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1,491 results for “Ione”
Exothermal data from thermal safety assessment of type 21700 lithium-ion batteries with NMC, NCA and LFP cathodes by means of Accelerating Rate Calorimetry (ARC)
<p>Data of safety investigation and thermal abuse behavior of commercial type 21700 LIB cells is provided.</p> <p>It has been acquired with Accelerating Rate Calorimetry (ARC), using a Thermal Hazard Technology type ES ARC.</p> <p>Moreover, thermal abuse was done by means of the so-called Heat-Wait-Seek (HWS) test, at different states of charge (SOC) from 0 to 100.</p> <p>Different cathode chemistries are compared (NMC, NCA and LFP), as well as for NCA chemistry, the high energy (HE) and high power (HP) cell design.</p> <p>For each cell, data includes the exothermal behavior of the cells, which is recorded only when the cell is behaving exothermally in the ARC, above a threshold of 0.02 °C / min.</p> <p>Hence, in the files, time in minutes, temperature on the surface at the center of the cell in °C and the registered temperature rate in °C / min is provided. Cathode chemistry, as well as SOC, is indicated in the file name, each set of parameters has been tested at least twice with another cell, which is indicated with M and consecutive numbering of the test number.</p> <p>This data is supporting this article in the journal Batteries:</p> <p><a href="https://doi.org/10.3390/batteries9050237">https://doi.org/10.3390/batteries9050237</a></p> <p>Additional supporting material to this article are the maximum temperatures for thermal abuse, that are published here:</p> <p><a href="https://doi.org/10.5281/zenodo.7867730">https://doi.org/10.5281/zenodo.7867730</a></p> <p> </p> <p> </p>
Data for "Revealing the sources and sinks of negative cluster ions in an urban environment through quantitative analysis"
<p>This file consists of the detection efficiency of APi-TOF, the time series of total negative cluster ions and CS in urban Beijing, and the average spectrums of negative clusters ions measured by APi-TOF during haze and clean periods in urban Beijing, which have been analyzed in the manuscript "Revealing the sources and sinks of negative cluster ions in an urban environment through quantitative analysis". For more details, please contact the author (rujing.yin@helsinki.fi).</p>
Supporting data for "Conformational and state-specific effects in reactions of 2,3-dibromobutadiene with Coulomb-crystallized calcium ions"
<p>Supporting data for "Conformational and state-specific effects in reactions of 2,3-dibromobutadiene with Coulomb-crystallized calcium ions”, Phys. Chem. Chem. Phys (2023), DOI: 10.1039/D3CP01416A</p>
Oxygen ion batteries
<p>Raw data and analyzed data of oxygen ion battery full and half cells.</p> <p>Half cells are ones with one mixed conducting storage electrode and one reversible electrode in contact with the atmosphere. Full cells feature two MIEC storage electrodes.</p> <p>Raw data are constant current charge/discharge cycles (i.e. voltage and current vs. time) at different temperatures and with different currents. Integrated voltage vs. charge curves are stored in the AltInteg directory. Analyzed data are charge and discharge capacities, cutoff-voltages, energy densities, etc. extracted from those integrated data.</p> <p>The scripts to analyze and plot the data are also included.</p> <p>This data shown here are also available in this github repository: https://github.com/AlexSchmid22191/OxygenIonBattery</p>
Cold CAS Ion Trap - 22 pole trap with ring electrodes for astrochemistry
<p>Raw experimental data and post-processing scripts for: "Cold CAS Ion Trap – 22 pole trap with ring electrodes for<br> astrochemistry".</p> <p>DOI: 10.1080/00268976.2023.2217744</p>
Oxonium ion scanning mass spectrometry for large-scale plasma glycoproteomics
<p>Protein glycosylation — a complex and heterogeneous post-translational modification frequently dysregulated in disease — has been difficult to analyse at scale. Here we report a data-independent-acquisition technique for the large-scale mass-spectrometric quantification of glycopeptides in plasma samples. The technique, which we named ‘OxoScan-MS’, identifies oxonium ions as glycopeptide fragments and exploits a sliding-quadrupole dimension to generate comprehensive, untargeted oxonium ion maps of precursor masses assigned to fragment ions from non-enriched plasma samples. By applying OxoScan-MS to quantify 1,002 glycopeptide features in the plasma glycoproteomes from COVID-19 patients and healthy controls, we found that severe COVID-19 induces differential glycosylation in IgA, haptoglobin, transferrin and other disease-relevant plasma glycoproteins. OxoScan-MS may allow for the quantitative mapping of glycoproteomes at the scale of hundreds to thousands of samples.</p>
Supporting data for "Fundamental Investigations on the Ionic Transport and Thermodynamic Properties of Non-aqueous Potassium-Ion Electrolytes"
<p>This is the dataset of the electrochemical, densitometry and XPS data for our publication "Fundamental Investigations on the Ionic Transport and Thermodynamic Properties of Non-aqueous Potassium-Ion Electrolytes". This archive contains the raw data and python scripts used in the analysis and modelling for the presentation of the results in this manuscript.</p> <p>Abstract of manuscript:</p> <p>Non-aqueous potassium-ion batteries (KIBs) represent a promising complementary technology to lithium-ion batteries due to the availability and low cost of potassium. Moreover, the lower charge density of K<sup>+</sup> compared to Li<sup>+</sup> favour the ion-transport properties in the liquid electrolyte solutions, thus, making KIBs potentially capable of improved rate capability and low-temperature performance. However, a comprehensive study of the ionic transport and thermodynamic properties of non-aqueous K-ion electrolyte solutions is not available. Here we report the full characterisation of the ionic transport and thermodynamic properties of a model non-aqueous K-ion electrolyte solution system comprising potassium bis(fluorosulfonyl)imide (KFSI) salt and 1,2-dimethoxyethane (DME) solvent and compare it with its Li-ion equivalent (i.e., LiFSI:DME), over the concentration range 0.25–2 molal. Using tailored K metal electrodes, we demonstrate that KFSI:DME electrolyte solutions show higher salt diffusion coefficients and cation transference numbers than LiFSI:DME solutions. Finally, via Doyle-Fuller-Newman (DFN) simulations, we investigate the K-ion and Li-ion storage properties for K||graphite and Li||graphite cells.</p>
FIGURE 3. Ione sarahae n in A new species of parasitic isopod (Bopyroidea: Ionidae) infesting burrowing shrimp (Axiidea: Callianassidae) in the tropical eastern Pacific
FIGURE 3. Ione sarahae n. sp., paratype, female, 4.3 mm TL (MZUCR 3791-01). A, right antennula; B, right antenna; C, barbula; D, right maxilliped; E, right pereopod 1; F, right pereopod 7; G, right oostegite 1, external view; H, right oostegite 1, internal view. Scale bars: A, B, E, F = 100 µm; C = 500 µm; G, H = 1 mm; D = 50 µm.
FIGURE 2. Ione sarahae n in A new species of parasitic isopod (Bopyroidea: Ionidae) infesting burrowing shrimp (Axiidea: Callianassidae) in the tropical eastern Pacific
FIGURE 2. Ione sarahae n. sp., holotype, female, 6.6 mm TL (MZUCR 3789-01). A, habitus, dorsal view; B, habitus, ventral view. Scale bars: A, B = 2 mm.
FIGURE 4. Ione sarahae n in A new species of parasitic isopod (Bopyroidea: Ionidae) infesting burrowing shrimp (Axiidea: Callianassidae) in the tropical eastern Pacific
FIGURE 4. Ione sarahae n. sp., allotype, male, 3.5 mm TL (MZUCR 3789-01). A, habitus, dorsal view; B, habitus, ventral view; C, left antennula; D, left antenna; E, left pereopod 1. Scale bars: A, B = 250 µm; C, D = 50 µm; E = 200 µm.
data for "Structure-function analysis suggests that the photoreceptor LITE-1 is a light-activated ion channel"
<p>Data S1 for Manuscript <strong>Structure-function analysis suggests that the photoreceptor LITE-1 is a light-activated ion channel.</strong></p>
Data for "PIC simulations of overstretched ion-scale current sheets in the magnetotail"
<p>This contains the data for the paper titled: "PIC simulations of overstretched ion-scale current sheets in the magnetotail" by: Harry Arnold and Mikhail Sitnov. See the README.txt file for more information of the data.</p>
Experimental study of the response of sheared E × B flow to varying ion-neutral collisions
<p>The experimental data is to support the plots within the paper "Experimental study of the response of sheared E × B flow to varying ion-neutral collisions"</p>
Input files for the simulation of KcsA-K+-LAB-TEA, when LAB-TEA is placed in the cytoplasmic region with K+-ion in the channel cavity
<p>Input files for the simulation of KcsA-K<sup>+</sup>-LAB-TEA, when LAB-TEA is placed in the cytoplasmic region with K<sup>+</sup>-ion in the channel cavity. The inputs include,<br> 1. Input files for minimization (*min.in)<br> 2. Input files for heating (*h1.in, *h2.in, and *h3.in)<br> 3. Input files for equilibration (*eq*.in) and production runs (*prd*.in)<br> 4. Input files for the first trajectories start with file name, 1-lab-tea-k-entra*<br> 5. Input files for the remaining different trajectories start with file name, lab-tea-k-entra*<br> 6. Input files for the trajectories with restraint weight on K<sup>+</sup>-ion starting with file name, lab-tea-entra-k-restraint*</p>
Input files for the simulation of KcsA-LAB-TEA, when LAB-TEA is placed in the channel cavity with no K+-ion
<p>Input files for the simulation of KcsA-LAB-TEA, when LAB-TEA is placed in the channel cavity. The simulation is performed without K<sup>+</sup>-ion. The inputs include,<br> 1. Input files for minimization (*min.in)<br> 2. Input files for heating (*h1.in, *h2.in, and *h3.in)<br> 3. Input files for equilibration (*eq*.in) and production runs (*prd*.in)<br> 4. Input files for the first trajectories start with file name, 1-lab-tea*<br> 5. Input files for the remaining different trajectories start with file name, lab-tea*</p>
Input files for the simulation of KcsA-K+-LAB-TEA, when both LAB-TEA and K+-ion are placed inside the channel cavity.
<p>Input files for the simulation of KcsA-K<sup>+</sup>-LAB-TEA, when both LAB-TEA and K+-ion are placed inside the channel cavity. The inputs include,<br> 1. Input files for minimization (*min.in)<br> 2. Input files for heating (*h1.in, *h2.in, and *h3.in)<br> 3. Input files for equilibration (*eq*.in) and production runs (*prd*.in)<br> 4. Input files for the first trajectories start with file name, 1-lab-tea-k<sup>+</sup>*<br> 5. Input files for the remaining different trajectories start with the file name, lab-tea-k<sup>+</sup>*</p>
Parameters for the solvated KcsA-LAB-TEA, when the LAB-TEA is placed inside the channel cavity without K+-ion
<p>Parameters for the solvated KcsA-LAB-TEA. These KcsA-LAB-TEA systems were solvated by truncated octahedron TIP3PBOX, using the leap program in AMBER20. The LAB-TEA is placed inside the channel cavity. The simulation is performed without K<sup>+</sup>-ion.</p>
Parameters for the solvated KcsA-K+-LAB-TEA, when both LAB-TEA and K+-ion placed inside the channel cavity
<p>Parameters for the solvated KcsA-K<sup>+</sup>-LAB-TEA. These KcsA-K<sup>+</sup>-LAB-TEA systems were solvated by truncated octahedron TIP3PBOX, using the leap program in AMBER20. Both LAB-TEA and K<sup>+</sup>-ion are placed inside the channel cavity.</p>
Regionalized life cycle assessment of present and future lithium production for Li-ion batteries
<p>This dataset contains supplementary data for the following publication: </p> <p>Vanessa Schenker, Christopher Oberschelp, Stephan Pfister,<br> Regionalized life cycle assessment of present and future lithium production for Li-ion batteries,<br> Resources, Conservation and Recycling,<br> Volume 187,<br> 2022,<br> 106611,<br> ISSN 0921-3449,<br> https://doi.org/10.1016/j.resconrec.2022.106611.<br> (https://www.sciencedirect.com/science/article/pii/S0921344922004451)</p>
Fig. 5 in On the free radical scavenging and metallic ion chelating activities of pyridoxal - Could the pro-oxidant risk be competitive?
Fig. 5. Optimized structures of the different Cu(I)/Cu(II)-neutral pyridoxal complexes calculated in water. Distances are in Å.
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