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FIGURE 3 in Description and distribution of Erebussau nom. nov. pro Erebus Bussau, 1993 nec Erebus Latreille, 1810 with description of a new specie, and of Odetenema gesarae gen. nov., sp. nov. (Nematoda: Desmoscolecida) from nodule-bearing abyssal sediments in the Pacific
FIGURE 3: Erebussau tenebricosus nom. nov., comb. nov. (Drawings of specimens code: Male 1 and Female 1) A: male habitus, arrow pointing towards phasmata; B: male anterior end, arrows pointing towards pseudocoelomocyte and pigment spot; C: female anterior end, arrows pointing towards pointing towards pseudocoelomocytes; D: female reproductive system; (Scale bars: A, B, C, D = 20 µm)
FIGURE 5 in Description and distribution of Erebussau nom. nov. pro Erebus Bussau, 1993 nec Erebus Latreille, 1810 with description of a new specie, and of Odetenema gesarae gen. nov., sp. nov. (Nematoda: Desmoscolecida) from nodule-bearing abyssal sediments in the Pacific
FIGURE 5: Distribution of Erebussau profundus sp. nov. Imagery reproduced from the GEBCO Grid, version 1.3.0, ETOPO1 Global Relief Model (Amante & Eakins, 2009)
FIGURE 4 in Description and distribution of Erebussau nom. nov. pro Erebus Bussau, 1993 nec Erebus Latreille, 1810 with description of a new specie, and of Odetenema gesarae gen. nov., sp. nov. (Nematoda: Desmoscolecida) from nodule-bearing abyssal sediments in the Pacific
FIGURE 4: Erebussau tenebricosus nom. nov., comb. nov. (Photos of specimens code: Male 1 and Female 1) A: male habitus, arrow pointing towards pigment spots; B: male anterior end, arrow pointing towards pseudocoelomocyte; C: female reproductive system, arrow pointing towards ovary reflected end; D: male posterior end, tail pointing towards apophysis; E: female anterior end; F: female tail showing phasmata; (Scale bars A = 50 µm, B, C, D, E, F = 20 µm)
FIGURE 1 in Description and distribution of Erebussau nom. nov. pro Erebus Bussau, 1993 nec Erebus Latreille, 1810 with description of a new specie, and of Odetenema gesarae gen. nov., sp. nov. (Nematoda: Desmoscolecida) from nodule-bearing abyssal sediments in the Pacific
FIGURE 1: Clarion-Clipperton Fracture Zone (CCFZ) showing the studied license areas of the Polymetallic Nodules Programme (PMN) and the Peru Basin. Imagery reproduced from the GEBCO Grid, version 1.3.0, www.gebco.net.
FIGURE 2 in Description and distribution of Erebussau nom. nov. pro Erebus Bussau, 1993 nec Erebus Latreille, 1810 with description of a new specie, and of Odetenema gesarae gen. nov., sp. nov. (Nematoda: Desmoscolecida) from nodule-bearing abyssal sediments in the Pacific
FIGURE 2: Distribution of Erebussau tenebricosus nom. nov., comb. nov. Imagery reproduced from the GEBCO Grid, version 1.3.0, ETOPO1 Global Relief Model (Amante & Eakins, 2009)
Combining conservation status and species distribution models for planning assisted colonisation under climate change
<p>Effects of climate change are particularly important in the Mediterranean Biodiversity hotspot where rising temperatures and drought are negatively affecting several plant taxa, including endemic species. Assisted Colonisation (AC) represents a useful tool for reducing the effect of climate change on endemic plant species threatened by climate change.</p> <p>We combined SDMs for 188 taxa endemic to Italy with the IUCN red listing range loss threshold under criterion A (30%) to define: a) the number of AC (measured as 2×2 km grid cells that should be occupied by new populations, that is grid cells = new populations) required to fully compensate for predicted range loss and to halt the decline below the 30% of range loss; b) The number of cells necessary to compensate for range loss was calculated as the number of currently occupied cells lost under future climate due to unsuitable conditions. We used two Representative Concentration Pathways, +2.6 and +8.5 W/m2, optimistic and pessimistic scenarios, respectively. Availability of suitable areas for AC was also assessed within the current species distribution and within protected areas.</p> <p>Under the optimistic scenario, no taxa would lose more than 30% of their range and AC would not be required. Under the pessimistic scenario, roughly 90% of taxa showed a cell loss higher than 30%. Eight taxa were predicted to lose >95% of their range. For these species, AC was required from 13 to 16 new populations (= 13 to 16 grid cells) per taxon to cap the range loss at 30%. For currently VU or EN species, an average number of 32 to 35 AC attempts would be necessary to fully compensate for their range loss under a pessimistic scenario. Suitable recipient sites within protected areas falling in their projected range were identified, allowing for short-distance AC.</p> <p>Synthesis. Combining SDMs and red listing thresholds under Criterion A has enabled the strategic planning of multiple-species AC minimising the effort in terms of new populations to be created and maximising the conservation benefit in terms of range loss compensation.</p>
SUPPLEMENTARY TABLE 3 in Importance of genetic data in resolving cryptic species: A century old problem of understanding the distribution of Minervarya syhadrensis Annandale 1919 (Anura: Dicroglossidae)
SUPPLEMENTARY TABLE 3. Call properties measurements of Minervarya species A and Minervarya species B in the present study.
SUPPLEMENTARY TABLE 2 in Importance of genetic data in resolving cryptic species: A century old problem of understanding the distribution of Minervarya syhadrensis Annandale 1919 (Anura: Dicroglossidae)
SUPPLEMENTARY TABLE 2. Morphometric data (in mm) of type specimens of Minervarya caperata deposited at BNHS and described by Kuramoto et al. (2007).
SUPPLEMENTARY TABLE 1 in Importance of genetic data in resolving cryptic species: A century old problem of understanding the distribution of Minervarya syhadrensis Annandale 1919 (Anura: Dicroglossidae)
SUPPLEMENTARY TABLE 1. Morphometric data (in mm) of Minervarya species A (M. syhadrensis) and Minervarya species B (M. agricola / M. granosa) from Pune
FIGURE 2 in Redescription of Brachirus aspilos (Bleeker 1852), a senior synonym of four nominal species, with a note on the distribution of Dagetichthys marginatus (Boulenger 1900) (Pleuronectiformes: Soleidae)
FIGURE 2. Holotypes of nominal species identified as Brachirus aspilos in this study. A, BMNH 1862.6.3.1, holotype of Synaptura heterolepis, 226.2 mm SL, Indonesia; B, ZMB 9861, holotype of Synaptura dicholepis, 274.3 mm SL, Papua New Guinea; C, USNM 55916, holotype of Synaptura sorsogonensis, 193.7 mm SL, Philippines.
FIGURE 5 in Redescription of Brachirus aspilos (Bleeker 1852), a senior synonym of four nominal species, with a note on the distribution of Dagetichthys marginatus (Boulenger 1900) (Pleuronectiformes: Soleidae)
FIGURE 5. Distributional records of Brachirus aspilos. Blue circles indicate records based on specimens examined in this study. Red, yellow, green, purple, and orange circles indicate type localities of Synaptura aspilos, S. dicholepis, S. heterolepis, S. marmoratus, and S. sorsogonensis, respectively.
FIGURE 4 in Redescription of Brachirus aspilos (Bleeker 1852), a senior synonym of four nominal species, with a note on the distribution of Dagetichthys marginatus (Boulenger 1900) (Pleuronectiformes: Soleidae)
FIGURE 4. Fresh specimens of Brachirus aspilos. A, KAUM–I. 76287, 170.4 mm SL, Amami Islands, Japan; B, UPVMI 2521, 257.4 mm SL, Panay Island, Philippines; C, KAUM–I. 28462, 275.2 mm SL, Okinawa Islands, Japan; D, KAUM–I. 131182, 127.4 mm SL, Okinawa Islands, Japan; E, KAUM–I. 125230, 258.6 mm SL, southern Ryukyu Islands, Japan; F, KAUM–I. 116037, 334.1 mm SL, southern Ryukyu Islands, Japan.
FIGURE 3 in Redescription of Brachirus aspilos (Bleeker 1852), a senior synonym of four nominal species, with a note on the distribution of Dagetichthys marginatus (Boulenger 1900) (Pleuronectiformes: Soleidae)
FIGURE 3. Blind side midbody scales from below the lateral line in Brachirus aspilos (BSKU 114074, 279.5 mm SL). A, whole scale; B, cycloid scale; C, ctenoid scale with single ctenii; D, ctenoid scale with three ctenii.
FIGURE 1 in Redescription of Brachirus aspilos (Bleeker 1852), a senior synonym of four nominal species, with a note on the distribution of Dagetichthys marginatus (Boulenger 1900) (Pleuronectiformes: Soleidae)
FIGURE 1. Holotype of Brachirus aspilos (BMNH 1862.6.3.5, 138.2 mm SL, Singapore). A, ocular side; B, blind side.
FIGURE 2 in Description and bioecology of two new species of the genus Cryncus (Orthoptera Gryllidae, Gryllinae) from Cameroon with a key and distribution map of all African species
FIGURE 2. Morphology of Cryncus camerounensis sp. nov.: (A) male head and pronotum, (B) male lateral view of head and pronotum, (C) male forewing, (D) female head and pronotum, (E) female lateral view of head and pronotum, (F) female fore wing, (G) male forewing drawing, (H) male genitalia drawing in dorsal view, (I) male genitalia drawing in ventral view. Scale bars: A: 7 mm; B, C, E: 5 mm;D, 8 mm;F, 11 mm;G, 5 mm; H, I, 500 µm.
FIGURE 3 in Description and bioecology of two new species of the genus Cryncus (Orthoptera Gryllidae, Gryllinae) from Cameroon with a key and distribution map of all African species
FIGURE 3. Morphology of Cryncus desutterae sp. nov.: (A) male head and pronotum, (B) male lateral view of head and pronotum, (C) male fore wing, (D) female head and pronotum, (E) female lateral view of head and pronotum, (F) female forewing, (G) male forewing drawing, (H) male genitalia drawing in dorsal view, (I) male genitalia drawing in ventral view. Scale bars: A, 9 mm; B, 8 mm; C, 5 mm; D, F: 7 mm; E, 6 mm; H, I, 500 µm.
FIGURE 28A–G Patrera kuryi n in An update of morphological and distributional data of the genus Patrera Simon (Araneae: Anyphaenidae: Anyphaeninae) with the description of twenty-five new species from Colombia
FIGURE 28A–G Patrera kuryi n. sp. Male (IBSP 213425): A habitus, dorsal view; C left palp, retroventral view; D palp, ventral view; E palp, retrolateral view. Female (IBSP 213429): B habitus, dorsal view; F epigynum, ventral view; G epigynum, dorsal view. Abbreviations: FD, fertilization ducts; VTP, ventral tegular process. Scale bars: A–B: 2.16mm; C–E: 0.6mm; F–G: 0.25mm.
FIGURE 26A–D. Patrera dentata n in An update of morphological and distributional data of the genus Patrera Simon (Araneae: Anyphaenidae: Anyphaeninae) with the description of twenty-five new species from Colombia
FIGURE 26A–D. Patrera dentata n. sp. Male (ICN-Ar-10636): A habitus, dorsal view; B chelicerae, dorsal view; C chelicerae, ventral view; D left palp, retroventral view; E palp, ventral view; F palp, retrolateral view. Abbreviations: Cavp, cheliceral anteroventral projection; VTP, ventral tegular process. Scale bars: A: 2mm; B–C: 1mm; D: 0.5mm; E–F: 0.2mm.
FIGURE 27A–F. Patrera dracula n in An update of morphological and distributional data of the genus Patrera Simon (Araneae: Anyphaenidae: Anyphaeninae) with the description of twenty-five new species from Colombia
FIGURE 27A–F. Patrera dracula n. sp. Male (ICN-Ar-9556): A habitus, dorsal view; B chelicerae, dorsal view; C chelicerae, ventral view; D left palp, retroventral view; E palp, ventral view; F palp, retrolateral view. Abbreviations: Cdp, cheliceral dorsal projection; Cvp, cheliceral ventral projection. Scale bars: A: 2mm; B–C: 1mm; D: 0.5mm; E–F: 0.2mm.
FIGURE 25A–D. Patrera dawkinsi n in An update of morphological and distributional data of the genus Patrera Simon (Araneae: Anyphaenidae: Anyphaeninae) with the description of twenty-five new species from Colombia
FIGURE 25A–D. Patrera dawkinsi n. sp. Male (ICN-Ar-10613): A habitus, dorsal view; B left palp, retroventral view; C palp, ventral view; D palp, retrolateral view. Abbreviations: Abbreviations: VTP, ventral tegular process. Scale bars: A: 1mm; B–D: 0.2mm.
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.