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247 results for “envelope”
Cuneiform Envelope 43-5-8875 V2
**Cuneiform Tablet Envelope from Puzris-Dagan, Iraq** Version 2. Third Dynasty of Ur, 2112-2004 BCE. Catalog Number 43.5.8875. 122 camera positions. Hood Museum of Art, Dartmouth College http://hoodmuseum.dartmouth.edu/. Gift of the Dartmouth Scientific Association. Model creation supported by the _Claire Garber Goodman Fund for the Anthropological Study of Human Culture_ and the _Neukom Institute for Computational Science._ Source: Objaverse 1.0 / Sketchfab
Supplemental information for- In-silico evaluation of potential inhibitors against all serotypes of Dengue Virus Envelope Glycoprotein
Open the record for dataset details and reuse information.
Movies of a common-envelope interaction between a 9.4 RSG and a NS and BH companions.
<p>Movies of the density evolution in the orbital plane for our two standard simulations with a BH-mass companion and a NS-mass companion, orbiting inside the envelope of a 9.4 red supergiant primary star.</p>
Climate change and alpine-adapted insects: modelling environmental envelopes of a grasshopper radiation
<p>Mountains create steep environmental gradients that are sensitive barometers of climate change. We modelled the environmental envelopes of twelve predominantly alpine, flightless grasshopper species in Aotearoa New Zealand, using current conditions and two future global climate change scenarios: representative concentration pathway (RCP) 2.6 (1.0 °C raise) and RCP8.5 (3.7 °C raise). Two thirds of our models suggested a reduced potential range across species by 2070, but surprisingly, for six species we predict an increase in potential suitable habitat under mild (+1.0°C) or severe global warming (+3.7°C). However, when we consider the limited dispersal ability of these grasshoppers, all twelve species studied are predicted to suffer extreme reductions in range, with a quarter likely to go extinct due to a 96-100% reduction in suitable habitat. Alpine species are particularly vulnerable to the impacts of climatic shifts, and species that have limited migratory ability will be particularly at risk of habitat loss, fragmentation and local extinction. Here we present the predicted outcomes for an endemic radiation of alpine taxa as an exemplar of the challenges that alpine species, both in New Zealand, and internationally, will face in light of anthropogenic climate change</p>
Partial-envelope stripping and nuclear-timescale mass transfer from evolved supergiants at low metallicity
<p>Model data and input files (inlists) used to compute MESA binary models to paper<br> "Partial-envelope stripping and nuclear-timescale mass transfer from evolved supergiants at low metallicity"<br> (<a href="https://ui.adsabs.harvard.edu/abs/2021arXiv211110271K/abstract">ADS link</a>)<br> MESA version r11554.<br> <br> The data consists of stellar tracks of the primary (donor) star. Provided are MESA history.data files and the final MESA model of the primary (terminated at core-He depletion).<br> <br> The data for solar metallicity models is also available on request.<br> </p>
ssNMR raw data 'Teixobactin kills bacteria by a two-pronged attack on the cell envelope'
<p>ssNMR to 'Teixobactin kills bacteria by a two-pronged attack on the cell envelope'</p> <p>Experiments 1 - 5 acquired in DOPC liposomes with 13C,15N-teixobactin and <strong>12C,14N-Lipid II.</strong></p> <p>Experiments 20-23 acquired in DOPC liposomes with 13C,15N-teixobactin and <strong>13C,15N-Lipid II.</strong></p> <p>Information about the experiments is given in the titles and in the Supplementary Information of the article</p>
Deep-time structural evolution of retroviral and filoviral surface envelope proteins
<p>The retroviral surface envelope protein subunit (SU) mediates receptor binding and triggers membrane fusion by the transmembrane (TM) subunit. SU evolves rapidly under strong selective conditions, resulting in seemingly unrelated SU structures in highly divergent retroviruses. Structural modeling of the SUs of several retroviruses and related endogenous retroviral elements with AlphaFold 2 identifies a TM-proximal SU β-sandwich structure that has been conserved in the orthoretroviruses for at least 110 million years. The SU of orthoretroviruses diversified by the differential expansion of the β-sandwich core to form domains involved in virus-host interactions. The β-sandwich domain is also conserved in the SU equivalent GP1 of Ebola virus although with a significantly different orientation in the trimeric envelope protein structure relative to the β-sandwich of human immunodeficiency virus type 1 gp120, with significant evidence for divergent rather than convergent evolution. The unified structural view of orthoretroviral SU and filoviral GP1 identifies an ancient, structurally conserved, and evolvable domain underlying the structural diversity of orthoretroviral SU and filoviral GP1.</p>
FIGURE. The receptacle and paleae in the genus Callilepis. A. Digital image of the conical receptacle in the solitary capitulum of C. lancifolia (Galpin 12433, PRE). B. Digital image of the conical receptacle in the capitulum from the corymbose synflorescence in C. normae (Theron 3568, PRE). C. Digital image of the palea clasping the disc ovary of C. leptophylla (Hobson 1970, PRE). D. Digital image of the palea enveloping the disc ovary of C normae (Koekemoer 4573, PRE). Arrows in C and D indicate the centre of the capitulum. in A taxonomic revision of the genus Callilepis (Asteraceae) in South Africa
FIGURE. The receptacle and paleae in the genus Callilepis. A. Digital image of the conical receptacle in the solitary capitulum of C. lancifolia (Galpin 12433, PRE). B. Digital image of the conical receptacle in the capitulum from the corymbose synflorescence in C. normae (Theron 3568, PRE). C. Digital image of the palea clasping the disc ovary of C. leptophylla (Hobson 1970, PRE). D. Digital image of the palea enveloping the disc ovary of C normae (Koekemoer 4573, PRE). Arrows in C and D indicate the centre of the capitulum.
Data from: "Eddington envelopes: The fate of stars on parabolic orbits tidally disrupted by supermassive black holes" (Price et al. 2024)
<p>The paper by Price et al. (2024; <a href="https://arxiv.org/abs/2404.09381">arXiv:2404.09381</a>) simulates the tidal disruption of a one solar mass polytropic star by a million-solar-mass supermassive black hole, using the Phantom general relativistic smoothed particle hydrodynamics code (Price et al. 2018). The code used to perform the simulations is available at:</p> <p><a href="https://github.com/danieljprice/phantom">https://github.com/danieljprice/phantom</a></p> <p>This dataset contains:</p> <ol> <li>Scripts, intermediate data products and other small files used to create each figure in the paper</li> <li>Selected snapshots and other raw data from the four main calculations shown in the paper</li> </ol> <p>The main datasets contain parameter files and snapshots from the simulations used to create figures in the paper.small data files from the simulations and post-processing scripts used to create the scientific results and figures shown in the paper. Each simulation dataset contains:</p> <p><strong>.setup file:</strong> parameter file used by phantomsetup to create the initial conditions for the star itself<br><br><strong>.in file:</strong> parameter file used by phantom to perform the calculation<br><br><strong>tde_00000, tde_00100, tde_00200 etc:</strong> binary code snapshots containing raw data (particle positions, velocities, thermal energy, etc), these can be read/visualised/converted using the free and open source codes SPLASH (Price et al. 2007):<br><br><a href="https://github.com/danieljprice/splash">https://github.com/danieljprice/splash</a></p> <p>or Sarracen:</p> <p><a href="https://github.com/ttricco/sarracen">https://github.com/ttricco/sarracen</a></p> <p>SPLASH was used to create figures in the paper. The format and ways to read these data files are described in:</p> <p><a href="https://phantomsph.readthedocs.io/en/latest/user-guide/dumpfile.html">https://phantomsph.readthedocs.io/en/latest/user-guide/dumpfile.html</a></p> <p><strong>tde01.ev, tde02.ev etc:</strong> ascii files (see header) containing global quantities like total angular momentum, total momentum, total energy etc as a function of time. Each number corresponds to a restart of the code (i.e. resubmission of the job to the queue on the cluster).</p> <p><strong>tde01.log, tde02.log: </strong>output log from the simulations themselves, this contains some useful information like the unit scalings, typical timestep and code performance, hardware information etc.</p> <p><em><strong>.defaults, .limits, .units and .filenames:</strong> parameter files used by SPLASH to create particular figures. For example, to use the files lightcurve.defaults, lightcurve.units, lightcurve.limits and lightcurve.filenames one would plot using splash -p lightcurve</em></p> <p>The relevant raw data directories are:</p> <p><strong>beta1_hres: </strong>raw data from the adiabatic, beta=1 calculation</p> <p><strong>beta5_hres:</strong> raw data from the adiabatic, beta=5 calculation</p> <p><strong>beta1_isentropic: </strong>raw data from the isentropic, beta=1 calculation with a non-spinning black hole</p> <p><strong>beta1_isentropic_kerr_a99_i60:</strong> raw data from the isentropic, beta=1 calculation with a maximally-spinning black hole with the initial stellar orbit at an incliation of 60 degrees to the black hole spin</p> <p><strong>The procedure to recreate each figure and post-processing analysis used in the paper is explained in the README.md placed in each directory unpacked from the figureX.zip file</strong></p> <p> </p>
Subdwarf B stars from the common envelope ejection channel
<p>MESA inlists associated with <a href="https://ui.adsabs.harvard.edu/?#abs/2017A&A...599A..54X">Subdwarf B stars from the common envelope ejection channel</a></p>
Simulating the onset of grazing envelope evolution of binary stars
<p>MESA files associated with <a href="https://ui.adsabs.harvard.edu/#abs/2017MNRAS.465L..54S/abstract">Simulating the onset of grazing envelope evolution of binary stars</a></p>
Description of the monitoring analysis and evaluation of the new façade elements for building envelopes in both new construction and renovation.
<p>Deliverable with descritpion of Eco-Binder demo buildings</p>
Differential Rotation in Convective Envelopes: Constraints from Eclipsing Binaries
<p>Data, inlists, and scripts associated with doi:10.1093/mnras/stz2983</p>
Ketterer et al. "The putative Type 4 secretion system effector BspD is involved in maintaining envelope integrity of the pathogen Brucella"
<p>Supplementary Data to Ketterer et al. "<span>The putative Type 4 secretion system effector BspD is involved in maintaining envelope integrity of the pathogen <em>Brucella"</em></span></p>
Inlists for paper: Stellar response after stripping as a model for common-envelope outcomes
<p>MESA (r11554) inlists for the models shown the "Stellar response after stripping as a model for common-envelope outcomes" paper (2107.14526). The inlists reproduce both the pre-stripped and stripped stellar models.</p> <p>Contents:</p> <p>strippedStars_MESA_inlists.zip</p> <ul> <li>single_star_evolution<br> - inlist_project<br> - run_star_extras.f</li> <li>stripped_star<br> - inlist_project<br> - run_star_extras.f</li> </ul>
Suplemental data for the article: Influence of envelope fluctuation on the lateralization of interaurally delayed low-frequency stimuli.
<p>Original as well as derived data for the paper: Encke, Jörg, and Dietz Mathias (2021)</p>
Binaural auralizations of listening experiment stimuli (Envelopment / Engulfment / Spatial Granular Synthesis)
<p>Binaural auralizations of experiment stimuli with KU100 BRIRs, measured at the listening position of the experiments in the IEM CUBE (25-channel loudspeaker hemisphere). The files are 2-channel WAVs for headphone playback.</p>
A Phase I Multicenter Clinical Trial to Evaluate the Safety and Immunogenicity of Vaccinia-Derived HIV-1 Recombinant Envelope Glycoprotein (gp160)
ClinicalTrials.gov study NCT00000968. IPD Sharing: Not stated. Countries: 1. Publications: 7.
A Phase I Multicenter Trial to Evaluate the Safety and Immunogenicity of HIV-1 Recombinant Envelope Glycoprotein gp160
ClinicalTrials.gov study NCT00000956. IPD Sharing: Not stated. Countries: 1. Publications: 6.
Phase I Protocol for the Evaluation of the Safety and Immunogenicity of Vaccination With Synthetic HIV Envelope Peptides in Patients With Early Human Immunodeficiency Virus Infection
ClinicalTrials.gov study NCT00001386. IPD Sharing: Not stated. Countries: 1. Publications: 3.
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