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Fig. 2 in Saproxylic beetle (Coleoptera) communities and forest management practices in coniferous stands in southwest Nova Scotia, Canada
Fig. 2. Overstory composition for dominant tree species based on importance value (Importance Value = Relative Density + Relative Dominance + Relative Frequency). Site descriptions: 1 & 2 – 40-80 yr, CT; 3 & 4 – 40-80 yr, none; 5 – 80-120 yr, US; 6 & 7 – 80-120, none; 8 – 120+ yr, S; 9 – 120+ yr, S/SH; 10 & 11 – 120+ yr, none. CT = Commercial thinning; US = Uniform selection harvest; SH = Shelterwood harvest; S = Selection harvest.
Fig. 7 in Saproxylic beetle (Coleoptera) communities and forest management practices in coniferous stands in southwest Nova Scotia, Canada
Fig. 7. Mean species richness of beetles in different forest stand age classes, including standard deviation from both the present study and Bishop (1998).
Fig. 5 in Saproxylic beetle (Coleoptera) communities and forest management practices in coniferous stands in southwest Nova Scotia, Canada
Fig. 5. Rarefaction curve demonstrating projected species richness for number of individuals based on Bishop (1998), and the present study (Dollin et al.) beetle collections.
Fig. 8 in Saproxylic beetle (Coleoptera) communities and forest management practices in coniferous stands in southwest Nova Scotia, Canada
Fig. 8. Mean species richness across harvest treatment, including standard deviation, for 11 stands in southwestern Nova Scotia.
Fig. 3 in Saproxylic beetle (Coleoptera) communities and forest management practices in coniferous stands in southwest Nova Scotia, Canada
Fig. 3. Volume of coarse woody debris (CWD) by decay class for 11 stands in southwestern Nova Scotia as measured by Thompson (2004). Decay classes are summarized as follows: "1" is freshly dead, little to no rot; in "2", the bole is mostly sound; "3" has well-established rot and significant bark loss; "4" is advanced decay; and "5" is rotted through but still of wood character. Site descriptions: 1 & 2 – 40-80 yr, CT; 3 & 4 – 40-80 yr, none; 5 – 80-120 yr, US; 6 & 7 – 80-120, none; 8 – 120+ yr, S; 9 – 120+ yr, S/SH; 10 & 11 – 120+ yr, none. CT = Commercial thinning; US = Uniform selection harvest; SH = Shelterwood harvest; S = Selection harvest.
Fig. 6 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 6. Stygodesmodora confusa sp. nov., light micrographs of female. A. Head region showing amphideal aperture. B. Head region showing amphideal fovea. C. Head region showing buccal cavity. D. Vulva. Scale bar: A–C = 15 µm, D = 18 µm.
Fig. 5 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 5. Stygodesmodora confusa sp. nov. A. Entire male. B. Female reproductive system. Scale bar: A = 50 µm, B = 36 µm.
Fig. 4 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 4. Stygodesmodora confusa sp. nov. A. Anterior body region of female. B. Male head (holotype). C. Male head (paratype). D. Male head (holotype). E–F. Anterior body region of female. G. Female posterior body region. H. Right spicule and gubernaculum. I. Male copulatory apparatus. Arrows show position of pre-cloacal supplements. Scale bar: A–D = 30 µm, E–G = 36 µm, H = 20 µm, I = 40 µm.
Fig. 3 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 3. Spirinia verecunda sp. nov., light micrographs. A. Male head, showing amphideal aperture and and cuticular hair-like structures. B. Male head, showing amphideal fovea. C. Male anterior body region showing buccal cavity and elongated glands. D. Mature sperm cells. E. Posterior body region of male, showing copulatory apparatus and attached protist. Scale bar: A–B, D–E = 10 µm, C = 8 µm.
Fig. 2 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 2. Spirinia verecunda sp. nov. A. Entire male. B. Female reproductive system. Scale bar: A = 50 µm, B = 30 µm.
Fig. 7 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 7. Stygodesmodora confusa sp. nov. Scanning electron micrographs. Female head (three different specimens). Scale bar = 5 µm.
Fig. 1 in New Spirinia and Stygodesmodora species (Nematoda, Spiriniinae) from the Southwest Pacific, and a revision of the related genera Spirinia, Chromaspirina and Perspiria
Fig. 1. Spirinia verecunda sp. nov. A. Surface view of male head. B–C. Male head, showing buccal cavity. D. Female head, showing bacteria attached to cuticle. E. Anterior body region of male. F. Anterior body region of female. G. Posterior body region of male. H. Gubernaculum, with details of crurae (left) and cuneus (right). I. Posterior body region of female. J. Posterior body region of female, showing attached protist. Scale bar: A–D, I = 20 µm, E–F = 30 µm, G = 16 µm, H = 12 µm, J = 35 µm.
Fig. 3 in New species of Thelonema, Metasphaerolaimus, and Monhystrella (Nematoda, Monhysterida) from Kermadec Trench, Southwest Pacific
Fig. 3. Thelonema clarki sp. nov. Light micrographs. A. Holotype, ♂, entire biody. B. Cross-section view of sunken papilla, second circle of cephalic sensillae. C. Female gut content, showing crystalline structures and other unidentified contents. D. Juvenile gut showing crystalline structures. Arrow shows position of sunken papilla of third circle of cephalic sensillae. Scale bar: A = 520 μm; B = 5 μm; C–D = 20 μm.
Fig. 1 in New species of Thelonema, Metasphaerolaimus, and Monhystrella (Nematoda, Monhysterida) from Kermadec Trench, Southwest Pacific
Fig. 1. Thelonema clarki sp. nov. Holotype, ♂. A. Anterior body region. B. Head, showing buccal cavity and cephalic sensillae. C. Posterior body region. D. Gonads, right-hand side view. E. Spicule and gubernaculum. Scale bar: A, C = 40 μm; B = 12 μm; D = 45 μm; E = 20 μm.
Fig. 6 in New species of Thelonema, Metasphaerolaimus, and Monhystrella (Nematoda, Monhysterida) from Kermadec Trench, Southwest Pacific
Fig. 6. Monhystrella kermadecensis sp. nov. A. Male anterior body region. B. Male head region. C. Female anterior body region. D. Male posterior body region. E. Female reproductive system. F. Entire ♀. G. Entire ♂, holotype. H. Male copulatory apparatus. I. Female posterior body region. Arrow shows position of cuticularised piece anterior to vulva. Scale bar: A, C–E, I = 25 μm; B = 7 μm; F–G = 70 μm; H = 12 μm.
Fig. 4 in New species of Thelonema, Metasphaerolaimus, and Monhystrella (Nematoda, Monhysterida) from Kermadec Trench, Southwest Pacific
Fig. 4. Metasphaerolaimus constrictus sp. nov. A. Holotype, ♂, anterior body region. B. Holotype, ♂, head. C. Female head. D. Female anterior body region. Scale bar: A = 50 μm; B–C = 25 μm; D = 55 μm.
Fig. 4 in Two new free-living nematode species (Trefusiina: Trefusiidae) from the Chatham Rise crest, Southwest Pacific Ocean
Fig. 4. Trefusialaimus idrisi sp. nov. Light micrographs. A. Anterior body region of male, lateral view. B. Anterior body region of juvenile, dorsal view. C. Mid-body region of juvenile, showing sperm cells in pseudocoelom. D. Entire male. E. Lateral chord of male, showing round golden inclusions. Arrows point to sperm cells. Scale bar: A-C, E = 15 µm; D = 260 µm.
Fig. 3 in Two new free-living nematode species (Trefusiina: Trefusiidae) from the Chatham Rise crest, Southwest Pacific Ocean
Fig. 3. Trefusialaimus idrisi sp. nov. A. Anterior body region of male. B. Head of male. C. Head of juvenile. D. Right spicule. E. Gubernaculum. F. Male copulatory apparatus. G. Mature sperm. H. Posterior body region of male. Scale bar: A = 40 µm; B-C, G = 20 µm; D-E = 14 µm; F = 28 µm; H = 75 µm.
Fig. 2 in Two new free-living nematode species (Trefusiina: Trefusiidae) from the Chatham Rise crest, Southwest Pacific Ocean
Fig. 2. Trefusia piperata sp. nov. Light micrographs. A. Head region of male, showing buccal cavity, cephalic setae, and clusters of dark granules at base of outer labial setae. B. Spicule and gubernaculum. C. Entire male. Scale bar: A-B = 10 µm; C = 100 µm.
Fig. 1 in Two new free-living nematode species (Trefusiina: Trefusiidae) from the Chatham Rise crest, Southwest Pacific Ocean
Fig. 1. Trefusia piperata sp. nov. A. Anterior body region of female. B. Anterior body region of male. C. Entire female. D. Right spicule and gubernaculum. E. Posterior body region of male. Arrow shows position of vulva. Scale bar: A-B, E = 20 µm; C = 75 µm; D = 8 µm.
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.