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Fig. 5. A in On the southernmost high Andean scorpion species, with the identification of a cryptic new species of Brachistosternus (Bothriuridae) through morphology, molecular data and species distribution models
Fig. 5. A. Brachistosternus intermedius, pedipalp chela, male, internal aspect. B–H. Brachistosternus diaguita n. sp. B‒E. Pedipalp chela, male. B. internal aspect, C. dorsal aspect, D. external aspect, E. ventral aspect; F. Pedipalp chela, female, ventro-internal aspect. G. pedipalp patela, male, external aspect; H. pedipalp femur, male, dorsal aspect. Scale bars: 1 mm.
Fig. 6. A‒F. Metasomal segment V. A‒C. Brachistosternus diaguita n in On the southernmost high Andean scorpion species, with the identification of a cryptic new species of Brachistosternus (Bothriuridae) through morphology, molecular data and species distribution models
Fig. 6. A‒F. Metasomal segment V. A‒C. Brachistosternus diaguita n. sp., male. A. ventral aspect; B. dorso-external aspect, C. dorsal aspect; D. Brachistostenus intermedius, male, ventral aspect; E‒F. Brachistosternus montanus, male, E. dorsoexternal aspect, F. dorsal aspect. Scale bars: 1 mm.
Fig. 3 in On the southernmost high Andean scorpion species, with the identification of a cryptic new species of Brachistosternus (Bothriuridae) through morphology, molecular data and species distribution models
Fig. 3. Potential distribution of Brachistosternus species studied in this contributions A. Brachistosternus diaguita n. sp. B. Brachistosternus montanus. C. Brachistosternus intermedius. Warmer colors show areas with better predicted conditions. Black dots show the presence locations.
Fig. 2. A in On the southernmost high Andean scorpion species, with the identification of a cryptic new species of Brachistosternus (Bothriuridae) through morphology, molecular data and species distribution models
Fig. 2. A. Bayesian phylogeny of selected Brachistosternus species inferred using MrBayes. The values at the nodes are Bayesian posterior probabilities. The scale bar represents the branch lengths in substitutions per site. B. Bayesian species tree with nodeage estimates inferred using *BEAST. The values at the nodes are Bayesian posterior probabilities and the node bars represent the 95% highest posterior densities of the node age estimates. The scale axis is set to show Million years before present.
Interaction Fingerprints for Molecular Dynamics Simulation of MC-LR and MC-LF with PPP1 - Data
<p>This data sets contains all data to reproduce the conclusions of the following manuscript to analyse, aggregate and visualise interaction fingerprints of Molecular Dynamics Simulation data. </p> <p>S. Jaeger-Honz, K. Klein, F. Schreiber: Systematic Analysis, Aggregation and Visualisation of Interaction Fingerprints for Molecular Dynamics Simulation Data, Journal of Cheminformatics 16 (28), 2024, https://doi.org/10.1186/s13321-024-00822-3.</p> <p>The scripts and libraries necessary to rerun the analysis are published under the following DOI: 10.5281/zenodo.10424417</p> <p> </p>
FIGURE 2 in Luisia brachyota (Orchidaceae; Epidendroideae) a new species from China: evidence based on morphological and molecular data
FIGURE 2. Luisia brachyota (A) Plant; (B) Inflorescence; (C) Flower; (D) Pollinia; (E, G) Petals; (F) Dorsal sepal; (H, K) Lateral sepal; (I) Lip; (J) Ovary and column; (L) anther cap.
FIGURE 1 in Luisia brachyota (Orchidaceae; Epidendroideae) a new species from China: evidence based on morphological and molecular data
FIGURE 1. Phylogenetic tree inferred by maximum-likelihood analysis of the combined matrix. The numbers near the nodes are bootstrap percentages and Bayesian posterior probabilities (only showing the value of BS ML> 30, BP ML left, BP MP middle, and PP right). The partial trees based on nrITS (A) and combined plastid (B) are shown in the top left corner. A dash (-) indicates the node topology is inconsistent between the MP, ML and Bayesian tree.
Data for "Joint Clinical and Molecular Subtyping of COPD with Variational Autoencoders"
<p>Data for paper "Data for "Joint Clinical and Molecular Subtyping of COPD with Variational Autoencoders", Maiorino et al.</p> <p>The associated code repository is at<a href="https://github.com/reemagit/joint_subtyping_vae"> https://github.com/reemagit/joint_subtyping_vae</a></p>
Data from: Molecular docking and dynamics studies to identify novel active compounds targeting potential breast cancer receptor proteins from an indigenous herb Euphorbia thymifolia Linn
<p>Breast cancer has become most prevalent disease and their incidence has doubled in Indian scenario. Targeted therapy with the novel compounds derived from plants could be the promising approach for the development of drugs. <em>Euphorbia thymifolia</em> L is a widely growing tropical herb which has been reported for its various ethnopharmacological properties, including anticancer properties. The aim of the present study was to identify the active phytocompounds present in the methanolic extract using an <em>I</em><em>n-silico</em> approach. The methanolic extract of <em>E. thymifolia</em> (ME.ET) was subjected to GC-MS analysis and the identified compounds were docked with potential protein targets implicated in breast cancer such as ERK1, AKT, EGFR/HER2, ER, MELK, PLK1, PTK6. Compounds with good docking score were further subjected to dynamics study to understand the protein ligand binding stability, ligand pathway calculation, molecular mechanics energies combined with Poisson-Boltzmann (MM/PBSA) calculation using Schrodinger suite. Out of 219 unique phytocompounds subjected to docking, two compounds namely, 3,6,9,12-tetraoxatetradecane-1,14-diyl dibenzoate (TTDB) and succinic acid, 2-(dimethylamino)ethyl 4-isopropylphenyl ester (SADPE) showed good docking score. Molecular dynamics study showed high affinity and low binding energy for TTDB with HER2, ERK1 and SADPE with ER. Hence this is the first study to identify and report active compounds from <em>E.thymifolia</em> linn. Further <em>invitro</em> and <em>invivo</em> anticancer studies can be performed to confirm these results and understand the molecular mechanism by which TTDB and SADPE exhibit anticancer activity against breast cancer.</p>
Supplementary material 4 from: Vanegas-Ríos JA, Serra Alanís WS, Azpelicueta MM, Litz T, Malabarba LR (2024) Population variation of Diapoma pampeana (Characiformes, Characidae, Stevardiinae) from an isolated coastal drainage in Uruguay, with new records: comparing morphological and molecular data. Zoosystematics and Evolution 100(1): 69-85. https://doi.org/10.3897/zse.100.112778
Cluster analysis (Ward's method) of size-corrected morphometric data of analyzed specimens of Diapoma pampeana
Data from: Synthesis of low-molecular weight itaconic acid polymers as nanoclay dispersants and dispersion stabilizers
<p>The upload contains data associated with the publication, including raw data in the original file format whenever possible. Dataset content: SAXS, NMR, rheology, cryo-TEM, LC-MS.</p> <p>This work was financially supported by the Lead Agency bilateral a Czech-Polish project provided by the Czech Science Foundation (21-07004K) and National Science Center Poland (CEUS-UNISONO project grant no. 2020/02/Y/ST5/00021).</p>
FIGURE 12 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 12. Distribution map based on label information attached to the type specimens in NHMW. Identifications are nominal species as identified by Attems (1951), all here considered to be Lithobius iranicus Attems, 1951, except for L. inquiriendus.
FIGURE 8 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 8. Sternites of ultimate leg-bearing segment and intermediate segment in females, ventral view. A–B. Lithobius iranicus Attems, 1951. A. Lectotype, NHMW MY3963. B. NHMW MY5700. C. Lithobius rhiknus Attems, 1951 syn. nov., syntype, NHMW MY3942. D. Lithobius inquiriendus Attems, 1951, syntype, NHMW MY10386.
FIGURE 1. Lithobius iranicus Attems, 1951 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 1. Lithobius iranicus Attems, 1951, ♀ lectotype NHMW MY3963. A. Habitus, dorsal view. B. Cephalic plate and T1, dorsal view. C. Forcipular segment, ventral view. D. Ocelli and Tömösváry's organ, lateral view. Abbreviation: TO = Tömösváry's organ.
FIGURE 4. Lithobius iranicus Attems, 1951 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 4. Lithobius iranicus Attems, 1951, ♂, new specimen NHMW MY10387. A. Close-up of coxosternal margin showing teeth and porodont. B. TT9-13, dorsal view. C. Posterior segments, ventral view. Abbreviation: Po = porodont.
FIGURE 11 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 11. Maximum Likelihood tree based on all molecular data (28S-16S-COI). Above nodes: bootstrap values>50%, black dot for 100% support.
FIGURE 3. Lithobius iranicus Attems, 1951 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 3. Lithobius iranicus Attems, 1951, ♂, new specimen NHMW MY10387. A. Habitus, dorsal view. B. Cephalic plate and T1, dorsal view. C. Ocelli, lateral view. D. Forcipular segment, ventral view.
FIGURE 9 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 9. Sternites of ultimate leg-bearing segment and first genital segment in males, ventral view. A–C. Lithobius iranicus Attems, 1951. A. Paralectotype, NHMW MY3964. B. NHMW MY5701. C. NHMW MY5700. D–E. Lithobius inaequidens Attems, 1951 syn. nov. D. Syntype, NHMW MY3962. E. Syntype, NHMW MY10385. F. Lithobius rhiknus Attems, 1951 syn. nov., syntype, NHMW MY4044.
FIGURE 5 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 5. Paired sulci on ultimate legs of males, dorsal view. A–B. Lithobius iranicus Attems, 1951. A. Paralectotype NHMW MY10383. B. NHMW MY10387. C. Lithobius rhiknus Attems, 1951 syn. nov., leg 13, syntype NHMW MY4044. D. Lithobius inaequidens Attems, 1951 syn. nov., NHMW MY3962. Arrows pointing to sulci.
FIGURE 6 in Revision of some historical types of the genus Lithobius Leach, 1814 (Chilopoda, Lithobiomorpha) from the 1949/50 Austrian Iran Expedition, with new molecular data for L. iranicus Attems, 1951
FIGURE 6. Close-up of coxosternal teeth. A–F. Lithobius iranicus Attems, 1951. A. Paralectotype ♂, NHMW MY10383. B. Paralectotype ♂, NHMW MY10384. C. Paralectotype ♂, NHMW MY3964. D. Non-type ♂ NHMW MY5701. E. Non-type ♀, NHMW MY5700. F. Non-type ♂, NHMW MY5700. G–H. Lithobius inaequidens Attems, 1951 syn. nov. G. Syntype ♂, NHMW MY3962. H. Syntype ♂, NHMW MY10385. I. Lithobius inquiriendus Attems, 1951, syntype ♀, NHMW MY10386. J. Lithobius rhiknus Attems, 1951 syn. nov., syntype ♀, NHMW MY3942.
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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.