cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.25909/29850083
title: Revisiting the access conductance of a nanopore in a charged membrane

description: The files in this repository are associated with the following<b> </b>paper: H. C. M. Baldock and D. M. Huang, <i>J. Chem. Phys. </i>163, 224706 (2025). https://doi.org/10.1063/5.0251773All files are .txt files containing the fluxes calculated inside of the pore (along z=0) from Finite-Element method calculations of electric-field-driven flow in Comsol 4.3a. Columns with "Velocity field, z component (m^3/s)" and "Electric current (A)" indicate the solution flux (in m³/s) and electric current (in A), respectively. The first instance of "Total flux, z component (mol/s)" is the ion flux of the positively charged ion (in mol/s), while its second instance is the ion flux of the negatively charged ion.Columns with "Diffusive electric current (A)", "Convective electric current (A)" and "Electrophoretic electric current (A)" indicate the diffusive electric current, convective electric current and electrophoretic electric current, respectively, at z=0 (all in A). The first instance of "Diffusive flux, z component (mol/s)", "Convective flux, z component (mol/s)" and "Electrophretic flux, z component (mol/s)" is the diffusive ion flux, convective ion flux and electrophoretic ion flux, respectively, of the positively-charged ion at z=0 (all in mol/s); their second instance is that of the negatively-charged ion.Fluxes obtained from simulations of electric-field-driven flow are indicated in the file name by "-dV-". The potential difference (in V) is given in the second column. "a[X]" indicates a fixed pore radius of [X] nm, "c[X]" indicates a fixed bulk electrolyte concentration of [X] mmol/L and "sig[X]" (or "q[X]") indicates a fixed surface charge density of –[X] mC/m² over the parameter sweep. The pore radius and surface charge density is changed over the parameter sweep for files with names containing "-a-" and "-sig-" ("-q[X]-"), respectively, while all other parameters are fixed. The pore radius (in m) or surface charge density (in C/m²) is given in the second column. Note that the file name variable “sig” indicates simulations of electrolyte through a uniformly charged membrane, while “q” is indicative of membranes with surface charge applied only to the pore entrance and interior.All simulations were of electrolyte flow in an ultrathin membrane using the diffusivity constants and ion valences of potassium chloride (KCl) and the viscosity and dielectric constant of water (H<sub>2</sub>O) at an ambient temperature. The length of pore (L) was set to 0.2 nm in all simulations ("L0.2"). All file names contain "-mesh9-res4-P2+P1-c3-V2", which corresponds to the mesh configuration, reservoir size, and discretizations of the Stokes equations, ion concentrations and electric potential as described in the section "Finite-Element Method simulations" in the Supplementary Material of "Revisiting the access conductance of a charged nanopore membrane".This data was generated using the Comsol 4.3a model described in: H.C.M. Baldock, D.M. Huang, <i>Phys. Fluids</i><i> </i>37, 022032 (2025), https://doi.org/10.1063/5.0251773
DOI: 10.25909/29850083.v3
title: Revisiting the access conductance of a nanopore in a charged membrane

description: The files in this repository are associated with the following<b> </b>paper: H. C. M. Baldock and D. M. Huang, <i>J. Chem. Phys. </i>163, 224706 (2025). https://doi.org/10.1063/5.0251773All files are .txt files containing the fluxes calculated inside of the pore (along z=0) from Finite-Element method calculations of electric-field-driven flow in Comsol 4.3a. Columns with "Velocity field, z component (m^3/s)" and "Electric current (A)" indicate the solution flux (in m³/s) and electric current (in A), respectively. The first instance of "Total flux, z component (mol/s)" is the ion flux of the positively charged ion (in mol/s), while its second instance is the ion flux of the negatively charged ion.Columns with "Diffusive electric current (A)", "Convective electric current (A)" and "Electrophoretic electric current (A)" indicate the diffusive electric current, convective electric current and electrophoretic electric current, respectively, at z=0 (all in A). The first instance of "Diffusive flux, z component (mol/s)", "Convective flux, z component (mol/s)" and "Electrophretic flux, z component (mol/s)" is the diffusive ion flux, convective ion flux and electrophoretic ion flux, respectively, of the positively-charged ion at z=0 (all in mol/s); their second instance is that of the negatively-charged ion.Fluxes obtained from simulations of electric-field-driven flow are indicated in the file name by "-dV-". The potential difference (in V) is given in the second column. "a[X]" indicates a fixed pore radius of [X] nm, "c[X]" indicates a fixed bulk electrolyte concentration of [X] mmol/L and "sig[X]" (or "q[X]") indicates a fixed surface charge density of –[X] mC/m² over the parameter sweep. The pore radius and surface charge density is changed over the parameter sweep for files with names containing "-a-" and "-sig-" ("-q[X]-"), respectively, while all other parameters are fixed. The pore radius (in m) or surface charge density (in C/m²) is given in the second column. Note that the file name variable “sig” indicates simulations of electrolyte through a uniformly charged membrane, while “q” is indicative of membranes with surface charge applied only to the pore entrance and interior.All simulations were of electrolyte flow in an ultrathin membrane using the diffusivity constants and ion valences of potassium chloride (KCl) and the viscosity and dielectric constant of water (H<sub>2</sub>O) at an ambient temperature. The length of pore (L) was set to 0.2 nm in all simulations ("L0.2"). All file names contain "-mesh9-res4-P2+P1-c3-V2", which corresponds to the mesh configuration, reservoir size, and discretizations of the Stokes equations, ion concentrations and electric potential as described in the section "Finite-Element Method simulations" in the Supplementary Material of "Revisiting the access conductance of a charged nanopore membrane".This data was generated using the Comsol 4.3a model described in: H.C.M. Baldock, D.M. Huang, <i>Phys. Fluids</i><i> </i>37, 022032 (2025), https://doi.org/10.1063/5.0251773
DOI: 10.25909/29916938
title: Red Whiskered Bulbul - mtDNA sequence alignment and DartSeq raw data files

description: DNA sequence alignment of mtDNA sequences and nuclear SNP raw data files (Dartseq)
DOI: 10.25909/29916938.v1
title: Red Whiskered Bulbul - mtDNA sequence alignment and DartSeq raw data files

description: DNA sequence alignment of mtDNA sequences and nuclear SNP raw data files (Dartseq)
DOI: 10.25909/30123208
title: Human passive neck stiffness and range of motion (20-79 years) Resource Materials: moment-angle data

description: This dataset contains anthropometry and moment-angle data collected for 80 participants, in a study of passive neck stiffness and range of motion. Participants were aged 20 to 79 years.Files are grouped into .zip folders, named by [sex][decade-age-group]. Files are in .xlsx format; there is one file per participant.File names follow the format [sex][decade-age-group]_[participant number], where:<b>Sex:</b>o M: maleo F: female<b>Decade-age-group:</b>o 2: 20 to 29 yearso 3: 30 to 39 yearso 4: 40 to 49 yearso 5: 50 to 59 yearso 6: 60 to 69 yearso 7: 70 to 79 years<b>Participant number</b> is numeric, 1-10, with up to 10 participants in each sex and decade-age-group combination.“Sheet1” in each file contains anthropometric information for the participant, including age, sex, body height and mass, head girth (passing through glabella and opisthocranion), neck girth (passing through C4) and dominant hand.Subsequent sheets contain moment-angle data for individual trials. The first column (angle) represents the head-torso rotational angle in the tested direction, measured in degrees. The second column (moment) contains the applied moment on the participant’s neck, in units of Nm/degree. Sheets are named by the trial name, following the format: ‘[motion]passive[trial number], where:<b>Motion:</b>o Flexion: flexiono Extension: extensiono Left: left lateral bendingo Right: right lateral bendingo Rot_left: left axial rotationo Rot_right: right axial rotation<b>Trial number</b>: 1-3, corresponding to trials 1 through 3.Comprehensive details on the testing protocol, data collection procedures, post-processing methods and trial exclusion criteria (excluded trials are not provided in this Figshare dataset) can be found in the manuscript: Liu M, Quarrington RD, Robertson WSP, Sandoz B, Jones CF. Passive neck stiffness and range of motion for males and females from early to late adulthood. Spine J. 2025 Aug 27:S1529-9430(25)00735-1. doi: 10.1016/j.spinee.2025.08.331. Epub ahead of print. PMID: 40882845.When using this dataset, please cite the above article, and this Figshare collection.
DOI: 10.25909/30123208.v1
title: Human passive neck stiffness and range of motion (20-79 years) Resource Materials: moment-angle data

description: This dataset contains anthropometry and moment-angle data collected for 80 participants, in a study of passive neck stiffness and range of motion. Participants were aged 20 to 79 years.Files are grouped into .zip folders, named by [sex][decade-age-group]. Files are in .xlsx format; there is one file per participant.File names follow the format [sex][decade-age-group]_[participant number], where:<b>Sex:</b>o M: maleo F: female<b>Decade-age-group:</b>o 2: 20 to 29 yearso 3: 30 to 39 yearso 4: 40 to 49 yearso 5: 50 to 59 yearso 6: 60 to 69 yearso 7: 70 to 79 years<b>Participant number</b> is numeric, 1-10, with up to 10 participants in each sex and decade-age-group combination.“Sheet1” in each file contains anthropometric information for the participant, including age, sex, body height and mass, head girth (passing through glabella and opisthocranion), neck girth (passing through C4) and dominant hand.Subsequent sheets contain moment-angle data for individual trials. The first column (angle) represents the head-torso rotational angle in the tested direction, measured in degrees. The second column (moment) contains the applied moment on the participant’s neck, in units of Nm/degree. Sheets are named by the trial name, following the format: ‘[motion]passive[trial number], where:<b>Motion:</b>o Flexion: flexiono Extension: extensiono Left: left lateral bendingo Right: right lateral bendingo Rot_left: left axial rotationo Rot_right: right axial rotation<b>Trial number</b>: 1-3, corresponding to trials 1 through 3.Comprehensive details on the testing protocol, data collection procedures, post-processing methods and trial exclusion criteria (excluded trials are not provided in this Figshare dataset) can be found in the manuscript: Liu M, Quarrington RD, Robertson WSP, Sandoz B, Jones CF. Passive neck stiffness and range of motion for males and females from early to late adulthood. Spine J. 2025 Aug 27:S1529-9430(25)00735-1. doi: 10.1016/j.spinee.2025.08.331. Epub ahead of print. PMID: 40882845.When using this dataset, please cite the above article, and this Figshare collection.
DOI: 10.25909/30125557
title: The Inclusion or Exclusion of Studies Based on Critical Appraisal Results in JBI Qualitative Systematic Reviews An Analysis of Practices.xlsx

description: This study examined the methods used in JBI qualitative systematic reviews related to the inclusion or exclusion of studies based on critical appraisal results.
DOI: 10.25909/30125557.v2
title: The Inclusion or Exclusion of Studies Based on Critical Appraisal Results in JBI Qualitative Systematic Reviews An Analysis of Practices.xlsx

description: This study examined the methods used in JBI qualitative systematic reviews related to the inclusion or exclusion of studies based on critical appraisal results.
DOI: 10.25909/30133984
title: Demonstration of Isosteric Heat of Adsorption Calculation using AIFs and pyGAPs

description: This repository provides example datasets and Jupyter Notebooks for calculating the <b>isosteric heat (enthalpy) of adsorption</b>. The data corresponds to carbon dioxide (CO2) adsorption on the metal-organic framework CALF-20 at six different temperatures ranging from 253 K to 373 K.The calculation is performed using the Clausius-Clapeyron method as implemented in the <code><strong>pyGAPS</strong></code> Python library for adsorption science. The raw data is provided in the <b>Adsorption Information File (AIF)</b> format, a standard based on the Crystallographic Information File (CIF) format.Two distinct workflows are demonstrated, reflecting common data organization practices:Processing multiple, individual AIF files, where each file contains one isotherm for a specific temperature.Processing a single, consolidated AIF file that contains all isotherm data organized into separate data blocks.These examples serve as a practical guide for researchers looking to use AIFs and analysing experimental data using <code>pyGAPS</code>.
DOI: 10.25909/30133984.v1
title: Demonstration of Isosteric Heat of Adsorption Calculation using AIFs and pyGAPs

description: This repository provides example datasets and Jupyter Notebooks for calculating the <b>isosteric heat (enthalpy) of adsorption</b>. The data corresponds to carbon dioxide (CO2) adsorption on the metal-organic framework CALF-20 at six different temperatures ranging from 253 K to 373 K.The calculation is performed using the Clausius-Clapeyron method as implemented in the <code><strong>pyGAPS</strong></code> Python library for adsorption science. The raw data is provided in the <b>Adsorption Information File (AIF)</b> format, a standard based on the Crystallographic Information File (CIF) format.Two distinct workflows are demonstrated, reflecting common data organization practices:Processing multiple, individual AIF files, where each file contains one isotherm for a specific temperature.Processing a single, consolidated AIF file that contains all isotherm data organized into separate data blocks.These examples serve as a practical guide for researchers looking to use AIFs and analysing experimental data using <code>pyGAPS</code>.
DOI: 10.25909/30214696
title: <b><i>Supplementary Materials for paper titled </i></b><b><i>Tracking rainfall contribution in a conceptual runoff model</i></b>

description: <i>Supplementary Material A: Worked example of rainfall tracking process</i> <i>and</i><i>Supplementary Material B: Streamflow station details</i>
DOI: 10.25909/30214696.v2
title: <b><i>Supplementary Materials for paper titled </i></b><b><i>Tracking rainfall contribution in a conceptual runoff model</i></b>

description: <i>Supplementary Material A: Worked example of rainfall tracking process</i> <i>and</i><i>Supplementary Material B: Streamflow station details</i>
DOI: 10.25909/30217288
title: Data for published and unpublished manuscripts in thesis by Nguyen Quang Tu Le

description: This folder contains excel sheets of data used for publication of published and unpublished manuscripts for the PhD thesis titled, "Preparation of Controlled Release Phosphorus Fertilisers via Advanced Flow Technologies for Enhancing Crop Yields in Degraded Soils"
DOI: 10.25909/30217288.v1
title: Data for published and unpublished manuscripts in thesis by Nguyen Quang Tu Le

description: This folder contains excel sheets of data used for publication of published and unpublished manuscripts for the PhD thesis titled, "Preparation of Controlled Release Phosphorus Fertilisers via Advanced Flow Technologies for Enhancing Crop Yields in Degraded Soils"
DOI: 10.25909/30271249
title: Atmospheric boundary layer data collected at the Atmospheric Boundary Layer Research Facility of the University of Adelaide

description: The atmospheric boundary layer data includes wind velocities in three components, temperatures and measurement time collected by 5 ultrasonic anemometers at the Atmospheric Boundary Layer Research Facility on the Roseworthy campus of the University of Adelaide.Five anemometers are located at 1.6 m, 3 m, 4.6 m, 7.9 m, and 12 m high on a 12-m mast. The detailed locations can be found in the attached document named "Ultralsonic anemometer locations at the ABLRF.pdf".It is noted that when the flow direction is from the north-east, the anemometers at 3 m and 4.6 m high are likely to be in the wake of the large heliostat. Hence, the data may have the wake effects which depend on the heliostat position and wind direction.Please note that this data must be used according to the CC BY-NC-SA 4.0 license.
DOI: 10.25909/30271249.v5
title: Atmospheric boundary layer data collected at the Atmospheric Boundary Layer Research Facility of the University of Adelaide

description: The atmospheric boundary layer data includes wind velocities in three components, temperatures and measurement time collected by 5 ultrasonic anemometers at the Atmospheric Boundary Layer Research Facility on the Roseworthy campus of the University of Adelaide.Five anemometers are located at 1.6 m, 3 m, 4.6 m, 7.9 m, and 12 m high on a 12-m mast. The detailed locations can be found in the attached document named "Ultralsonic anemometer locations at the ABLRF.pdf".It is noted that when the flow direction is from the north-east, the anemometers at 3 m and 4.6 m high are likely to be in the wake of the large heliostat. Hence, the data may have the wake effects which depend on the heliostat position and wind direction.Please note that this data must be used according to the CC BY-NC-SA 4.0 license.
DOI: 10.25909/30277054
title: Supplementary Material Chapter 4: The tectonic and metamorphic framework of subglacial East Antarctica through campaign-style detrital garnet Lu-Hf geochronology

description: Table S1: Garnet Lu-Hf isotopic data. Table S2: Age compilation and references used in Figure 5 for offshore marine sediment cores. Table S3: Age compilation and references used in Figure 5 for bedrock samples and erratics. Figure S1: Inverse Lu-Hf isochrons for secondary reference materials. Figure S2: Radial plots. Figure S3: Detrital garnet Lu-Hf Kernel Density Estimate plots and average concentrations for all trace elements. Figure S4: Downcore detrital garnet Lu-Hf results for drill site ODP 188-1167A. Supplementary text: R script.
DOI: 10.25909/30277054.v2
title: Supplementary Material Chapter 4: The tectonic and metamorphic framework of subglacial East Antarctica through campaign-style detrital garnet Lu-Hf geochronology

description: Table S1: Garnet Lu-Hf isotopic data. Table S2: Age compilation and references used in Figure 5 for offshore marine sediment cores. Table S3: Age compilation and references used in Figure 5 for bedrock samples and erratics. Figure S1: Inverse Lu-Hf isochrons for secondary reference materials. Figure S2: Radial plots. Figure S3: Detrital garnet Lu-Hf Kernel Density Estimate plots and average concentrations for all trace elements. Figure S4: Downcore detrital garnet Lu-Hf results for drill site ODP 188-1167A. Supplementary text: R script.
DOI: 10.25909/30277063
title: Supplementary Material Chapter 5: New time constraints on the metamorphic history of the East Greenland Caledonides through the lens of detrital garnet Lu-Hf geochronology

description: Supplementary Table S1: Sample locations and heavy mineral distributions. Supplementary Table S2: Garnet Lu–Hf data.
DOI: 10.25909/30277063.v1
title: Supplementary Material Chapter 5: New time constraints on the metamorphic history of the East Greenland Caledonides through the lens of detrital garnet Lu-Hf geochronology

description: Supplementary Table S1: Sample locations and heavy mineral distributions. Supplementary Table S2: Garnet Lu–Hf data.
DOI: 10.25909/30277078
title: Supplementary Material Chapter 6: Detrital garnet Lu–Hf geochronology as a provenance tool in active collisional orogens: insights from the Himalayan foreland basin and the Bengal Fan

description: Supplementary Table S1: Samples and references with published geochronological datasets. Supplementary Table S2: Detrital garnet Lu-Hf isotopic data. Supplementary Table S3: Detrital zircon U-Pb isotopic data.
DOI: 10.25909/30277078.v1
title: Supplementary Material Chapter 6: Detrital garnet Lu–Hf geochronology as a provenance tool in active collisional orogens: insights from the Himalayan foreland basin and the Bengal Fan

description: Supplementary Table S1: Samples and references with published geochronological datasets. Supplementary Table S2: Detrital garnet Lu-Hf isotopic data. Supplementary Table S3: Detrital zircon U-Pb isotopic data.
DOI: 10.25909/30343483
title: Canine heartworm clinical signs diagnostic information

description: Clinical sign presence/absence for dogs raising clinical suspicion of <i>Dirofilaria immitis</i> infection.<br>
DOI: 10.25909/30343483.v1
title: Canine heartworm clinical signs diagnostic information

description: Clinical sign presence/absence for dogs raising clinical suspicion of <i>Dirofilaria immitis</i> infection.<br>
DOI: 10.25909/30343624
title: Cat play or cat fray?

description: Raw data and analytical codes used for Cat play or cat fray? manuscript
DOI: 10.25909/30343624.v1
title: Cat play or cat fray?

description: Raw data and analytical codes used for Cat play or cat fray? manuscript
DOI: 10.25909/30736616
title: PBMC prediction tool data

description: This dataset was used to investigate the impact of pre-analytical factors on PBMC post thaw viability and recovery.
DOI: 10.25909/30736616.v1
title: PBMC prediction tool data

description: This dataset was used to investigate the impact of pre-analytical factors on PBMC post thaw viability and recovery.
DOI: 10.25909/30747617
title: Dark Agouti tumor data

description: Tumor charcterisation data for dark agouti mammary adenocarcinoma
DOI: 10.25909/30747617.v3
title: Dark Agouti tumor data

description: Tumor charcterisation data for dark agouti mammary adenocarcinoma
DOI: 10.6084/m9.figshare.30890469
title: Additional file 1 of Transcriptome profiling of peripheral blood mononuclear cells from highly susceptible adult cattle infected with a virulent strain of Babesia bovis

description: Additional file 1: Table S1. Total number of transcripts, including the upregulated and downregulated differentially expressed transcripts in response to B. bovis infection found in this study.
DOI: 10.6084/m9.figshare.30890469.v1
title: Additional file 1 of Transcriptome profiling of peripheral blood mononuclear cells from highly susceptible adult cattle infected with a virulent strain of Babesia bovis

description: Additional file 1: Table S1. Total number of transcripts, including the upregulated and downregulated differentially expressed transcripts in response to B. bovis infection found in this study.
DOI: 10.6084/m9.figshare.30890476
title: Additional file 1 of Evolutionary and structural insights into VP1 epitopes of representative SAT-type FMDV strains: implications for candidate vaccine selection

description: Additional file 1. SAT Country Reports, detailed data in Figures 2-4.
DOI: 10.6084/m9.figshare.30890476.v1
title: Additional file 1 of Evolutionary and structural insights into VP1 epitopes of representative SAT-type FMDV strains: implications for candidate vaccine selection

description: Additional file 1. SAT Country Reports, detailed data in Figures 2-4.
DOI: 10.6084/m9.figshare.30890482
title: Additional file 2 of Evolutionary and structural insights into VP1 epitopes of representative SAT-type FMDV strains: implications for candidate vaccine selection

description: Additional file 2. Sequence alignment, detailed data in Figure 5.
DOI: 10.6084/m9.figshare.30890482.v1
title: Additional file 2 of Evolutionary and structural insights into VP1 epitopes of representative SAT-type FMDV strains: implications for candidate vaccine selection

description: Additional file 2. Sequence alignment, detailed data in Figure 5.
DOI: 10.6084/m9.figshare.30890485
title: Additional file 3 of Evolutionary and structural insights into VP1 epitopes of representative SAT-type FMDV strains: implications for candidate vaccine selection

description: Additional file 3. SAT structural prediction, detailed data in Figure 6.