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Figure 5. 2007-2008 in Conservation considerations revealed by the movements of post-nesting green turtles from the Republic of the Marshall Islands
Figure 5. 2007-2008 post-nesting movement of a 96 cm CCL green turtle ID 40703, "Loj3", from Erikub Atoll, Republic of the Marshall Islands to the southern islands of Bikini Atoll. Loj3 traveled a total distance of 6,739 km, in the 215 days the satellite tag transmitted.
Figure 3. 2007-2008 in Conservation considerations revealed by the movements of post-nesting green turtles from the Republic of the Marshall Islands
Figure 3. 2007-2008 post-nesting movement of a 105 cm CCL green turtle ID 40719, "Loj2", from Erikub Atoll, Republic of the Marshall Islands to Palawan Island, Philippines. Loj2 traveled a total distance of 6,935 km, in the 345 days the satellite tag transmitted.
Figure 4. 2007-2008 in Conservation considerations revealed by the movements of post-nesting green turtles from the Republic of the Marshall Islands
Figure 4. 2007-2008 post-nesting movement of a 100 cm CCL green turtle ID 40728, "Loj1", from Erikub Atoll, Republic of the Marshall Islands to Tarawa, Kiribati. Loj1 traveled a total distance of 2,795 km, in the 234 days the satellite tag transmitted.
Figure 2. 2007-2008 in Conservation considerations revealed by the movements of post-nesting green turtles from the Republic of the Marshall Islands
Figure 2. 2007-2008 post-nesting movement of five green turtles from Erikub Atoll, Republic of the Marshall Islands.
Figure 1 in Conservation considerations revealed by the movements of post-nesting green turtles from the Republic of the Marshall Islands
Figure 1. Map of Republic of the Marshall Islands – major atolls labeled. Inset map of Erikub Atoll, Republic of the Marshall Islands. Loj island, the nesting site where turtles were satellitetagged, is indicated by red arrow.
Figure 6 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 6: PCR results using Meloidogyne-specific and M. naasi and M. marylandi-specific primers. DL: DNA Ladder; 1: Meloidogyne spp. (DNA ID:9); 2: M. naasi (DNA ID:9); 3: Meloidogyne spp. (DNA ID:4); 4: M. marylandi (DNA ID:4); and 5: Meloidogyne spp.(DNA ID:4).
Figure 3 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 3: PCR results using Hoplolaimus-specific and H. stephanus, H. columbus and H. galeatus-specific primers. DL: DNA Ladder; 1: Hoplolaimus spp. (DNA ID:10); 2: H. stephanus (DNA ID:10); 3: H. columbus (DNA ID:10); 4 H. galeatus (DNA ID:10); 5: Hoplolaimus spp. (DNA ID:3); 6: H. stephanus (DNA ID:3); 7: H. columbus (DNA ID:3); 8 H. galeatus (DNA ID:3); 9: Hoplolaimus spp. (DNA ID:4); 10: H. stephanus (DNA ID:4); 11: H. columbus (DNA ID:4); and 12 H. galeatus (DNA ID:4).
Figure 2 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 2: Phylogeny of the rDNA ITS region of Hoplolaimus spp. isolated from golf putting greens. Phylogenetic trees were constructed with the neighbor-joining algorithm using the Kimura two-parameter model with Litylenchus spp. (LC383724) as the outgroup. Bootstrap values are based on 1000 resamplings of the data set. DNAID codes correlate to Table 2.
Figure 1 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 1: Distribution of plant-parasitic nematode species sampled from creeping bentgrass putting greens in Missouri and eastern Kansas in 2021 and Indiana in 2022 in two independent pie charts. Samples were collected during the months of April, June, August and October of 2021 and 2022, respectively. "n" indicates total PPNs represented within each chart.
Figure 4 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 4: Scanning-electron micrographs of a lance nematode specimen collected form Site 5. A) four lip annules; B) the presence of an epiptygma; C) 25 longitudinal striae on the basal lip annule; and D) four lateral incisures.
Figure 5 in Depth distribution of plant-parasitic nematodes on bentgrass golf greens in Missouri and Indiana
Figure 5: Phylogeny of molecularly characterized Meloidogyne spp. isolated from golf coursed based on D2/D3 28S genes. phylogenetic trees were constructed with the neighborjoining algorithm using the Kimura two-parameter model with Litylenchus spp. (LC383724) as the outgroup. Bootstrap values are based on 1000 resamplings of the data set and displayed near branch nodes. DNAID codes correlate to Table 2.
Fig. 2 in A new transitional "libelluloid" family of odonates with Mesozoic affinities in the Eocene Green River Formation of Utah, USA
Fig. 2. Anisopteran dragonfly Cordulibellula inopinata gen. et sp. nov. from Lake Uinta, Utah, USA, Eocene, holotype FHPR 11611, reconstruction of wing base (A1), detail of wing apex (A2). Abbreviations: a.l., anal loop; N, nodus; Pt, pterostigma; t, discoidal triangle.
Fig. 1 in A new transitional "libelluloid" family of odonates with Mesozoic affinities in the Eocene Green River Formation of Utah, USA
Fig. 1. Anisopteran dragonfly Cordulibellula inopinata gen. et sp. nov. from Lake Uinta, Utah, USA, Eocene, holotype FHPR 11611, part (A1), counterpart (A2), detail of wing base (A3). Abbreviations: a.l., anal loop; N, nodus; t, discoidal triangle.
Fig. 15 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 15. Interpretation of voids and pores in fertile specimens of dasycladalean alga Chinianella ellenbergeri (Lebouché and Lemoine in Granier and Deloffre, 1994) Granier, Masse, and Berthou, 1994, emend. nov.; colours as in Fig. 5. A. Axial view (general axial section). B. Tangential oblique section, based on specimen in Fig. 7D, LM-DiSTAR/BA.577.19, n. 095. C. Oblique section showing structures interpreted as reproductive organs, not all whorls display gametophores (see arrow); based on the specimen in Fig. 14, LM-DiSTAR/BA.577.b, n. 045. D. Tangential oblique section, based on specimen in Fig. 7E, LM-DiSTAR/BA.577.14, n. 040.
Fig. 14 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 14. Dasycladalean alga Chinianella ellenbergeri (Lebouché and Lemoine in Granier and Deloffre, 1994) Granier, Masse, and Berthou, 1994, emend. nov., upper Sinemurian (Lotharingian), Canders, 2.4 km E of Fontcaude (S France). LM-DiSTAR/BA.577.b, n. 045 (lost specimen), oblique section showing the presence of reproductive structures (see arrows).
Fig. 12 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 12. Late Triassic species of dasycladalean alga Distefanopolia gen. nov. A. Distefanopolia micropora (Di Stefano, 1981 ex Di Stefano and Senowbari-Daryan, 1985) nov. comb. B. Distefanopolia zanklii (Ott, 1968) nov. comb. C. Distefanopolia carpatica (Bistricky, 1967) nov. comb. D. Distefanopolia crosii (Ott, 1968) nov. comb. Calcified skeleton (black) and soft parts (grey and green).
Fig. 13 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 13. Interpretation of voids and pores in the sterile specimens of dasycladalean alga Chinianella ellenbergeri (Lebouché and Lemoine in Granier and Deloffre, 1994) Granier, Masse, and Berthou, 1994, emend. nov.; the meaning of the colors are the same as in Fig. 5. A. Axial view (general axial section). B. Proximal tangential section, first and second interverticillar spaces from the top are lacking pores, based on specimen in Fig. 9I, LM-DiSTAR /BA.577.37, n. 135, upper part. C. Oblique section, the proximal sleeve is missing interverticillar pores; based on specimen in Fig. 8E, LM-DiSTAR/BA.577.27, n. 124. D. Distal tangential section; note the interverticillar, irregular voids; based on specimen in Fig. 7K, LMDiSTAR/BA.577.34, n. 132, middle–upper part.
Fig. 10 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 10. Dasycladalean alga Chinianella ellenbergeri (Lebouché and Lemoine in Granier and Deloffre, 1994) Granier, Masse and Berthou, 1994, emend. nov. A. Reconstruction of the alga in axial view; A1, calcified skeleton (black) and soft parts (grey) in axial section; A2, axial view of the soft parts (green); dotted line separates the sterile and fertile parts of the thallus. B. Reconstruction of the alga in transverse view. B1, sector of a whorl in transverse section showing the calcified skeleton (black) and reconstruction of the soft parts (grey); B2, upper view of whorl and sector of a whorl also showing gametophores (upper part); soft parts in green.
Fig. 4. A in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 4. A comparison of selected dasycladalean genera compared. A. Bornetella Munier-Chalmas, 1877. B. Chinianella Ott, 1967 ex Granier and Deloffre, 1994. C. Jodotella Morellet and Morellet, 1913. D. Granieria group, Conradella Masse and Bucur, 2002 (D1) and Granieria Barattolo and Romano in Barattolo et al., 2008 (D2). E. Montiella group, Bakalovaella Bucur, 1993 (E1), Montiella Morellet and Morellet, 1922 (E2), Barattoloporella Parente, 1997 (E3).
Fig. 5 in Evidence of external gametophores in puzzling Late Triassic-Early Jurassic dasycladalean green algae
Fig. 5. Scheme of mineralization in dasycladalean alga Chinianella ellenbergeri (Lebouché and Lemoine in Granier and Deloffre, 1994) Granier, Masse and Berthou, 1994, emend. nov. A. Axial section, lowest whorl is weakly calcified. Trace of transverse sections is indicated with dashed lines. B. Transverse section at whorl level. C. Transverse section through the interverticillar space. The interverticillar empty spaces merge laterally (annular channel) and are connected between whorls (vertical channels). A central pore sometimes leaves in contact the interverticillar void and the central cavity, either shifted downwards (white arrow) or upward (black arrow).
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.