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FIGURE 4. Dawydoffia kalonota Attems, 1953 in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 4. Dawydoffia kalonota Attems, 1953 paralectotypes (Fan Si Pan and Chapa): A. ♀, Head and anterior body rings (NHMW MY10338), lateral view. B–E ♀ from Chapa (NHMW MY10335): B. Entire specimen, ventral view; C. Mid-body section of a broken specimen from Chapa showing ozopores (NHMW MY10335). D. Closeup of the head showing ommatidia and first antennal articles. E. Posterior body rings showing anal valves by transparency, dorsal view.
FIGURE 3 in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 3. Comparison of the tergites at midbody (A, D, G, J), telson (B, E, H, K) and tarsal claw (C, F, I, L) of midbody legs of exemplary representatives of the polyzoniidan and siphonocryptidan families. A–C. Hirudisoma roseum (Victor, 1839) (Hirudisomatidae). D–F. Polyzonium germancium Brandt, 1837 (Polyzoniidae). G–I. Rhinotus purpureus (Pocock, 1894) (Siphonotidae). J–L. Hirudicryptus canariensis (Loksa, 1967) (Siphonocryptida). Abbreviations: av = anal valve; claw = tarsal claw; mz = metazonite of tergite; oz = ozopore; paro = paronychium; Pre = preanal ring; pz = prozonite; Ta = tarsus; Tu = ultimate tergite. Arrow in A indicates upturned tergal margin. Arrows in F and K indicate a ventrally divided preanal ring.
FIGURE 2. Maximum likelihood tree inferred from the COI dataset with 1000 in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 2. Maximum likelihood tree inferred from the COI dataset with 1000 bootstrap pseudoreplicates implementing the TN+I+G model. The red, blue and brown boxes indicate the polyzoniidan families.
FIGURE 6. Dawydoffia siphonocryptida n in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 6. Dawydoffia siphonocryptida n. sp., female paratype (SMF), volume rendering based on µCT-data. A. Habitus lateral view. B. Head and anterior body, ventral view. C. Telson and posterior body, ventral view. Abbreviations: At = Antennae; Co = collum; ep = epicranium; fh = forehead; oz = ozopore, Pl = pleurite; St = sternite; T = tergite; Te = telson; Vu = vulva.
FIGURE 7. Dawydoffia siphonocryptida n in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 7. Dawydoffia siphonocryptida n. sp., male holotype (SMF), scanning electron micrographs (SEM). A. Anterior body, lateral view. B. Anterior body, ventral view. C. Frontal view of specimen. D. Detail of labrum and gnathochilarium, apical view. E. Anterior segments showing fused tergites-pleurites. F. Head, lateral view. G. Right antenna, ventral view. H. Apical tip of right antenna. Abbreviations: aG = anterior gonopod; CO = collum (tergite 1); d = antennal disc; gn = gnathochilarium; La = labrum; ms = macrosetae; O = ommatidium; oz = ozopore; pG = posterior gonopod; sb = sensilla basiconica. Arabian numbers refer to number of leg pair, tergite or antennomere.
FIGURE 8. Dawydoffia siphonocryptida n in Integrative redescription of the sucking millipede genus Dawydoffia Attems, 1953 with a description of a new species and a transfer to the family Hirudisomatidae (Diplopoda, Polyzoniida)
FIGURE 8. Dawydoffia siphonocryptida n. sp., male holotype (SMF), scanning electron micrographs. A. Posterior body end, dorsal view. B. posterior body end with telson, ventral view. C. First tarsal claw. D. Leg 5, tarsal claw. E. Hirudisoma roseum (Victor, 1839), ZFMK MYR11859, midbody leg, tarsal claw. F. Midbody leg, posterior view. Abbreviations: Cx = coxa; cp = coxal pouch; Fe = femur; Go = tip of male gonopore; oz = ozopore; P = pleurite; paro = paronychium; Po = postfemur; Pre = prefemur; St = sternite; T = tergite; Ta = tarsus; Ti = tibia; tr = trochanter.
Transfer reaction induced fission 238U(d,p-fission) with HELIOS
<p>Upload includes:</p> <ol> <li><strong>Pre-sorted data with built physics events. </strong>All experimental data in the files "gen_run###.root"</li> <li><strong>Link to GutHub containing all relevant codes to sort the data and produce physics histograms. </strong>Analysis code at <a href="https://github.com/calemhoffman/digios/tree/h074_238U">https://github.com/calemhoffman/digios/tree/h074_238U</a>. README files describe the usage.</li> <li><strong>Copy of electronic logbook containing experimental matters.</strong> "ELOG_H074_238U.pdf" in reverse chronological order.</li> <li><strong>Document with detector distances and details on the setup.</strong> "h074_238U-setup.pptx"</li> <li><strong>Absolute transfer (d,p) and transfer induced fission (d,pf) cross sections.</strong> "238U-dpf-supplemental-data.xlxs"</li> </ol> <ul> </ul>
FIGURE 4 in Morphological and phylogenetic evidence for the transfer of the monotypic genus Tordyliopsis to Semenovia (Apiaceae)
FIGURE 4. Mericarps of Tordyliopsis brunonis. A. mericarps in different development stages; B. ventral face of a mature mericarp; C. cross-section of a mature mericarp.
FIGURE 2 in Morphological and phylogenetic evidence for the transfer of the monotypic genus Tordyliopsis to Semenovia (Apiaceae)
FIGURE 2. Bayesian tree of Tordyliopsis and its allies based on 79 coding sequences from complete plastid genomes. The statistical support values for each branch are indicated by the maximum likelihood bootstrap supports (BS) and the Bayesian posterior probability (PP) values, which are listed above or below the branches, respectively.
FIGURE 3 in Morphological and phylogenetic evidence for the transfer of the monotypic genus Tordyliopsis to Semenovia (Apiaceae)
FIGURE 3. Habit and morphology of Tordyliopsis brunonis. A. habit; B. umbels; C. petals; D. bracts and bracteoles; E. fruits.
MESA inlists for "Coping with loss: Stability of mass transfer from post-main-sequence donor stars"
<p>Binary model inlists for MESA, as used for the paper <a href="https://ui.adsabs.harvard.edu/abs/2023A%26A...669A..45T/abstract">Coping with loss: Stability of mass transfer from post-main-sequence donor stars</a> . The inlists provided here are pared-down, minimal working examples of the ones used in the publication. Due to the nature of the calculations, it was often needed to fine-tune inlists for specific systems by hand. For example, AGB models typically required the additional setting of <em>use_gold_tolerances = .false.</em></p> <p>These binary calculations start from a previously-evolved single star model for the donor stars. These can be found in the compressed folder titled "sstar_models_CWL.tar.xz". Please note that several parameters in the inlists will need to be adjusted accordingly, such as the configuration (initial orbit; mass ratio) of the binaries.</p> <p> </p> <p><strong>NOTE:</strong> to ensure that the mass-transfer calculation is fully conservative, add the following line to the <em>binary_controls</em> namelist in the <em>inlist_project</em> file:</p> <blockquote> <p>use_radiation_corrected_transfer_rate = .false.</p> </blockquote> <p>Further advice, code and/or files are available upon reasonable request to the authors (<a href="mailto:Karel.Temmink@ru.nl">contact: Karel Temmink</a>).</p>
Deep Ensemble Learning and Transfer Learning Methods for Classification of Senescent Cells from Nonlinear Optical Microscopy Images
<p>This Dataset contains the train and test NLO images in pickle format used for the following publication: Deep Ensemble Learning and Transfer Learning Methods for Classification of Senescent Cells from Nonlinear Optical Microscopy Images</p>
Can industrial transfer lead to carbon transfer in China's high energy consumption industry?
<p>The above is the data for all images in the manuscript, mainly including: Carbon emissions and carbon transfer of energy-intensive industries in eight regions、Path of energy-intensive industrial transfer and carbon transfer in 2002, 2007, 2012 and 2017、MGWR regression results in 2002, 2007, 2012 and 2017</p>
Dataset for "Charge transfer dynamics in Ar+ + CO"
<p>Dataset for "Charge transfer dynamics in Ar+ + CO"</p>
Transposon DNA sequences facilitate the tissue-specific horizontal transfer: te expression supplementary datasets
<p>These datasets contain data on analyses of TE expression stability. Raw RNA seq counts were processed using DESeq2 R package. Low count genes and TEs were removed. Counts across samples were normalized for library sizes and log-transformed using 'regularized log' transformation. Batch normalization was performed on log-transformed data with ComBat function from sva R package. Expression variability (EV) of TEs and genes (probes) was estimated using the previously described method [1, 2].</p> <p>1. Bashkeel, N., Perkins, T.J., Kærn, M. et al. Human gene expression variability and its dependence on methylation and aging. BMC Genomics 20, 941 (2019). https://doi.org/10.1186/s12864-019-6308-7<br> 2. Alemu EY, Carl JW Jr, Corrada Bravo H, Hannenhalli S. Determinants of expression variability. Nucleic Acids Res. 2014;42(6):3503-3514. doi:10.1093/nar/gkt1364</p> <p> </p> <p>PC.zip - the results of TE expression and stability in prostate cancer.</p> <ul> <li>0.PC.RlogMAD.pdf - count barplots for TE identified with MAD criteria</li> <li>0.PC.RlogSD.pdf - count barplots for TE identified with SD criteria</li> <li>0.PC.TE.rlogcpm.mad.xls -stability measures according MAD (median absolute deviance) criteria </li> <li>0.PC.TE.rlogcpm.sd.xls - stability measures according SD criteria </li> <li>0.PC_TE_bootstrap.pdf - TE expression stability</li> <li>PC.deseq.logCPM.csv - TE log transformed expression matrix </li> <li>PC.TE_count_table.csv - TE raw count matrix </li> <li>PC_Deseq2data.Rdata - R data object with deseq objet, raw and normalized counts</li> </ul> <p> </p> <p>MM.zip - the results of TE expression and stability in multiple myeloma.</p> <ul> <li>0.MM.RlogMAD.pdf - count barplots for TE identified with MAD criteria</li> <li>0.MM.RlogSD.pdf - count barplots for TE identified with SD criteria</li> <li>0.MM_TE_bootstrap.pdf - TE expression stability</li> <li>MM.deseq.logCPM.csv - TE raw count matrix </li> <li>MM.rlog.mad.xlsx- stability measures according MAD (median absolute deviance) criteria</li> <li>MM.rlog.sd.xlsx - stability measures according MAD (median absolute deviance) criteria </li> <li>MM.TE_count_table.csv - TE raw count matrix </li> <li>Myeloma_Deseq2data.Rdata - R data object with deseq objet, raw and normalized counts</li> </ul>
A federated learning framework based on transfer learning and knowledge distillation for targeted advertising-Click-Through Rate Prediction Dataset
<p>https://www.kaggle.com/c/avazu-ctr-prediction</p>
A sea state dependent gas transfer velocity for CO$_2$ unifying theory, model and field data
<p>Dataset for "A sea state dependent gas transfer velocity for CO2 unifying theory, model and field data"</p> <p>WaveWatch III simulated significant wave height (Hs, unit:m), volume of entrained air ('wva', unit m/s), 10-meter wind vector ( 'uwnd','vwnd', unit, m/s) for 9 datasets from 11 cruises.</p> <p>The information of dataset is shown in name of each file.</p>
Data and code for "An open-source alignment method for multichannel infinite-conjugate microscopes using a ray transfer matrix analysis model"
<p>Original data and code associated with the paper "An open-source alignment method for multichannel infinite-conjugate microscopes using a ray transfer matrix analysis model".<br> <br> Further details on the data are available in the readme.txt files.</p>
Dataset for "Linking water markets with payments for watershed services: the eastern route of China's South-North Water Transfer Project".
<p>This dataset is the program for the article "Linking water markets with payments for watershed services: the eastern route of China's South-North Water Transfer Project".</p>
FIGURE 10 in Types of Cuyabasa Bechyné, Palmaraltica Bechyné and Rhynchasphaera Bechyné (Coleoptera: Chrysomelidae: Galerucinae: Alticini: Oedionychina) of the Naturhistorisches Museum, Basel, with keys to species and descriptions of genitalia, and new combinations for species transferred to the oedionychine
FIGURE 10. Specimen of Walterianella pavonina (Jacoby), comb. nov. from BYU. A. Dorsal view; B. Lateral view; C. Frontal view; D. Ventral view. Scale bar: 1 mm.
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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)
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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.