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FIGURES 9–12. SEM. Cyclotella utahensis. External and girdle views. Fig. 9 in New and Interesting Diatoms (Bacillariophyta) from Blue Lake Warm Springs, Tooele County, Utah
FIGURES 9–12. SEM. Cyclotella utahensis. External and girdle views. Fig. 9, Full valve view showing undulate and mottled valve face. Fig. 10, Full valve view showing external opening of the central fultoportula (white arrow). Fig. 11, Girdle view showing open girdle bands. Fig. 12, External view with nodules and external openings of the marginal fultoportulae (white arrows) and the rimoportula (black arrow). Scale bars: 1 µm.
Data used in "Spring-fall asymmetry in VLF amplitudes recorded in the North Atlantic region: the fall-effect"
<p>File "VLF_NA_2011-2019.sav", contains the amplitude VLF data used to generate Figure 1, Figure 4a, and Figures S1, S2, and S3 in "Spring-fall asymmetry in VLF amplitudes recorded in the North Atlantic region: the fall-effect". The article was published in Geophysical Research Letters.</p> <p>http://doi.org/10.1029/2021GL094581</p>
FIGURE 3 in Cyanocohniella calida gen. et sp. nov. (Cyanobacteria: Aphanizomenonaceae) a new cyanobacterium from the thermal springs from Karlovy Vary, Czech Republic
FIGURE 3. Phylogenetic position of the genus Cyanocohniella in the order Nostocales based on Bayesian analysis with 16S rRNA gene sequence data. Bootstrap support from Bayesian, maximum parsimony and maximum likelihood analysis reported above nodes respectively. Sequences generated in this study are in bold font.
FIGURE 2 in Cyanocohniella calida gen. et sp. nov. (Cyanobacteria: Aphanizomenonaceae) a new cyanobacterium from the thermal springs from Karlovy Vary, Czech Republic
FIGURE 2. Morphological variability of the type strain of Cyanocohniella calida sp. nov. A. Hormogonia (Pseudanabaena-like stadium). B. Intermediate stage between Pseudanabaena and Nostoc-like stages. C–G. Nostoc-like stage. H. Different sizes of cells in one trichome. I–J. Akinetes. K–N. Chlorogloeopsis-like stage, multiple brachning. O, P. Germination of akinetes. Scale = 5 μm
FIGURE 5. Box B and V3 in Cyanocohniella calida gen. et sp. nov. (Cyanobacteria: Aphanizomenonaceae) a new cyanobacterium from the thermal springs from Karlovy Vary, Czech Republic
FIGURE 5. Box B and V3 helices of the 16S-23S ITS for Cyanocohniella and comparison taxa (full citations to taxa and accession numbers given in legend for Fig. 4). A–G. Box B helix. H–N. V3 helix. Sequences of all comparison taxa are compared to sequence of C. calida and minimum number of mutations to achieve the C. calida sequence are given in circles above terminus of each structure. Possible substitutions (hollow circles), deletions (minus signs), and insertions (plus signs) are shown at positions in helix where they likely occurred if differences observed are explained parsimoniously through just comparison to C. calida.
FIGURE 4. D1–D1 in Cyanocohniella calida gen. et sp. nov. (Cyanobacteria: Aphanizomenonaceae) a new cyanobacterium from the thermal springs from Karlovy Vary, Czech Republic
FIGURE 4. D1–D1' helix of the 16S-23S ITS for Cyanocohniella and comparison taxa. A. Cyanocohniella calida CCALA 1049 (KJ737427). B. Dolichospermum circinale 33-10 (EF634474). C. Nodularia harveyana Hubel 1983/300 (AF367159). D. Cylindrospermum ovalisporum ILC-164 (JF768743). E. Anabaenopsis Oleksovice (KF010323), F. Camptylonemopsis sp. HA4241-MV5 (JN385292). G. Nostoc lichenoides CNP-AK1 (AY579894). Sequences of all comparison taxa are compared to sequence of Cyanocohniella calida and minimum number of mutations to achieve the C. calida sequence are given in circles above terminus of each structure. Possible substitutions (hollow circles) and insertions (plus signs) are shown at positions in helix where they likely occurred if differences observed are explained parsimoniously through just comparison to C. calida.
FIGURE 3 in Arthrobotrys xiangyunensis, a novel nematode-trapping taxon from a hot-spring in Yunnan Province, China
FIGURE 3. Neighbor-joining tree generated based on beta-tubulin complete sequences of nematode-trapping fungi species. Bootstrap values were indicated on the branches. Neurospora crassa was set as outgroup. Scale bar at the bottom showed the tree length. M. = Monacrosporium, A. = Arthrobotrys, D. = Dactylella, Dac. = Dactylellina, Dre. = Drechslerella.
FIGURE 1 in Arthrobotrys xiangyunensis, a novel nematode-trapping taxon from a hot-spring in Yunnan Province, China
FIGURE 1. Arthrobotrys xiangyunensis (holotype). A–C. Conidiophores. D. Chlamydospores. E–H, J–N. Mature conidia. I. Adhesive network. Bars = 10μm.
FIGURE 2 in Arthrobotrys xiangyunensis, a novel nematode-trapping taxon from a hot-spring in Yunnan Province, China
FIGURE 2. Neighbor-joining tree generated based on ITS1, ITS2 and 5.8S rDNA complete sequences of nematode-trapping fungi species. Bootstrap values were indicated on the branches. Neurospora crassa was set as outgroup. Scale bar at the bottom showed the tree length. M. = Monacrosporium, A. = Arthrobotrys, D. = Dactylella, Dac. = Dactylellina, Dre. = Drechslerella.
Figure 10 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 10. The yearly decline in oviposition rate at Cross Creek from 1994 to 2017, recorded as average eggs/stem (500 plant minimum each year) for the four weeks from 22 March to 18 April. (F = 11.501, p = 0.003, R2 = 0.390). Excluding the extraordinary high value in 1995, the decline by 1,18 linear regression is about 78%. Based on a total of 3545 eggs.
Figure 2 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 2. View across Hogan's pasture showing numerous flowering Asclepias humistrata plants. 28 April 2010. Photo by K. Sims Dunford.
Figure 6 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 6. Appearance of adults at Cross Creek calculated as the number captured per hour, averaged for each week from 1994 through 2017 (excluding 1997, 2000–2001, 2003). The earliest arrival was 14 March (week of 8–14 March). Not all weeks were surveyed in each year. Means are shown with 95% CI. Based on observations of a total of 865 adults.
Figure 9 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 9. Egg abundance through the spring, recorded as mean eggs/stem for each week from 1994 through 2017 (50 plants per sample, minimum of 500 plants examined each year; excludes 1997, 2001, and 2004). Means are shown with 95% CI calculated from 3545 eggs found during 44,753 surveys of stems.
Figure 5 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 5. Variation in flowering phenology of Asclepias humistrata at Cross Creek across three years; 2002 was a typical year, 2008 was an early year, and 2010 was a late year.
Figure 11 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 11. Phenology of immatures at Cross Creek, totalled for 1994–2017. Larvae are divided into 1st through 3rd and 4th and 5th instar. Based on totals of 3444 eggs and 1295 larvae.
Figure 1 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 1. Satellite view of Hogan's pasture (X) and the roadsides in Cross Ck, Alachua Co., FL, where the density, health, stage and number of Asclepias humistrata plants and stems and the spring breeding populations of monarch butterflies were assessed.
Figure 7 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 7. Wing wear of monarchs for each week through the spring flight period, from a total of 302 adults combined for 2005–2017 using a scale from 1 (very fresh with no scale loss) to 5 (worn, many scales missing). Two measures are shown for each week: the median determined from all butterflies and the proportion of adults with wing wear 1s and 2s. Individuals in early April were mostly fresh.
Figure 4 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 4. Development of Asclepias humistrata at Cross Creek (data for 1997–2017; no counts for 2000 and 2003). Plants without any flower development are excluded. Maximum flowering occurred the week of 12–18 April. Based on 11,707 observations.
Figure 8. Adults captured per hour averaged for the four central weeks, 22 March–18 April, from 1994–2017. Data were not available for 1997, 1999–2001 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 8. Adults captured per hour averaged for the four central weeks, 22 March–18 April, from 1994–2017. Data were not available for 1997, 1999–2001, and 2003–2004.
Figure 3 in A long-term survey of spring monarch butterflies in north-central Florida
Figure 3. Stages of development of Asclepius humistrata. (a) Indeterminate (without reproductive organs, 24 April 2010); (b) early bud (immature flower buds visible outside terminal leaves, 3 April 2012); (c) bud (mature flower buds, 26 March 2009); (d) flowering (8 May 2010); (e) pod (fully mature seed pods, 19 May 2010); (f) post-pod (senesced pods that have released their seeds, 26 May 2010); (g) frost damaged plant (9 April 2009); (h) fifth instar Danaus plexippus on a flowering plant (24 April 1996). Photos by L.P. Brower, K. Sims Dunford, and M. Standridge.
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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.