cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.923492
title: Preliminary Study Of Butterfly Diversty At Jasdan, Rajkot, India

description: The butterflies play an important role as the pollinator, carries pollen from one<br>flower to another. Their larvaeact as the pest, injurious to various crops.<br>Present study was carried out at Hingolgadh area,Jasdan, Gujaratduring<br>October 2013 to December 2013to record the speciescomposition of<br>butterflies. During this study a total of 15 species and 04families were<br>reported.The reported families Nymphalidae covered 42.85 %,<br>Papilionidae21.43 %, Danaidae 14.29 % and Pieridae21.43 % biodiversity of<br>butterflies of the study area. In Nymphalidae included, JunoniaOrithya,<br>Junoniaalmanac, Bybliailithyia, Hypolimnasbolina, Hypolimnasmisippusand<br>Cynthia cardui. InPapilionidae included Pachlioptaaristolochiae,<br>Papiliodemoliusand Papiliopolytes. In Pierinaeincluded Danauschrysip pusand<br>Danausgenutia. In Pieridae includedCeporanerissa, Catopsiliacrocale<br>andColotisetrida. Species diversity index (H') was highest (1.12) in case of<br>family Nymphalidae compared to other.It is suggest that butterfly species<br>diversitygenerally increase with increase in vegetation and declines with the<br>increase in disturbance.A detail study is required for further exploration of<br>butterfly fauna of Jasdan, Rajkot, Saurashtra.
DOI: 10.6084/m9.figshare.923494
title: Anthropogenic Mechanisms in Bio- Morphological Evolution A case study of Öset & Rynningeviken Evolutionary Biology

description: The paper is a study of micro and macro biological changes of wetland ecology,<br>a region once used for both agricultural and industrial purposes. It is now<br>under wetland restoration. The study area has been used both as a waste<br>dump, fossil fuel deport and extensive cultivation around lake Hjälmaren on<br>the Eastern side of Örebro City
DOI: 10.6084/m9.figshare.923498.v1
title: Depth of Interaction (DOI) measurements

description: All measurements conducted with 2x2x20mm3, 2x2x30mm3 Proteus LYSO:Ce and 2x2x20mm3 Agile LSO:CeCa scintillator crystals in the DOI apparatus. A full description is given in the paper.
DOI: 10.6084/m9.figshare.923555.v13
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. This is currently a pre-publication example of a single subject. The full raw nifti dataset is available at the link below. The PTBP was supported by Danny JJ Wang's R01MH080892
DOI: 10.6084/m9.figshare.923555.v14
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The PTBP was supported by Danny JJ Wang's R01MH080892
DOI: 10.6084/m9.figshare.923450
title: Synthetic total-field magnetic anomaly data and code to perform Euler deconvolution on it

description: Synthetic data, source code, and supplementary text for the article "Euler deconvolution of potential field data" by Leonardo Uieda, Vanderlei C. Oliveira Jr., and Valéria C. F. Barbosa. This is part of a tutorial submitted to The Leading Edge (http://library.seg.org/journal/tle). Results were generated using the open-source Python package Fatiando a Terra version 0.2 (http://www.fatiando.org). This material along with the manuscript can also be found at https://github.com/pinga-lab/paper-tle-euler-tutorial <strong>Synthetic data and model</strong> Examples in the tutorial use synthetic data generated with the IPython notebook create_synthetic_data.ipynb. File synthetic_data.txt has 4 columns: x (north), y (east), z (down) and the total field magnetic anomaly. x, y, and z are in meters. The total field anomaly is in nanoTesla (nT). File metadata.json contains extra information about the data, such as inclination and declination of the inducing field (in degrees), shape of the data grid (number of points in y and x, respectively), the area containing the data (W, E, S, N, in meters), and the model boundaries (W, E, S, N, top, bottom, in meters). File model.pickle is a serialized version of the model used to generate the data. It contains a list of instances of the PolygonalPrism class of Fatiando a Terra. The serialization was done using the cPickle Python module. <strong>Reproducing the results in the tutorial</strong> The notebook euler-deconvolution-examples.ipynb runs the Euler deconvolution on the synthetic data and generates the figures for the manuscript. It also presents a more detailed explanation of the method and more tests than went into the finished manuscript.
DOI: 10.6084/m9.figshare.923555.v15
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The PTBP was supported by Danny JJ Wang's R01MH080892
DOI: 10.6084/m9.figshare.923555.v16
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The PTBP was supported by Danny JJ Wang's R01MH080892
DOI: 10.6084/m9.figshare.923555.v17
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The PTBP was supported by Danny JJ Wang's R01MH080892 funded by NIMH. The article is in press.
DOI: 10.6084/m9.figshare.921655
title: Character matrix used in phylogenetic analysis of Crocodylia

description: Character matrix used by Farke et al. (2014) for phylogenetic analysis of a specimen referred to the alligatoroid <em>Leidyosuchus </em>(RAM 14572, Raymond M. Alf Museum of Paleontology, Claremont, California, USA). The file is in TNT format (Goloboff et al., 2008), with 179 characters and 99 OTUs (operational taxonomic units). The matrix and character list were derived from that published by Brochu et al. (2012), with the additions of RAM 14527, <em>Diplocynodon deponiae</em>, <em>D. elavericus</em>, and <em>D. ungeri</em>. The coding for character 62 was changed from 1 to 0 in <em>Leidyosuchus canadensis</em> (Farke et al., 2014). The matrix was run in TNT 1.1 with the following settings: unordered characters, 1,000 replicates with 1,000 trees saved per replicate, TBR (Tree Bisection Reconnection), and <em>Bernissartia </em>as outgroup. 23,040 most parsimonious trees of 685 steps each were identified. For full methods and results, please see Farke et al. (2014). <strong>Citations</strong><br>Brochu, C. A., D. C. Parris, B. S. Grandstaff, R. K. Denton, and W. B. Gallagher. 2012. A new species of <em>Borealosuchus</em> (Crocodyliformes, Eusuchia) from the Late Cretaceous–early Paleogene of New Jersey. <em>Journal of Vertebrate Paleontology</em> 32:105–116. Farke, A. A., M. M. Henn, S. J. Woodward, and H. A. Xu. 2014. <em>Leidyosuchus</em> (Crocodylia: Alligatoroidea) from the Upper Cretaceous Kaiparowits Formation (late Campanian) of Utah, USA. <em>PaleoBios</em> 30(3): 72–88. http://escholarship.org/uc/item/0q11x9vs Goloboff, P.A., J.S. Farris, and K.C. Nixon. 2008. TNT, a free program for phylogenetic analysis. <em>Cladistics</em> 24:774–786.
DOI: 10.6084/m9.figshare.921692.v1
title: Student Association for Fire Ecology 2012 Chapter Survey Questions

description: These questions were sent out to members of the Student Association for Fire Ecology.
DOI: 10.6084/m9.figshare.921655.v1
title: Character matrix used in phylogenetic analysis of Crocodylia

description: Character matrix used by Farke et al. (2014) for phylogenetic analysis of a specimen referred to the alligatoroid <em>Leidyosuchus </em>(RAM 14572, Raymond M. Alf Museum of Paleontology, Claremont, California, USA). The file is in TNT format (Goloboff et al., 2008), with 179 characters and 99 OTUs (operational taxonomic units). The matrix and character list were derived from that published by Brochu et al. (2012), with the additions of RAM 14527, <em>Diplocynodon deponiae</em>, <em>D. elavericus</em>, and <em>D. ungeri</em>. The coding for character 62 was changed from 1 to 0 in <em>Leidyosuchus canadensis</em> (Farke et al., 2014). The matrix was run in TNT 1.1 with the following settings: unordered characters, 1,000 replicates with 1,000 trees saved per replicate, TBR (Tree Bisection Reconnection), and <em>Bernissartia </em>as outgroup. 23,040 most parsimonious trees of 685 steps each were identified. For full methods and results, please see Farke et al. (2014). <strong>Citations</strong><br>Brochu, C. A., D. C. Parris, B. S. Grandstaff, R. K. Denton, and W. B. Gallagher. 2012. A new species of <em>Borealosuchus</em> (Crocodyliformes, Eusuchia) from the Late Cretaceous–early Paleogene of New Jersey. <em>Journal of Vertebrate Paleontology</em> 32:105–116. Farke, A. A., M. M. Henn, S. J. Woodward, and H. A. Xu. 2014. <em>Leidyosuchus</em> (Crocodylia: Alligatoroidea) from the Upper Cretaceous Kaiparowits Formation (late Campanian) of Utah, USA. <em>PaleoBios</em> 30(3): 72–88. http://escholarship.org/uc/item/0q11x9vs Goloboff, P.A., J.S. Farris, and K.C. Nixon. 2008. TNT, a free program for phylogenetic analysis. <em>Cladistics</em> 24:774–786.
DOI: 10.6084/m9.figshare.923555.v18
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The file jjperf.Rnw is the original knitr version of the article - no guarantee to compile "out of the box" nor to be consistent with the official final version of the manuscript which underwent revision outside of the knitr world. There are also several typos in this version. The PTBP was supported by Danny JJ Wang's R01MH080892 funded by NIMH. The article is in press.
DOI: 10.6084/m9.figshare.921654
title: Datamanagementplanning. Lesmateriaal RDM Ondersteuning basistraining voor informatiespecialisten sessie 2

description: Lesmateriaal voor sessie 2 van de RDM Ondersteuning basistraining voor informatiespecialisten. Dit lesmateriaal is ontwikkeld door Mariëtte van Selm in het kader van het project RDM Ondersteuning (2013-2015) van de Bibliotheek van de Universiteit van Amsterdam (UvA).
DOI: 10.6084/m9.figshare.923555.v19
title: The Pediatric Template of Brain Perfusion (PTBP)

description: Magnetic resonance imaging (MRI) captures the dynamics of brain development with high spatial resolu- tion and with complementary modalities that quantify both brain structure and function. These measurements may yield valuable insights into the neural patterns that mark healthy maturation or that identify early risk for psychiatric disorder later in life. The Pediatric Template of Brain Perfusion (PTBP) is a free and public neuroimaging resource that will help accelerate the understanding of childhood brain development as seen through the lens of multiple modality neuroimaging and in relation to cognitive and environmental factors. The PTBP uses MRI to quantify cortex (T1), white matter (DTI), resting state functional connectivity (BOLD) and brain perfusion, as measured by Arterial Spin Labeling (ASL), in &gt;100 children 7—17 years of age. The PTBP captures, within normally developing children and across several modalities, the trajectories that demarcate critical turning points in brain maturation. This novel resource allows a more detailed understanding of the structural and functional landmarks that are obtained during normal adolescent brain development. The full raw nifti dataset is available at the link below. The file jjperf.Rnw is the original knitr version of the article - no guarantee to compile "out of the box" nor to be consistent with the official final version of the manuscript which underwent revision outside of the knitr world. There are also several typos in this version. The PTBP was supported by Danny JJ Wang's R01MH080892 funded by NIMH. The article is in press.
DOI: 10.6084/m9.figshare.921648
title: Onderzoeksdatamanagement: een introductie. Lesmateriaal RDM Ondersteuning basistraining voor informatiespecialisten sessie 1

description: Lesmateriaal voor 'Onderzoeksdatamanagement: een introductie', sessie 1 van de RDM Ondersteuning basistraining voor informatiespecialisten. Dit lesmateriaal is ontwikkeld door Mariëtte van Selm in het kader van het project RDM Ondersteuning (2013-2015) van de Bibliotheek van de Universiteit van Amsterdam (UvA).
DOI: 10.6084/m9.figshare.921648.v1
title: Onderzoeksdatamanagement: een introductie. Lesmateriaal RDM Ondersteuning basistraining voor informatiespecialisten sessie 1

description: Lesmateriaal voor 'Onderzoeksdatamanagement: een introductie', sessie 1 van de RDM Ondersteuning basistraining voor informatiespecialisten. Dit lesmateriaal is ontwikkeld door Mariëtte van Selm in het kader van het project RDM Ondersteuning (2013-2015) van de Bibliotheek van de Universiteit van Amsterdam (UvA).
DOI: 10.6084/m9.figshare.920213
title: Dung beetle and dung removal data riparian reserves 2011

description: Data collected from Sabah, Borneo, under the Stability of Altered Forest Ecosystems (SAFE) project. Species data from pitfall traps (25g human dung over 48 hours) and dung removal data from bait removal experiment (700g cattle dung over 48 hours, adjusted for water loss by evaporation). Contact claudiagray@gmail.com for additional information on dataset.
DOI: 10.6084/m9.figshare.920218
title: MR Hunsaker Dissertation

description: This was my dissertation written in completion of my PhD from UC Davis in 2012
DOI: 10.6084/m9.figshare.920211
title: Bacterial genomic 16S gene copy number and sequences

description: This data set includes estimates of genomic copy number of the 16S rRNA gene and corresponding 16S gene sequences for 484 bacterial taxa, as described in the paper: Kembel SW, Wu M, Eisen JA, Green JL (2012) Incorporating 16S Gene Copy Number Information Improves Estimates of Microbial Diversity and Abundance. PLoS Comput Biol 8(10): e1002743. doi:10.1371/journal.pcbi.1002743 http://www.ploscompbiol.org/article/info%3Adoi%2F10.1371%2Fjournal.pcbi.1002743 Two files are included: <strong>reftaxa.16S.copynumber.csv</strong>: estimated number of copies of the 16S gene in the genome of the taxon (see article for description of methodology) <strong>reftaxa.16S.alignment.fasta</strong>: 16S sequence for each taxon aligned to the GreenGenes core set using PyNAST For each file, the reference taxa identifiers consist of a code of the format "t511693-Escherichia", where <em>511693</em> represents the NCBI taxonomic identifier of the taxon and <em>Escherichia</em> represents the taxonomic genus identity of the taxon.
DOI: 10.6084/m9.figshare.920192
title: Review of literature of cerebral venous thrombosis associated with post-lumbar puncture intracranial hypotension

description: This table shows 52 cases identified by reviewing the published literature (PubMed search) in September 2013. Details include obstetric associated PL-IHS patients and non-obstetric associated patients, subjected to post-diagnostic lumbar puncture spinal or epidural anesthesia for non-obstretic surgeries, lumbar intrathecal injection for chemotherapy or myelography, and insertion lumbar drain.
DOI: 10.6084/m9.figshare.920211.v1
title: Bacterial genomic 16S gene copy number and sequences

description: This data set includes estimates of genomic copy number of the 16S rRNA gene and corresponding 16S gene sequences for 484 bacterial taxa, as described in the paper: Kembel SW, Wu M, Eisen JA, Green JL (2012) Incorporating 16S Gene Copy Number Information Improves Estimates of Microbial Diversity and Abundance. PLoS Comput Biol 8(10): e1002743. doi:10.1371/journal.pcbi.1002743 http://www.ploscompbiol.org/article/info%3Adoi%2F10.1371%2Fjournal.pcbi.1002743 Two files are included: <strong>reftaxa.16S.copynumber.csv</strong>: estimated number of copies of the 16S gene in the genome of the taxon (see article for description of methodology) <strong>reftaxa.16S.alignment.fasta</strong>: 16S sequence for each taxon aligned to the GreenGenes core set using PyNAST For each file, the reference taxa identifiers consist of a code of the format "t511693-Escherichia", where <em>511693</em> represents the NCBI taxonomic identifier of the taxon and <em>Escherichia</em> represents the taxonomic genus identity of the taxon.
DOI: 10.6084/m9.figshare.920139
title: APPLICATION OF RFID AT LIBRARY FOR CONTROL OF INFORMATION SERVICES

description: It is not just the ubiquitous computers that constitute technology in Library and Information<br>centers. There are intricate databases, electronic Information Services and quite recently RFID tags. Not<br>many patrons know of RFID tags. But in the library community there are questions of privacy. It is not just<br>Libraries that use RFID. RFID Technology could transform stores, factories every day lives of people.<br>This Technology offers a higher level of security system, so the choice now for users is whether they want<br>a chip inserted into their fatty tissues below the triceps or to have their palm veins recorded with an<br>infrared light. The safety precautions are important especially in the wake of 9/11 and that once has one<br>kind of technology, it is only natural that it will lead to another. Yet all this sounds too high tech. really!<br>This technology is a boon. This article presents an application of technology for library management. It<br>discusses the technology and need of RFID in a larger collection of Libraries and some special<br>Information Services.