cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.8019572.v2
title: Supplementary material - Conservation status, protected area coverage of Ctenomys (Rodentia, Octodontidae) species and molecular identification of a population in a national park

description: <b>Supplementary Table 1. </b>List of all Protected Areas overlapped with <i>Ctenomys</i> species. <b> </b> <b>Supplementary Table 2</b>. Classification, DNA sequence accession numbers, and cyt-b coding sequence length of all samples used in this study. <b>Supplementary File 1</b>. Shapes of <i>Ctenomys dorbignyi</i>, <i>C. perrensi</i>, <i>C. roigi</i>, <i>C. pearsoni</i> and <i>C. rionegrensis</i> based on a recent assessment coordinated by the Argentinean Society for the Study of Mammals (SAREM) and the National Ministry of Environment and Sustainable Development (MAyDS), in which DAC and MSR have taken part. <b>Supplementary File 2</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i> and 3 outgroup sequences used in the phylogenetic analysis. <b>Supplementary File 3</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i>, 2 partial sequences of <i>C. yolandae</i> and 3 outgroup sequences used in the phylogenetic analysis.<br><b>Supplementary Figure 1</b>. Pelage patterns of a) <i>Ctenomys rionegrensis</i>. Specimens deposited at the Museo Nacional de Ciencias Naturales Bernardino Rivadavia, Ciudad de Buenos Aires, Argentina. b) <i>Ctenomys rionegrensis</i>. Specimen captured and released at the Pre-Delta National Park. c) <i>Ctenomys yolandae</i>. Specimens (N°182, 699, 455, 696) deposited in the Museo Florentino Ameghino, Santa Fe, Argentina. <b>Supplementary Online Material 1. </b>Interactive map showing <i>Ctenomys</i> Distribution Areas (DAs), Protected Areas (PAs) and their intersection. In order to avoid an excessively large file, only those PAs proximal to <i>Ctenomys</i> DAs were retained. <br><br><br>
DOI: 10.6084/m9.figshare.8019542.v1
title: Table 1

description: There were 116 individuals performed OGTT (75 g of glucose) after 8 hour fasting, and samples for plasma glucose, insulin and proinsulin were drawn at 0, 30, 60, 120 and 180 minutes. Based on their 2 hour postprandial plasma glucose, the individuals were divided into three groups: NGT<sub>1</sub> group (n=41): 2hPPG &lt;6.67mmol/L; NGT<sub>2</sub> group (n=40): 6.67≤2hPPG &lt;7.78mmol/L; IGT group (n=35): 7.78≤ 2hPPG &lt;11.1mmol/L.Data are presented as means±SDData are presented as means ± SD; * indicates P &lt;0.05 compared with the NGT<sub>1 </sub>group. † indicates P &lt;0.05 compared with NGT<sub>2</sub> group.<br>
DOI: 10.6084/m9.figshare.8019518
title: Working memory visual world linking hypothesis

description: This is a schematic I created that depicts a linking hypothesis for the visual world paradigm (Tanenhaus et al., 1995) proposed by Huettig, Olivers, & Hartsuiker (2011). They propose that items in the visual display must enter working memory to be bound to semantic and phonological representations. They provide a schematic (their Figure 2), but it is incomplete and suggests that spoken input directly enters the visuospatial working memory buffer. This is my attempt to make explicit the minimal components required to depict this view.<br>Version 2 better conforms to the proposal of Huettig et al. (2011).<br><br>Some elements (grids, silhouettes) are from publicdomainvectors.org, where all posted items are available with a CC0 license <br>(https://publicdomainvectors.org/en/public-domain/)
DOI: 10.6084/m9.figshare.8019536.v1
title: Grip Strength PFTs

description: Data was combined from multiple NHANES tables into one Excel file. Includes patient sequence number that is not necessary for analysis
DOI: 10.6084/m9.figshare.8019536.v2
title: Grip Strength PFTs

description: Data was combined from multiple NHANES tables into one Excel file. Includes patient sequence number that is not necessary for analysis
DOI: 10.6084/m9.figshare.8019572.v3
title: Supplementary material - Conservation status, protected area coverage of Ctenomys (Rodentia, Octodontidae) species and molecular identification of a population in a national park

description: <b>Supplementary Table 1. </b>List of all Protected Areas overlapped with <i>Ctenomys</i> species. <b> </b> <b>Supplementary Table 2</b>. Classification, DNA sequence accession numbers, and cyt-b coding sequence length of all samples used in this study. <b>Supplementary File 1</b>. Shapes of <i>Ctenomys dorbignyi</i>, <i>C. perrensi</i>, <i>C. roigi</i>, <i>C. pearsoni</i> and <i>C. rionegrensis</i> based on a recent assessment coordinated by the Argentinean Society for the Study of Mammals (SAREM) and the National Ministry of Environment and Sustainable Development (MAyDS), in which DAC and MSR have taken part. <b>Supplementary File 2</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i> and 3 outgroup sequences used in the phylogenetic analysis. <b>Supplementary File 3</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i>, 2 partial sequences of <i>C. yolandae</i> and 3 outgroup sequences used in the phylogenetic analysis.<br><b>Supplementary Figure 1</b>. Pelage patterns of a) <i>Ctenomys rionegrensis</i>. Specimens deposited at the Museo Nacional de Ciencias Naturales Bernardino Rivadavia, Ciudad de Buenos Aires, Argentina. b) <i>Ctenomys rionegrensis</i>. Specimen captured and released at the Pre-Delta National Park. c) <i>Ctenomys yolandae</i>. Specimens (N°182, 699, 455, 696) deposited in the Museo Florentino Ameghino, Santa Fe, Argentina. <b>Supplementary Online Material 1. </b>Interactive map showing <i>Ctenomys</i> Distribution Areas (DAs), Protected Areas (PAs) and their intersection. To avoid an excessively large file, we retained PAs within the limtis of the distribution of the genus.<br>
DOI: 10.6084/m9.figshare.8019572.v4
title: Supplementary material - Conservation status, protected area coverage of Ctenomys (Rodentia, Octodontidae) species and molecular identification of a population in a national park

description: <b>Supplementary Table 1. </b>List of all Protected Areas overlapped with <i>Ctenomys</i> species. <b> </b> <b>Supplementary Table 2</b>. Classification, DNA sequence accession numbers, and cyt-b coding sequence length of all samples used in this study. <b>Supplementary File 1</b>. Shapes of <i>Ctenomys dorbignyi</i>, <i>C. perrensi</i>, <i>C. roigi</i>, <i>C. pearsoni</i> and <i>C. rionegrensis</i> based on a recent assessment coordinated by the Argentinean Society for the Study of Mammals (SAREM) and the National Ministry of Environment and Sustainable Development (MAyDS), in which DAC and MSR have taken part. <b>Supplementary File 2</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i> and 3 outgroup sequences used in the phylogenetic analysis. <b>Supplementary File 3</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i>, 2 partial sequences of <i>C. yolandae</i> and 3 outgroup sequences used in the phylogenetic analysis.<br><b>Supplementary Figure 1</b>. Pelage patterns of a) <i>Ctenomys rionegrensis</i>. Specimens deposited at the Museo Nacional de Ciencias Naturales Bernardino Rivadavia, Ciudad de Buenos Aires, Argentina. b) <i>Ctenomys rionegrensis</i>. Specimen captured and released at the Pre-Delta National Park. c) <i>Ctenomys yolandae</i>. Specimens (N°182, 699, 455, 696) deposited in the Museo Florentino Ameghino, Santa Fe, Argentina. <b>Supplementary Online Material 1. </b>Interactive map showing <i>Ctenomys</i> Distribution Areas (DAs), Protected Areas (PAs) and their intersection. To avoid an excessively large file, we retained PAs within the limtis of the distribution of the genus.<br>
DOI: 10.6084/m9.figshare.8019572.v6
title: Supplementary material - Conservation status, protected area coverage of Ctenomys (Rodentia, Ctenomyidae) species and molecular identification of a population in a national park

description: <b>Supplementary Online Material 1. </b>Interactive map showing <i>Ctenomys</i> Distribution Areas (DAs), Protected Areas (PAs) and their intersection. To avoid an excessively large file, we retained PAs within the limtis of the distribution of the genus.<b><br></b><b>Supplementary Table 1. </b>List of all Protected Areas overlapped with <i>Ctenomys</i> species. <b> </b> <b>Supplementary Table 2</b>. Classification, DNA sequence accession numbers, and cyt-b coding sequence length of all samples used in this study. <b>Supplementary File 1</b>. Shapes of <i>Ctenomys dorbignyi</i>, <i>C. perrensi</i>, <i>C. roigi</i>, <i>C. pearsoni</i> and <i>C. rionegrensis</i> based on a recent assessment coordinated by the Argentinean Society for the Study of Mammals (SAREM) and the National Ministry of Environment and Sustainable Development (MAyDS), in which DAC and MSR have taken part. <b>Supplementary File 2</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i> and 3 outgroup sequences used in the phylogenetic analysis. <b>Supplementary File 3</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i>, 2 partial sequences of <i>C. yolandae</i> and 3 outgroup sequences used in the phylogenetic analysis.<br><b>Supplementary Figure 1</b>. Pelage patterns of a) <i>Ctenomys rionegrensis</i>. Specimens deposited at the Museo Nacional de Ciencias Naturales Bernardino Rivadavia, Ciudad de Buenos Aires, Argentina. b) <i>Ctenomys rionegrensis</i>. Specimen captured and released at the Pre-Delta National Park. c) <i>Ctenomys yolandae</i>. Specimens (N°182, 699, 455, 696) deposited in the Museo Florentino Ameghino, Santa Fe, Argentina.<br>
DOI: 10.6084/m9.figshare.8019518.v1
title: Working memory visual world linking hypothesis

description: This is a schematic I created that depicts a linking hypothesis for the visual world paradigm (Tanenhaus et al., 1995) proposed by Huettig, Olivers, & Hartsuiker (2011). They propose that items in the visual display must enter working memory to be bound to semantic and phonological representations. They provide a schematic (their Figure 2), but it is incomplete and suggests that spoken input directly enters the visuospatial working memory buffer. This is my attempt to make explicit the minimal components required to depict this view.<br>Some elements (grids, silhouettes) are from publicdomainvectors.org, where all posted items are available with a CC0 license <br>(https://publicdomainvectors.org/en/public-domain/)
DOI: 10.6084/m9.figshare.8019482
title: Unstable periodic orbit and its stable manifold in a 2 degrees-of-freedom Hamiltonian system

description: (a) For a fixed excess energy, ∆E, above the critical value Ee, the permissible regions (in white) are connected by a bottleneck around the saddle equilibria. All motion from the well in quadrant 1 to quadrant 2 must occur through the interior of a stable manifold associated with an unstable periodic orbit in the bottleneck between the quadrants; seen as a 2D configuration space projection of the 3D energy manifold. We show the stable manifold (cyan) and the periodic orbit (black) for an excess energy of ∆E = 100 (cm/s)<sup>2</sup>. A trajectory crossing the U1-section inside the stable manifold will transition (red) into the quadrant 2 well, while one that is outside stays (blue) inside quadrant 1. The zoomed-in inset in the figure shows the structure of the manifold and how precisely the separatrix divides transition and non-transition trajectories. (b) In the (x,y,v<sub>y</sub>) projection, the phase space conduit for imminent transition from quadrant 1 to 2 is the stable manifold (cyan) of geometry R<sup>1</sup> × S<sup>1</sup> (i.e., a cylinder). The same example trajectories (red and blue) as in (a) that exhibit transition and non-transition behavior starting inside and outside the stable mani- fold, respectively, are shown in the 3D projection and projected on the (x, y) configuration space. A movie of a nested sequence of these manifolds can be found https://youtu.be/gMqrFX2JkLU.
DOI: 10.6084/m9.figshare.8019572.v5
title: Supplementary material - Conservation status, protected area coverage of Ctenomys (Rodentia, Ctenomyidae) species and molecular identification of a population in a national park

description: <b>Supplementary Table 1. </b>List of all Protected Areas overlapped with <i>Ctenomys</i> species. <b> </b> <b>Supplementary Table 2</b>. Classification, DNA sequence accession numbers, and cyt-b coding sequence length of all samples used in this study. <b>Supplementary File 1</b>. Shapes of <i>Ctenomys dorbignyi</i>, <i>C. perrensi</i>, <i>C. roigi</i>, <i>C. pearsoni</i> and <i>C. rionegrensis</i> based on a recent assessment coordinated by the Argentinean Society for the Study of Mammals (SAREM) and the National Ministry of Environment and Sustainable Development (MAyDS), in which DAC and MSR have taken part. <b>Supplementary File 2</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i> and 3 outgroup sequences used in the phylogenetic analysis. <b>Supplementary File 3</b>. Cytochrome b nucleotide alignment of 103 <i>Ctenomys</i>, 2 partial sequences of <i>C. yolandae</i> and 3 outgroup sequences used in the phylogenetic analysis.<br><b>Supplementary Figure 1</b>. Pelage patterns of a) <i>Ctenomys rionegrensis</i>. Specimens deposited at the Museo Nacional de Ciencias Naturales Bernardino Rivadavia, Ciudad de Buenos Aires, Argentina. b) <i>Ctenomys rionegrensis</i>. Specimen captured and released at the Pre-Delta National Park. c) <i>Ctenomys yolandae</i>. Specimens (N°182, 699, 455, 696) deposited in the Museo Florentino Ameghino, Santa Fe, Argentina. <b>Supplementary Online Material 1. </b>Interactive map showing <i>Ctenomys</i> Distribution Areas (DAs), Protected Areas (PAs) and their intersection. To avoid an excessively large file, we retained PAs within the limtis of the distribution of the genus.<br>
DOI: 10.6084/m9.figshare.8019482.v1
title: Unstable periodic orbit and its stable manifold in a 2 degrees-of-freedom Hamiltonian system

description: (a) For a fixed excess energy, ∆E, above the critical value Ee, the permissible regions (in white) are connected by a bottleneck around the saddle equilibria. All motion from the well in quadrant 1 to quadrant 2 must occur through the interior of a stable manifold associated with an unstable periodic orbit in the bottleneck between the quadrants; seen as a 2D configuration space projection of the 3D energy manifold. We show the stable manifold (cyan) and the periodic orbit (black) for an excess energy of ∆E = 100 (cm/s)<sup>2</sup>. A trajectory crossing the U1-section inside the stable manifold will transition (red) into the quadrant 2 well, while one that is outside stays (blue) inside quadrant 1. The zoomed-in inset in the figure shows the structure of the manifold and how precisely the separatrix divides transition and non-transition trajectories. (b) In the (x,y,v<sub>y</sub>) projection, the phase space conduit for imminent transition from quadrant 1 to 2 is the stable manifold (cyan) of geometry R<sup>1</sup> × S<sup>1</sup> (i.e., a cylinder). The same example trajectories (red and blue) as in (a) that exhibit transition and non-transition behavior starting inside and outside the stable mani- fold, respectively, are shown in the 3D projection and projected on the (x, y) configuration space. A movie of a nested sequence of these manifolds can be found https://youtu.be/gMqrFX2JkLU.
DOI: 10.6084/m9.figshare.8019401
title: Stage I-III colon cancer patients with tumor deposits.xlsx

description: Data set of patients with stage I-III colon cancer.<br>
DOI: 10.6084/m9.figshare.8019335
title: Aid to WSS and Political Institutions.xlsx

description: This data set contains data from different sources. Like OECD CRS, World Bank WGI, IADB, IAEP, Polity IV Project. The data set is used to estimate the mediating impact of political institutions on effectiveness of foreign aid in water supply and sanitation sector. The estimation techniques used were fixed effects and System GMM
DOI: 10.6084/m9.figshare.8019335.v1
title: Aid to WSS and Political Institutions.xlsx

description: This data set contains data from different sources. Like OECD CRS, World Bank WGI, IADB, IAEP, Polity IV Project. The data set is used to estimate the mediating impact of political institutions on effectiveness of foreign aid in water supply and sanitation sector. The estimation techniques used were fixed effects and System GMM
DOI: 10.6084/m9.figshare.8019230
title: Training of paced breathing at 0.1 Hz improves CO2 homeostasis and relaxation during a paced breathing task.

description: A total of 16 participants performed ten minutes of paced breathing every day for seven days. Partial pressure of end-tidal CO2 (PetCO2), symptoms of hyperventilation, affective state (before and after breathing), and pleasantness of the task were measured on the first, fourth, and seventh days of training (numbers in the variables names reflects number laboratory measurement session).
DOI: 10.6084/m9.figshare.8019230.v1
title: Training of paced breathing at 0.1 Hz improves CO2 homeostasis and relaxation during a paced breathing task.

description: A total of 16 participants performed ten minutes of paced breathing every day for seven days. Partial pressure of end-tidal CO2 (PetCO2), symptoms of hyperventilation, affective state (before and after breathing), and pleasantness of the task were measured on the first, fourth, and seventh days of training (numbers in the variables names reflects number laboratory measurement session).
DOI: 10.6084/m9.figshare.8019194
title: Sero-epidemiological Study in Prediction of the Risk Groups for Measles Outbreaks in Vojvodina, Serbia

description: Seroepidemiology
DOI: 10.6084/m9.figshare.8019194.v1
title: Sero-epidemiological Study in Prediction of the Risk Groups for Measles Outbreaks in Vojvodina, Serbia

description: Seroepidemiology
DOI: 10.6084/m9.figshare.8019020
title: A new mechanism for the field line twisting in the ionospheric magnetic flux rope

description: Figures and the related data files produced by the multi-fluid MHD simulations for the JGR manuscript [Paper # 2019JA026621-TR]. There are 5 figure files and 29 data files that are in .dat format and can be opened by Tecplot software, in which the first to the 18th data files are assocaited with Figure 2, the 19th to the 20th data files are associated with Figure 3, the 21st to the 22nd data files are related to Figure 4, and the 23rd to 29th data files are related to Figure 5.
DOI: 10.6084/m9.figshare.8019086
title: Unparliamentary language data set

description: This dataset is information taken from a Microsoft Access database developed and used to manage 2592 examples of unparliamentary language recorded in the New Zealand Parliament from 1891 to 1949. <br>Source of the data was the print volumes of <i>New Zealand Parliamentary Debates </i>or<i> Hansard. </i>For each example, the parliament, the language ruled unparliamentary, Hansard reference, chamber and user of the language is given. <br><br>
DOI: 10.6084/m9.figshare.8018999
title: chamomile extract versus clotrimazole vaginal cream in treatment of vulvovaginal candidiasis: a randomized control trial

description: Spss table for patients data who participated in study
DOI: 10.6084/m9.figshare.8018999.v1
title: chamomile extract versus clotrimazole vaginal cream in treatment of vulvovaginal candidiasis: a randomized control trial

description: Spss table for patients data who participated in study
DOI: 10.6084/m9.figshare.8019020.v1
title: A new mechanism for the field line twisting in the ionospheric magnetic flux rope

description: Figures and the related data files produced by the multi-fluid MHD simulations for the JGR manuscript [Paper # 2019JA026621-TR]. There are 29 data files in all that are in .dat format and can be opened by Tecplot software, in which the first to the 18th data files are assocaited with Figure 2, the 19th to the 20th data files are associated with Figure 3, the 21st to the 22nd data files are related to Figure 4, and the 23rd to 29th data files are related to Figure 5.
DOI: 10.6084/m9.figshare.8019086.v2
title: Unparliamentary language data set

description: This dataset is information taken from a Microsoft Access database developed and used to manage 2592 examples of unparliamentary language recorded in the New Zealand Parliament from 1891 to 1949. <br>Source of the data was the print volumes of <i>New Zealand Parliamentary Debates </i>or<i> Hansard. </i>For each example, the parliament, the language ruled unparliamentary, Hansard reference, chamber and user of the language is given. <br><br>
DOI: 10.6084/m9.figshare.8018921
title: Additional files 3: of Genome-wide association studies of seven agronomic traits under two sowing conditions in bread wheat

description: Figure S3-S9. Manhattan plot with QQ plot of days to heading, grain filled duration, plant height, spikes per plant, grain numbers per spike, thousand kernel weight and grain yield under normal (DHN, GFDN, PHN, SPPN, GNSN, TKWN, GYN) and late (DHL, GFDL, PHL, SPPL, GNSL, TKWL, GYL) conditions in 125 wheat lines. (ZIP 38475 kb)
DOI: 10.6084/m9.figshare.8018930.v2
title: Traffic Accident Data in Changchun, Northeast China.

description: It describes a traffic network in Changchun city of northeast China by using weighted edges-list and node-list. Each node represents a crossing in the road network with longitude and latitude, each edge represents a road section, the weight of each edge is deﬁned as total number of traffic accidents occurred on each road. We also integrate road structure data and meteorological data to explore the characteristics of traﬃc network. In addition, we provide the ArcGIS shapeﬁles for the road sections and the districts of Changchun city.
DOI: 10.6084/m9.figshare.8019086.v1
title: Data set

description: This dataset is information taken from a Microsoft Access database developed and used to manage 2592 examples of unparliamentary language recorded in the New Zealand Parliament from 1891 to 1949. <br>Source of the data was the print volumes of <i>New Zealand Parliamentary Debates </i>or<i> Hansard. </i>For each example, the parliament, the language ruled unparliamentary, Hansard reference, chamber and user of the language is given. <br><br>
DOI: 10.6084/m9.figshare.8018921.v1
title: Additional files 3: of Genome-wide association studies of seven agronomic traits under two sowing conditions in bread wheat

description: Figure S3-S9. Manhattan plot with QQ plot of days to heading, grain filled duration, plant height, spikes per plant, grain numbers per spike, thousand kernel weight and grain yield under normal (DHN, GFDN, PHN, SPPN, GNSN, TKWN, GYN) and late (DHL, GFDL, PHL, SPPL, GNSL, TKWL, GYL) conditions in 125 wheat lines. (ZIP 38475 kb)
DOI: 10.6084/m9.figshare.8018915
title: Additional file 1: of Genome-wide association studies of seven agronomic traits under two sowing conditions in bread wheat

description: Table S1. Pedigree of 125 studied hexaploid spring wheat lines with PCs, AHC clustering, phenotypic values of studied traits under normal, late sown conditions at three locations, average of three locations under normal, late sown conditions and number of favored alleles in each genotype under late sown conditions. (XLSX 83 kb)
DOI: 10.6084/m9.figshare.8018915.v1
title: Additional file 1: of Genome-wide association studies of seven agronomic traits under two sowing conditions in bread wheat

description: Table S1. Pedigree of 125 studied hexaploid spring wheat lines with PCs, AHC clustering, phenotypic values of studied traits under normal, late sown conditions at three locations, average of three locations under normal, late sown conditions and number of favored alleles in each genotype under late sown conditions. (XLSX 83 kb)