Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
5,312
datasets available to search
ShareScore release 0.7.1
Dataset results
5,312 results for “New Zealand”
Figure 20 in The paracaudinid sea cucumbers of Australia and New Zealand (Echinodermata: Holothuroidea: Molpadida: Caudinidae)
Figure 20. SEM images of ossicles from the mid-body wall of a 35 mm long specimen of a species of Paracaudina Heding 1932 from the Chatham Rise (NIWA 70957).
Figure 15 in The paracaudinid sea cucumbers of Australia and New Zealand (Echinodermata: Holothuroidea: Molpadida: Caudinidae)
Figure 15. SEM images of ossicles from the mid-body wall of a specimen of Paracaudina luticola Hickman, 1962 from Sandy Point, Waratah Bay, Victoria (NMV F76072).
Figure 12. a in The paracaudinid sea cucumbers of Australia and New Zealand (Echinodermata: Holothuroidea: Molpadida: Caudinidae)
Figure 12. a, Calcareous ring of a specimen of Paracaudina cuprea O'Loughlin and Barmos sp. nov. from Portland Bay, Victoria (NMV F174890) (insert with drawing of two radial plates and one interradial plate typical of Paracaudina species); b, SEM images of ossicles from a specimen of Paracaudina chilensis obesacauda (H. L. Clark, 1908), judged here to be typical of Paracaudina chilensis (Müller, 1850) (copied from Pawson et al. 2001).
Figure 10 in The paracaudinid sea cucumbers of Australia and New Zealand (Echinodermata: Holothuroidea: Molpadida: Caudinidae)
Figure 10. SEM images of ossicles from the mid-body wall of a specimen of Paracaudina coriacea (Hutton, 1872) from Cook Strait, New Zealand (NIWA 70954).
Figure 11 in The paracaudinid sea cucumbers of Australia and New Zealand (Echinodermata: Holothuroidea: Molpadida: Caudinidae)
Figure 11. Photos of preserved specimens of species of Paracaudina (a, c–f): a, P. cuprea O'Loughlin and Barmos sp. nov. holotype (NMV F157396); b, photo of live specimens of P. cuprea including holotype (photo by P. Vafiadis); c, P. keablei O'Loughlin and Barmos sp. nov. holotype (AM J13579); d, P. luticola Hickman, 1962 (NMV F169342); e, P. tetrapora (H. L. Clark, 1914) (from Merricks, Westernport Bay, Victoria; NMV F76565); f, P. tetrapora (H. L. Clark, 1914) (from off Glenelg, South Australia; AM J24918).
FIGURE 2 in Comparative performance of a multi-locus barcoding approach to enhance taxonomic resolution of New Zealand mosquitoes (Diptera: Culicidae)
FIGURE 2 The statistical parsimony network showing the genetic relationships between Culex asteliae (n = 3), Culex pervigilans (n = 15) and Culex rotoruae (n = 3) based on their (a) COI sequences and (b) ITS2 sequences derived from the current study. Each COI/ITS2 singleton sequence is represented by one circle with size proportional to their frequency. The colours refer to the mosquito species to which each individual belongs. Small white circles connecting coloured circles indicate 'missing' or hypothetical singletons. The line linked two circles indicates one basepair difference on the sequence.
FIGURE 1 in Comparative performance of a multi-locus barcoding approach to enhance taxonomic resolution of New Zealand mosquitoes (Diptera: Culicidae)
FIGURE 1 The phylogenetic relationships of New Zealand endemic and exotic mosquito species based on (a) COI and (b) ITS2 sequences using maximum likelihood method. Anopheles annulipes was outgroup taxon for both trees. Only bootstrap support values greater than 50% is present at branches on the tree. The sequences collected for the current study and derived from New Zealand endemic, introduced or recently eradicated species are highlighted in bold. The specimens collected outside of New Zealand were highlighted by underlines. The complete phylogenetic trees of New Zealand endemic and exotic mosquito species based on COI and ITS2 sequences are available in Figure S3.
FIGURE 24 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 24. Length and width dimensions for coprolites investigated for cuticle in this work (red dots), overlain on a summary of Wood and Wilmshurst (2014, fig. 3). The blue curve contains the range of genetically confirmed moa coprolites in their study, and the small yellow dot indicates the size of their one genetically determined kakapo coprolite, and the green are those of their 'putative' kakapo coprolites. There is a clear group of coprolites in the present study which are well beyond the range of even 'putative' kakapo, and are regarded as moa (Coprolites-11, 14, 15, 16, 25, 26, 27, 28, 29, 51, 58, 60, 62, 78, 110, 111).
FIGURE 23 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 23. Coprolites regarded here as moa, based on their size (scale bar equals 30 mm). A. Coprolite-25, containing Poaceae (Shelter-32). B. Coprolite-26, containing Pseudopanax ferox, Pittosporum tennuifolium, Sophora microphylla (Shelter-32). C. Coprolite-15, containing Coprosma sp., Olearia sp, Pittosporum tennuifolium, Pseudopanax ferox, Rubus sp., Sophora microphylla (Shelter-102). D. Coprolite-111, containing Sophora microphylla, Pittosporum tennuifolium, Rubus sp.,?Hebe (Shelter-50). E. Coprolite-16, containing Sophora microphylla, Hebe?cupressoides (Shelter-102). F. Coprolite-62, containing Sophora microphylla (Shelter-70). G. Coprolite-14, containing Hebe cupressoides, Sophora microphylla, Rubus sp., Pittosporum tennuifolium (Shi.e. elter-102). H. Coprolite-60, containing Sophora microphylla (Shelter-103).
FIGURE 22 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 22. Pseudopanax leaf (reflected light) and cuticle morphology (transmitted light microscopy). A. Intact Pseudopanax ferox leaf (LX3111, Shelter-37, scale bar equals 10 mm). B. Pseudopanax ferox stomatal complexes on abaxial surface (LX2711, Shelter-1, scale bar equals 100 μm). C. Pseudopanax ferox (LX5490, Coprolite-15, scale bar equals 100 μm). D. Pseudopanax crassifolious, abaxial surface showing much larger and more irregular epidermal cells (modern reference material, OPH5338, scale bar equals 100 μm). E. Pseudopanax crassifolious, abaxial surface also showing much larger and more irregular epidermal cells (modern reference material, OPH9835, scale bar equals 100 μm).
FIGURE 21 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 21. Pittosporum tenuifolium cuticle morphology (Transmitted light microscopy). A. Paracytic stomatal complexes on adaxial surface with a relatively sharply bounded trichome base at lower left (LX2576, Shelter-63, scale bar equals 40 μm). B. Paracytic stomatal complexes on abaxial surface with a more typical indistinctly bounded trichome base at upper right (LX2455, Shelter-111, scale bar equals 40 μm).
FIGURE 20 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 20. Olearia sp. cuticle morphology (Transmitted light microscopy). A. Abaxial surface showing a dense mass of trichome bases obscuring most stomatal complexes (LX2495, Coprolite-13, scale bar equals 40 μm). B. Non-stomatal (adaxial) surface showing a trichome attachment scar extending over several epidermal cells (LX3147, Shelter-12, scale bar equals 40 μm).
FIGURE 13 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 13. Loranthaceae (Korthalsella and Illiostylus) cuticle morphology (Transmitted light microscopy). A. Korthalsella sp., showing generally aligned stomatal complexes (LX2450, Shelter-82, scale bar equals 100 μm). B. Korthalsella sp., detail showing a single stomatal complex (LX2450, Shelter-82, scale bar equals 40 μm). C. Korthalsella sp., showing stomatal orientation perpendicular to epidermal cell rows (LX3371, Coprolite-79, scale bar equals 100 μm). D. Korthalsella sp., detail of stomatal complex (LX3371, Coprolite-79, scale bar equals 40 μm). E. Korthalsella salicornioides for comparison (Herbarium specimen, OPH9239, scale bar equals 100 μm). F. Korthalsella salicornioides for comparison (Herbarium specimen, OPH9239, scale bar equals 40 μm). G. Illiostylus micranthus for comparison (Herbarium specimen, OPH8301, scale bar equals 100 μm). H. Illiostylus micranthus for comparison (Herbarium specimen, OPH8301, scale bar equals 100 μm).
FIGURE 17 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 17. Coprosma propinqua (both LX3272, Shelter-62, scale bars equals 40 μm). A. Four stomatal complexes on abaxial surface with prominent fine ridges perpendicular to the stomatal pore. B. Zone of simple trichomes.
FIGURE 12. Kunzea ericoides. A in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 12. Kunzea ericoides. A. Abaxial surface, showing lid cell to left and stomatal complexes to right (LX3256, Shelter-62, scale bar equals 40 μm). B. Single lid cell (LX3253, Shelter-62, scale bar equals 40 μm).
FIGURE 8 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 8. Carmichaelia sp. cuticle morphology (Transmitted light microscopy). A. Showing transversely oriented stomatal complexes along the stem (long-axis of the stem is left-right) (LX2570, Shelter-46, scale bar equals 100 μm). B. Also with transversely oriented stomatal complexes, but including trichome attachment (arrowed, SL6583, LX2478, Coprolite-11, scale bar equals 100 μm).
FIGURE 5 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 5. Examples of shelters the Cromwell Region. A. Shelter-29. Note relict Sophora microphylla tree (c. 350 mm diameter) outside. B. Shelter-71 (arrowed). This picture encapsulates the typical rocky and treeless environment of the Gorges today – and how the record of the rock shelters represents tiny windows into the very different vegetation of the past. C. Shelter-58, view from within the shelter, out over Lake Dunstan in the Cromwell Gorge. D. Shelter-69 (arrowed) above the vehicle track. E. Shelter-31. Vehicle track in the background. F. Shelter-43 (arrowed). Longest icicles are about 400 mm. G. Shelter-83. Trowel (260 mm) for scale. H. Shelter-83, internal view to show 'piedmont' of remaining sediment. Grey and brown mid-late Holocene material is overlain by a post-European cap of light material with rabbit and sheep coprolites. Trowel (260 mm) for scale.
FIGURE 16 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 16. Myrsine divaricata cuticle morphology (Transmitted light microscopy). A. Margin of a leaf showing dark glandular structures, situated just inside the margin, and veins, projecting from below (LX2515, Shelter-103, scale bar equals 1 mm). B. Typical abaxial surface cuticle showing scattered stomatal complexes and the stem of a peltate trichome (the cap has detached) at right (LX2557, Shelter-50, scale bar equals 100 μm). C. Detail showing an intact peltate trichome at left and two stomatal complexes at right. Note the highly sinuous margins of the epidermal and subsidiary cells (LX2789, Coprolite-21, scale bar equals 40 μm). D. Typical non-stomatal (adaxial) surface showing the distinctive ridged ornamentation and obscured outlines of the epidermal cells (LX2811 Shelter-96, scale bar equals 40 μm).
FIGURE 7 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 7. Poaceae cuticle morphology (Transmitted light microscopy). A. Showing characteristic long and short epidermal cells, and an (arrowed) stomatal complex (LX2529, Shelter-102, scale bar equals 100 μm). B. Detail, including a stomatal complex (LX2533, Shelter-80, scale bar equals 40 μm). C. A zone of long and short epidermal cells above, and a zone of epidermal cells with trichomes below (LX3184, Shelter-10, scale bar equals 100 μm). D. Two zone of long and short epidermal cells with a zone of purely long cells between (LX3224, Shelter-108, scale bar equals 100 μm).
FIGURE 4 in A vanished ecosystem: Sophora microphylla (Kōwhai) dominated forest recorded in mid-late Holocene rock shelters in Central Otago, New Zealand
FIGURE 4. The Roxburgh Region, showing shelter locations (blue dots) centered on the Roxburgh Gorge. Groups of closely spaced shelters are surrounded by an ellipse. Lines indicate the 'sectors'.
ScienceDex guides
Understand access before you commit
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.