar in the southern populations, there is significant sexual dimorphism some northern populations
Fig. 6 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 6 Shape and coloration of the clypeus A, B in the male and coloration of abdominal terga C, D in the female of Rhodanthidium caturigense. In southern populations, the male clypeus is yellow or almost yellow, with a straight or only shallowly emarginate apical margin A. In northern populations, particularly in the Alps, the male
Fig. 5 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 5 Male of Rhodanthidium caturigense (s.l.) from various regions. The coloration changes from bright yellow in the south to dull yellow in the north, and the melanic coloration increases towards
Fig. 3 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 3 Templates used for describing the extent of yellow colour on clypeus, scutum, scutellum, axilla and pronotal lobe in Rhodanthidium caturigense. The numbers below the figures give the numerical values used for assessing the overall colour scores
Fig. 4 in So different but nonetheless the same species: multiple geographic clines explain the diverse forms of the anthidiine bee Rhodanthidium caturigense s.l. (Apoidea: Megachilidae: Anthidiini)
Fig. 4 Template used for describing the pattern of yellow colour on gena and vertex in Rhodanthidium caturigense. The numerical values are given below the drawings
FIGURE 5. Macroptilium atropurpureum floral and vegetative parts. A. Life form. B in Contribution to Egypt's Flora: new records from Nile Islands, South Valley, Egypt
FIGURE 5. Macroptilium atropurpureum floral and vegetative parts. A. Life form. B. Petals of flower. C. 3-foliolate leaves. D. Seed under Olympus SZ61 microscope with Toup camera (Scale bar = 500 μm). E. Herbarium specimen [Fatma A.A. Ayed 11821 (ASW, TANE, CAI)].
FIGURE 16 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 16. Epilithic diatoms from Cascavel River micro-watershed in SEM. A–B. Nitzschia clausii. C–D. N. inconspicua, external and internal views. E–F. N. perminuta. G–H. Iconella curvula. I. I. delicatissima. Scale bars: 2 µm (Figs B–H), 5 µm (Fig. A), 10 µm (Fig. I).
FIGURE 15 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 15. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Pinnularia acoricola. B. Chamaepinnularia brasilianopsis. C–D. Sellaphora nigri, internal and external views. E. S. saugerresii. F. Navicula cryptocephala. G. N. salinicola. H–I. N. symmetrica, external and internal views. Scale bars: 2 µm (Figs A–E, G), 5 µm (Figs F, H–I).
FIGURE 10 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 10. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Capartogramma crucicula. B. Gyrosigma acuminatum. C. G. obtusatum. D–E. Navicula eichhorniaephila. F–I. N. cryptocephala. G–I. Teratological valves. J. N. angusta. K. N. leptostriata. L–M. N. cryptotenella. M. Teratological valve. N. N. radiosa. O–P. N. tenelloides. Q. N. symmetrica. R. N. schwabei. S. N. rostellata. T–U. N. salinicola. V–W. Craticula submolesta. W. Teratological valve. X. C. ambigua. Y–Z. C. riparia. Z. Teratological valve. AA–AB. Stauroneis smithii. AC. S. gracilis. AD. S. neohyalina. AE. S. phoenicenteron. AF–AG. Chammaepinnularia brasilianopsis. AH. Pseudofallacia monoculata. AI–AJ. Kobayasiella parasubtilissima. AK. Halamphora montana. AL. H. normanii. AM. Amphora copulata. Scale bars: 10 µm.
FIGURE 13 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 13. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Eunotia bilunaris, teratological valve with constriction in the median portion of the valve (arrow). B–C. E. botulitropica. C. Girdle view. D–E. E. rhomboidea. E. Internal view. F–G. E. desmogonioides, internal views. H. E. georgii. I. Geissleria punctifera. J. Gomphonema lagenula, teratological valve with bent apex (arrow). K–L. G. pumilum. K. Internal view. Scale bars: 2 µm (Figs A–G, I–K), 5 µm (Fig. H), 1 µm (Fig. L).
FIGURE 12 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 12. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Cyclotella kingstonii. B–C. Discostella stelligera. C. Internal view. D. Aulacoseira ambigua. E–F. A. tenella. F. Internal view. G. A. pusilla. H–I. Fragilaria radians. H. Internal view. J–K. F. pectinalis. Scale bars: 2 µm (Figs A–H, K), 5 µm (Figs I–J).
FIGURE 11 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 11. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Hantzschia amphioxys. B. Nitzschia dissipata. C–F. N. palea. D–F. Teratological valves. G. N. clausii. H. N. recta. I. N. intermedia. J. N. lorenziana. K. N. linearis. L–M. N. palea var. debilis. N–P. N. inconspicua. Q. N. brevissima. R–S. N. perminuta. T. N. terrestris. U–V. N. amphibia. W. N. semirobusta. X. Tryblionella debilis. Y. Rhopalodia gibberula. Z–AA. Iconella curvula. AB. I. delicatissima. AC. I. splendida. AD. I. tenuissima. AE. Surirella stalagma. AF. S. angusta. AG. S. biseriata var. constricta. AH. Iconella constricta. Scale bars: 10 µm.
FIGURE 9 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 9. Epilithic diatoms from Cascavel River micro-watershed in LM. A–B. Pinnularia graciloides var. latecapitata. B. Teratological valve. C. P. graciloides var. triundulata. D. P. viridiformis. E. P. tabellaria. F–G. P. subgibba var. undulata. H. P. subgibba. I. P. stidolphii. J–K. P. laucensis. L–M. P. certa. N. P. microstauron var. rostrata. O. P. subcapitata. P. P. subanglica. Q. P. meridiana. R. P. rumrichae. S–T. P. obscura. U. P. schoenfelderi. V. P. joculata. W. Fallacia insociabilis. X–Y. Sellaphora nigri. Z. S. laevissima. AA. S. rhombicarea. AB. S. pupula. AC–AF. S. saugerresii. AD–AF. Teratological valves. AG. S. sassiana. AH. S. tridentula. AI. Diploneis subovalis. AJ. Caloneis hyalina. AK. C. westii. AL–AM. C. bacillum. AM. Teratological valve. Scale bars: 10 µm.
FIGURE 14 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 14. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Achnanthidium caledonicum, rapheless valve. B. A. macrocephalum, rapheless valve. C–E. A. minutissimum. C–D. Raphid and rapheless valve in external view. E. Internal view of rapheless valve. F–G. A. tropicocatenatum, raphid and rapheless valve. H. Brachysira microcephala. I. Luticola ectorii. J. Frustulia weinholdii. K–L. Frustulia australocrassinervia. M. F. neomundana. Scale bars: 2 µm (Figs A–J, M), 5 µm (Fig. K), 1 µm (Fig. L).
FIGURE 7 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 7. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Placoneis elginensis. B. P. hambergii. C. P. undulata. D. Achnanthes inflata. E–G. Achnanthidium caledonicum. H–P. A. macrocephalum. L–P. Teratological valves. Q–T. A. tropicocatenatum. U–AC. A. minutissimum. X–AC. Teratological valves. AD–AH. A. modestiforme. AF–AH. Teratological valves. AI–AJ. Gogorevia constricta. AK. Planothidium bagualensis. AL. P. lagerheimii. AM–AP. P. rostratum. AO–AP. Teratological valves. AQ–AR. P. frequentissimum. AS–AT. Psammothidium hustedtii. AU–AV. Humidophila arcuatoides. AW. H. implicata. AX–AZ. H. contenta. AAA– AAC. H. subtropica. AAD. Cocconeis fluviatilis. AAE. C. lineata. AAF. Luticola ectorii. AAG. L. hustedtii. AAH. L. charlatii. AAI– AAJ. L. permuticoides. AAK. L. ventricosa. AAL–AAN. L. goeppertiana. Scale bars: 10 µm.
FIGURE 6 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 6. Epilithic diatoms from Cascavel River micro-watershed in LM. A–B. Gomphonema affine. C–H. G. angustatum. F–H. Teratological valves. I. G. brasiliense. J–K. G. brasiliense subsp. pacificum. L. G. brasiliensoide. M–O. G. exilissimum. P–R. G. parvulum. S. G. frequentiformis. T–Y. G. graciledictum. W–Y. Teratological valves. Z. G. perapicatum. AA–AB. G. hawaiiense. AC. G. guaraniarum. AD–AF. G. saprophilum. AG–AI. G. pseudoaugur. AJ–AM. G. pumilum. AM. Teratological valve. AN–AS. G. lagenula. AQ–AS. Teratological valves. AT–AU. G. naviculoides. AU. Teratological valve. Scale bars: 10 µm.
FIGURE 5 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 5. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Eunotia ossicula. B–G. E. rhomboidea. E–G. Teratological valves. H. E. tropico-arcus. I–K. E. veneris. L. E. yanomami. M–P. E. yberai. N–P. Teratological valves. Q. Cymbopleura naviculiformis. R–S. Encyonema angustecapitatum. T. E. perpusillum. U. E. neogracile. V–X. E. neomesianum. X. Teratological valve. Y–AA. E. silesiacum. AA. Teratological valve. AB. E. minutiforme. AC–AE. E. exuberans. AF–AH. Navigeia ignota. AI–AK. Placogeia kriegeri. AL–AM. Encyonopsis subminuta. AN–AO. E. difficilis. AP. E. schubartii. AQ–AS. E. thienemannii. AT–AU. Geissleria punctifera. AV. Kurtkrammeria spicula. Scale bars: 10 µm.
FIGURE 4 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 4. Epilithic diatoms from Cascavel River micro-watershed in LM. A–C. Actinella hermes-moreirae. D–J. Eunotia bilunaris. G–J. Teratological valves. K–P. E. botulitropica. P. Teratological valve. Q–R. E. canicula. S–T. E. desmogonioides. T. Teratological valve. U–X. E. subarcuatoides. W–X. Teratological valves. Y–Z. E. fallax. AA. E. formica. AB. E. formicina. AC. E. karenae. AD. E. intricans. AE. E. longicamelus. AF. E. rabenhorstii var. monodon. AG. E. rabenhorstii var. triodon. AH–AJ. E. juettnerae. AK–AM. E. kruegeri. AN–AO. E. muscicola. AP–AQ. E. monodon. AQ. Teratological valve. AR–AX. E. meridiana. AV–AX. Teratological valves. AY. E. georgii. Scale bars: 10 µm.
FIGURE 1 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 1. Location of the eight sampling sites (S1–S8) in the Cascavel River micro-watershed, Paraná State, Southern Brazil.
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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)
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.