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FIGURES 101–102. Miomantis spp., live aspects. 101. Miomantis buettneri, subadult male. 102 in A preliminary checklist of the praying mantids of Comoé National Park, Ivory Coast (Insecta: Mantodea)
FIGURES 101–102. Miomantis spp., live aspects. 101. Miomantis buettneri, subadult male. 102. Miomantis lamtoensis, female.
FIGURES 88–90. Hoplocorypha nigerica, live aspects. 88 in A preliminary checklist of the praying mantids of Comoé National Park, Ivory Coast (Insecta: Mantodea)
FIGURES 88–90. Hoplocorypha nigerica, live aspects. 88. Dorsolateral view of male forebody. 89. Dorsolateral view of female forebody. 90. Mating pair from Ghana.
FIGURES 40–41. Live aspects. 40. Amorphoscelis tigrina, female nymph. Note enlarged cercal segments. 41 in A preliminary checklist of the praying mantids of Comoé National Park, Ivory Coast (Insecta: Mantodea)
FIGURES 40–41. Live aspects. 40. Amorphoscelis tigrina, female nymph. Note enlarged cercal segments. 41. Elaea marchali, female.
FIGURES 20–23. Chroicopteridae, live aspects. 20–21. Gonypetella ivoirensis. 20 in A preliminary checklist of the praying mantids of Comoé National Park, Ivory Coast (Insecta: Mantodea)
FIGURES 20–23. Chroicopteridae, live aspects. 20–21. Gonypetella ivoirensis. 20. Female, lateral view, note myrmecomorphy. 21. Juvenile male, anterior view. 22–23. Parentella major, female. 22. Dorsolateral view. 23. Close-up of digging device.
FIGURES 66–68. Pyrgomantis pallida, live aspects. 66 in A preliminary checklist of the praying mantids of Comoé National Park, Ivory Coast (Insecta: Mantodea)
FIGURES 66–68. Pyrgomantis pallida, live aspects. 66. Dorsolateral view of male. 67. Portrait of male. 68. Dorsolateral view of feeding female.
Fig. 102 in FREE-LIVING NEMATODES OF HUNGARY (NEMATODA ERRANTIA)
Fig. 102. Enchodelus macrodorus (de Man, 1880). a. anterıor end: b: female posterior end; c: male posterior end
Fig. 101 in FREE-LIVING NEMATODES OF HUNGARY (NEMATODA ERRANTIA)
Fig. 101. Longidorella tredecima (Andrassy, 1964). a: anterior end; b: vulval region; c: female posterior end.
Fawn bedsite selection by a large ungulate living in a peri-urban area
<p>The zip file contains:</p> <ul> <li>All datasets used for the data analysis of the updated version of the preprint titled: "Fawn bedsite selection by a large ungulate living in a peri-urban area" that can be found at: https://doi.org/10.1101/2023.08.11.552922.</li> <li>The R markdown showing the analysis used for this study.</li> <li>The HDML file of the R markdown above.</li> </ul>
Data for: Living fast, dying young: anthropogenic habitat modification influences the fitness and life history traits of a cooperative breeder
<p>Datasets and scripts for the study: Living fast, dying young: anthropogenic habitat modification influences the fitness and life history traits of a cooperative breeder</p>
Trends in the global trade of live CITES-listed raptors: Trade volumes, spatiotemporal dynamics and conservation implications
<p>The global legal wildlife trade is worth US$4-20 billion to the world's economy every year. Raptors frequently enter the wildlife trade for use as display animals, by falconers or hobbyists for sport and recreation. Using data from the Convention on International Trade in Endangered Species of Wild Fauna and Flora's (CITES) Trade Database, we examined trends in the global, legal commercial trade of CITES-listed raptors between 1975-2020. Overall 272 raptor species were traded, totalling 188,149 individuals, with the number of traded raptors increasing over time. Hybrid Falcons (N = 50,366) were most commonly traded, comprising more than a third of the global diurnal CITES-listed raptor trade, followed by Gyrfalcons (<em>Falco rusticolus</em>; N = 30,510), Saker Falcons (<em>F. cherrug</em>; N = 21,679), Peregrine Falcons (<em>F. peregrinus</em>; N = 13,390) and Northern White-faced Owls (<em>Ptilopsis leucotis</em>; N = 6,725). More than half of wild-caught diurnal raptors were classified as globally threatened. The United Kingdom was the largest exporter of live raptors and the United Arab Emirates was the largest importer. More affluent countries were likely to import more raptors than those less affluent. Larger-bodied diurnal species were traded more relative to their smaller-bodied conspecifics. Following the introduction of the European Union's Wild Bird Trade Ban in 2005, the number of traded wild-caught raptors declined. Despite its limitations, the CITES Trade Database provides an important baseline of the legal trade of live raptors for commercial purposes. However, better understanding of illegal wildlife trade networks and smuggling routes, both on-the-ground and online, are essential for future conservation efforts.</p>
State-dependent mortality, not behavior, fragments population distribution of a long-lived mammal after ecological disturbance
<p>Data and code used to produce figures and analyses for the peer-reviewed paper "State-dependent mortality, not behavior, fragments population distribution of a long-lived mammal after ecological disturbance". All demographic and GPS data were collected by the authors as part of the Wyoming Range Mule Deer Project, and spatial data were derived from publicly available GIS platforms. </p> <p>Questions about data and code can be directed to rraffer1@uwyo.edu and tlasharr@uwyo.edu.</p> <p> </p>
Data to demonstrate : Multiplexed imaging in live cells using pulsed interleaved excitation spectral FLIM
<p>Data to demonstrate :</p> <p>Multiplexed imaging in live cells using pulsed interleaved excitation spectral FLIM - <a href="https://opg.optica.org/oe/fulltext.cfm?uri=oe-32-3-3290&id=545659">https://opg.optica.org/oe/fulltext.cfm?uri=oe-32-3-3290&id=545659</a></p> <p>Trung Duc Nguyen, Yuan-I Chen, Anh-Thu Nguyen, Limin H. Chen, Siem Yonas, Mitchell Litvinov, Yujie He, Yu-An Kuo, Soonwoo Hong, H. Grady Rylander, and Hsin-Chih Yeh, "Multiplexed imaging in live cells using pulsed interleaved excitation spectral FLIM," Opt. Express <strong>32</strong>, 3290-3307 (2024)</p>
FractiScope Live Demos
<p>Welcome to the official FractiScope Research Project Live Demos repository on Zenodo, your gateway to the cutting-edge exploration of fractal intelligence. This repository hosts the results, analyses, and deep dives conducted during our live demonstrations, offering unparalleled insights into the transformative power of the SAUUHUPP framework in optimizing complex systems.</p> <p> </p> <p>About the Repository</p> <p> </p> <p>This repository serves as a comprehensive archive of our live demo series, showcasing the practical applications and measurable impacts of FractiScope across diverse domains, including AI, energy systems, and satellite communications. Each demo explores critical inefficiencies, harmonizes systems, and provides actionable solutions using the principles of fractal intelligence.</p> <p> </p> <p>What You’ll Find Here</p> <p> </p> <p>1. Deep Dive Analyses</p> <p>• In-depth evaluations of specific systems or papers reviewed during live demos, including detailed methodologies, results, and optimizations achieved through FractiScope.</p> <p>2. Empirical Validation Data</p> <p>• Metrics and case studies validating the SAUUHUPP framework, demonstrating measurable improvements in efficiency, scalability, and performance.</p> <p>3. Collaborative Insights</p> <p>• Highlights from collaborations with researchers and industry leaders, offering a glimpse into the future of fractal intelligence applications.</p> <p>4. Event Highlights</p> <p>• Recaps of our live demo events, including key findings and their implications for technology, research, and innovation.</p> <p> </p> <p>Join the Conversation</p> <p> </p> <p>We invite researchers, innovators, and industry leaders to explore our findings and engage with us:</p> <p>• Contact Us: For questions, collaborations, or opportunities, email us at info@fractiai.com.</p> <p>• Explore More: Discover additional resources and live demo announcements at <a href="http://fractiai.com/">FractiAI.com</a>.</p> <p> </p> <p>Thank you for your interest in the FractiScope Research Project Live Demos. Together, let’s unlock the future of intelligence through the power of fractals!</p> <p> </p> <p>#FractiScope #FractiAI #FractalIntelligence #ResearchInnovation #SAUUHUPP</p>
Quantifying live bacteria in the human skin microbiome reveals reduced interpersonal variability
<p>Using flow-cytometry and metagenomics, coupled with an upstream pre-processing step to remove relic-DNA (DNA left behind from dead or dying cells) to determine the live population of the skin microbiome. Repository contains important feature tables, counts tables, sequencing preprocessing scripts and feature table analysis scripts.</p>
FIGURE. Living plant of Hedysarum sunhangii. A, in its habitat; B, Leaves (1–upper part, 2– lower part); C, Pods (3– front side, 4– lateral side); D, flower; E, raceme; F, entire plant in Hedysarum sunhangii (Fabaceae, Hedysareae), a new species from Pamir-Alay (Babatag Ridge - Uzbekistan)
FIGURE. Living plant of Hedysarum sunhangii. A, in its habitat; B, Leaves (1–upper part, 2– lower part); C, Pods (3– front side, 4– lateral side); D, flower; E, raceme; F, entire plant
Figure 7. Phylogeny. A in The evolutionary diversity of barnacles, with an updated classification of fossil and living forms
Figure 7. Phylogeny. A summary of the phylogenetic relationships amongst the Thecostraca families, with major groups labelled on the right and on the branches within the Thoracica. All families are considered monophyletic, except where specifically noted in the text. In Rhizocephala, families with an akentrogonid type of host invasion are coloured blue. Drawings representing the different groups are, from the top: Facetotectan y-cyprid; Dendrogaster; Trypetesa; Clistosaccus; Sacculina; Ibla; Pollicipes; Lepas; Neolepas; Verruca; Catophragmus; Xenobalanus; Balanus.
Figure 6. Fossil Thoracica. A in The evolutionary diversity of barnacles, with an updated classification of fossil and living forms
Figure 6. Fossil Thoracica. A, Stramentum pulchellum, Stramentidae, Upper Cretaceous, Turonian, UK. B, Archaeolepas redtenbacheri, Archaeolepadidae, Upper Jurassic, Tithonian, Germany. C, Eolepas bathonica, Eolepadidae, Middle Jurassic, France. D, E, Witherscalpellum aptiensis, Cretiscalpellidae, Lower Cretaceous, UK; capitulum, in lateral (D) and dorsal (E) views. F, G, Brachylepas naissanti, Brachylepadidae, Upper Cretaceous, UK, in apical (F) and lateral (G) views. H, Etcheslepas durotrigensis, Zeugmatolepadidae, Upper Jurassic, UK. I, J, Proverruca vinculum, Proverrucidae, Upper Cretaceous, UK, in apical (I) and lateral (J) views. K, L, Q, R, Eoverruca hewitti, Eoverrucidae, Upper Cretaceous, UK; K, L, calcified basis with imbricating scales; and Q, R, fixed and moveable scuta. M–P, Myolepas scanica, Myolepadidae, Upper Cretaceous, Sweden; external (M) and internal (O) views of tergum; and external (N) and internal (P) views of scutum. S–AE, fossil whale barnacles, Coronula. Scale bars: 5 mm in A–H; 2 mm in M–P; 1 mm in I–L; 0.5 mm in Q, R, AE.
Figure 9 in The evolutionary diversity of barnacles, with an updated classification of fossil and living forms
Figure 9. Timeline of Thoracican evolution. Generic diversity of the Thoracica from the latest Triassic to the present. Early forms are entirely phosphatic, followed by calcitic pedunculated forms. Balanomorphans (acorn barnacles) appeared in the Cretaceous, but they radiated only after a low-diversity period following the Cretaceous– Palaeogene (K–Pg) extinction. The diversification starting in the Neogene is still ongoing. Living genera shown include only forms with shell plates, in order to compare with the fossil record. Further explanation is given in the main text. (1) Eolepadomorpha, Eolepadidae, Eolepas; (2) Eolepadomorpha, Eolepadidae, Toarcolepas; (3) Pollicipedomorpha, Zeugmatolepadidae, Concinnalepas; (4) Archaeolepadomorpha, Archaeolepadidae, Archaeolepas; (5) Calanticomorpha, Cretiscalpellidae, Witherscalpellum; (6) Scalpelloidea, Scalpellidae, Arcoscalpellum; (7) Brachylepadomorpha, Brachylepadidae, Pycnolepas; (8) Verrucomorpha, Verrucidae, Altiverruca; (9) Balanomorpha, Catophragmidae, Catomerus; (10) Lepadoidea, Lepadidae, Lepas; (11) Neolepadomorpha, Neolepadidae, Stipilepas.
Figure 2. Ascothoracida. A–D in The evolutionary diversity of barnacles, with an updated classification of fossil and living forms
Figure 2. Ascothoracida. A–D, larval diversity of selected Ascothoracida. A, an early, live Baccalaureus nauplius larva. B, an early, live Zibrowia nauplius larva. C, D, a Tessmann's larva or a-cypris (C), with hooked antennules (D). E–N, adult diversity of selected Ascothoracida. E–G, the coral Turbinaria, showing the galls formed by the ascothoracidan Petrarca. Insert in E shows the galls in cross-section, with red Petrarca inside the coral skeleton. F, Petrarca. G, magnified view of Petrarca. H, Synagoga arabesque, with extended, hooked first antennules. I, J, Ascothorax rybakovi on the brittle star Ophiacantha pacifica. K, a free Dengrogaster sp. L–N, the zoanthid Palythoa with Baccalaureus sp. inside. Abbreviation: a1, first antennule. Fig 2C photographed by ND and Dr. Jørgen Olesen, Natural History Museum of Denmark.
Figure 5. Thoracica. A in The evolutionary diversity of barnacles, with an updated classification of fossil and living forms
Figure 5. Thoracica. A, nauplius larva of Balanus improvisus. Note the presence of frontal horns. B, cypris larva of Amphibalanus amphitrite, showing the pair of extended first antennules and six pairs of thoracopods. C, Anelasma squalicola, a parasite of deep-sea lantern sharks (Etmopterus). The cirri are rudimentary, and the base of the peduncle has a root-like structure embedded inside the tissue of the shark to absorb nutrients. D, Fistulobalanus albicostatus, common on mangrove tree trunks. E, the family Pyrgomatidae are associated with scleratinian corals, and the bases are embedded in the coral skeleton. Cantellius sp. extending the cirri. F, Ibla cumingi, which is located at the most basal position on the molecular phylogenetic tree of thoracican barnacles. G, Megabalanus, Amphibalanus and Lepas inhabiting the capitulum of a penduculated barnacle. H, Capitulum mitella, a stalked barnacle inhabiting rocky shores. In molecular phylogenetic analyses, it is the sister to Anelasma (see C). I, Conchoderma, a stalked barnacle with reduced shell plates, epibiotic on many marine taxa, mostly crabs and whales. J, An early dwarf male settled on the surface of an adult Heteralepas. K, Octolasmis cor lives exclusively on the surface of crab gills. L, Scalpellum scalpellum, a stalked barnacle epibiotic with hydroids. The inserts in LM (upper) and SEM (lower) shows the hermaphrodite receptacles, which can house dwarf males. Inserts show a dwarf male with extended penis (upper) and an SEM micrograph of the receptacle structure. M, Waikalasma is a deep-sea inhabitant, having a row of imbricating plates on the base of shells. N, Chthamalus malayensis is common on intertidal shores. O, Tetraclita, with four shell plates, common on rocky and tropical shores.
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.