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5,312 results for “New Zealand”
FIGURE 4. A. Osedax bozoi n in New Species of Osedax (Siboglinidae: Annelida) from New Zealand and the Gulf of Mexico
FIGURE 4. A. Osedax bozoi n. sp., dorsal view of female holotype (SIO-BIC 13918) still partially in bone. B. Osedax bozoi n. sp., ventral view of holotype (SIO-BIC 13918) removed from bone. C. Paratype female Osedax bozoi n. sp. (SIO-BIC 13920) removed from bone showing palps, ovisac, and roots. D. Paratype female Osedax bozoi n. sp. (SIO-BIC 13922) showing palps, trunk, ovisac, and root system.
FIGURE 6 in New Species of Osedax (Siboglinidae: Annelida) from New Zealand and the Gulf of Mexico
FIGURE 6. Haplotype networks using COI. Circles are haplotypes, green circles and crosshatches are single nucleotide substitutions. * indicates the haplotype of the holotype. A. Network for six specimens of Osedax bozoi n. sp. GenBank accession numbers: ON357627, ON357628, ON357629, ON357630, ON357631 (Holotype), ON357686. B. Network for two specimens of Osedax craigmcclaini n. sp. GenBank accession numbers: MN258704, ON211944 (Holotype).
FIGURE 5. A. Osedax craigmcclaini n in New Species of Osedax (Siboglinidae: Annelida) from New Zealand and the Gulf of Mexico
FIGURE 5. A. Osedax craigmcclaini n. sp. palps of holotype (SIO-BIC A13910) still in the bone. B. Osedax craigmcclaini n. sp. pinnulate palps of holotype (SIO-BIC A13910) removed from bone; the remaining body piece was used for DNA extraction.
FIGURE 3. A. Cow bones from which Osedax bozoi n in New Species of Osedax (Siboglinidae: Annelida) from New Zealand and the Gulf of Mexico
FIGURE 3. A. Cow bones from which Osedax bozoi n. sp. were found being recovered by ROV after 51 days at ~2,000 m in the Gulf of Mexico. B. Spine and skull of Alligator mississippiensis deployed at ~2,000 m in the Gulf of Mexico. Osedax are visible on the vertebrae and jaw. Osedax craigmcclaini n. sp. was found on these bones. C. Alligator mississippiensis skull with Osedax visible on the jaw. Images courtesy of Craig McClain.
FIGURE 8 in New Species of Osedax (Siboglinidae: Annelida) from New Zealand and the Gulf of Mexico
FIGURE 8. Haplotype networks using COI. Circles are haplotypes, blue circles and crosshatches are single nucleotide substitutions. * indicates the haplotype of the holotype. A. Network for three specimens of Osedax estcourti n. sp. GenBank accession numbers: ON211941, ON211942, ON211943 (Holotype). B. Network for 11 specimens of Osedax traceyae n. sp. GenBank accession numbers: ON211983, ON211984, ON211985, ON211986, ON211987, ON211988, ON211989, ON211990 (Holotype), ON211991, ON211992, ON211993.
Fig. 5 in Hidden in plain sight: Lindauera gen. nov.: a new genus of Dictyotales from New Zealand
Fig. 5. Specimens showing morphological variation present in Lindauera papenfussii. (a) WELT A026094, Doubtful Sound, Fiordland; (b) WELT A032190, Te Miko Reef, Bay of Islands.
Fig. 2 in Hidden in plain sight: Lindauera gen. nov.: a new genus of Dictyotales from New Zealand
Fig. 2. Map showing regions of New Zealand where Lindauera papenfussii has been recorded and sites of specimen records confirmed with sequence data.
Fig. 4 in Hidden in plain sight: Lindauera gen. nov.: a new genus of Dictyotales from New Zealand
Fig. 4. Maximum-likelihood phylogram estimated from concatenated psaA, psbA and rbcL sequence data. Support values are shown on each branch: approximate likelihood ratio test (aLRT,%) and ML bootstrap (%) values above, and Bayesian posterior probability (PP) values below. Only values greater than 80% (aLRT), 80% (bootstrap) and 0.9 (PP) are shown; all support values are shown if two support methods for a clade reach the cutoff value. Thick lines lead to clades receiving support of 100/100/1 (alrt/bootstrap/PP).
Supplementary information for: A new tiny fossil penguin from the Late Oligocene of New Zealand and the morphofunctional transition of the penguin wing
<p>The Late Oligocene is a period of high penguin diversity, following major changes in the marine environment at the Eocene/Oligocene boundary and prior to the emergence of crown penguins in the Miocene. Historically, a large morphological gap existed between the most crownward <em>Platydyptes </em>among the Oligocene penguins from New Zealand and the Early Miocene stem penguins such as <em>Palaeospheniscus</em> and <em>Eretiscus </em>from South America. Here we describe a new species that contributes to filling this gap. <em>Pakudyptes</em> <em>hakataramea</em> gen. et sp. nov. is the earliest tiny penguin, overlapping in size with the smallest extant species, the little penguin <em>Eudyptula minor</em>. Its distinctive combination of a well-developed proximal end of the humerus and a rather archaic elbow joint provides clues to the evolution of penguin wings. Phylogenetic analysis indicates that penguin wings evolved rapidly from the Late Oligocene to the Early Miocene, together with the acquisition of morphofunctional and hydrodynamical characteristics that enable the excellent swimming ability of modern penguins. As an indicator of aquatic adaptation, bone microanatomy also shows a comparable structure to that of <em>Eudyptula</em>. The appearance of the smallest body size and the evolution of modern wings may have led to the ecological diversity of modern penguins, which confirms the importance of Zealandia in penguin evolution.</p>
Supplementary material: How much hydrogen could we need in New Zealand? Understanding the diverse hydrogen applications and their regional mapping
<p>Dataset on the future hydrogen demand for New Zealand, mapped to its 16 regions. Supplementary material of the publication: "How much hydrogen could we need in New Zealand? Understanding the diverse hydrogen applications and their regional mapping"</p>
Datasets associated with Dale et al. 2022 Diversification and trait evolution in New Zealand woody lineages across changing biomes
<p>Biome occupancy and trait datasets for New Zealand <em>Melicytus, Myrsine</em>, and <em>Pseudopanax</em> species used in Dale et al. 2022 Diversification and trait evolution in New Zealand woody lineages across changing biomes (https://doi.org/10.1080/03036758.2022.2108071). The datasets are biomes occupied, Specific Leaf Area, stem density, leaf nutrient content (N, P, K), and cold sensitivity. "dataset info.txt" outlines the variable names and their units.</p>
FIGURE 12 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 12. Occultastella morgana sp. nov. Female. Whole body, lateral view of ovipositor and ventral view of last sternite and subgenital plate (SGP) (blue ellipse).
FIGURE 11 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 11. Occultastella morgana sp. nov. Male holotype. Terminalia. a–c) Oblique dorsal, lateral and ventral views showing cerci, styli and modified 10th tergite. d) Ventral detail of subgenital plate (SGP) with tufted projection (green ellipse in c also).
FIGURE 10 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 10. Occultastella morgana sp. nov. Male holotype legs. a) Fore leg and b) mid leg showing linear spines on tibiae (pink arrows) and apical spines on femora (blue arrows). c) Whole animal with disarticulated hind leg at same scale. d) Hind leg with detail of first tarsus.
FIGURE 8 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 8. Crux heggi sp. nov. Female holotype. Prolateral and retrolateral views of (a) fore and mid (b) legs with inset of mid femur showing apical retrolateral spine. c) Hind femur prolateral and retrolateral views. d) Hind tibia posterior view and detail of apical spine on hind femur (blue arrow). e) Hind tarsi, retrolateral view. Pink arrows indicate linear spines.
FIGURE 9 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 9. Crux heggi sp. nov. Male Paratype. Terminalia. a–c) Lateral, dorsal and ventral views of posterior end of abdomen. d) Oblique posterior view of terminalia showing subgenital plate, and styli (blue arrows) pressed against paraprocts. e) Posterior view. f) Disarticulated fused paraproct structure (MPN CW4372).
FIGURE 7 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 7. Crux heggi sp. nov. Female holotype. a) Lateral view body. b–d) Detailed views of ovipositor showing position and shape of subgenital plate. Pink triangle indicates subgenital plate.
FIGURE 6 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 6. Crux boudica sp. nov. Male Paratype. Terminalia. a, b) Oblique dorsal and ventral views indicating cerci, styli and paraprocts. c) Posterior dorsal view indicating tergites 7–10. d) Posterior ventral view.
FIGURE 5 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 5. Crux boudica sp. nov. Female holotype. Prolateral and retrolateral views of (a) fore and mid (b) legs with inset of mid femur showing apical retrolateral spine. c) Hind femur. d) Hind tibia lateral and superior views. e) Hind tarsi, retrolateral view. Pink arrows indicate linear spines.
FIGURE 4 in Two new genera of tokoriro (Orthoptera: Rhaphidophoridae: Macropathinae) from Aotearoa New Zealand
FIGURE 4. Crux boudica sp. nov. Female holotype. a) Whole animal. b) Ovipositor detail showing sternite projections. c) Abdomen ventral view, white arrows indicate sternite projections. d, e) Sternites and subgenital plate (SGP).
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Allen Brain Atlas
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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.