cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.21258/1756868
title: Swiss national forest inventory - Result table No. 899306
DOI: 10.21258/1741163
title: Swiss national forest inventory - Result table No. 898847
DOI: 10.21258/1723961
title: Swiss national forest inventory - Result table No. 897731
DOI: 10.21258/1749840
title: Swiss national forest inventory - Result table No. 891906
DOI: 10.21258/1743226
title: Swiss national forest inventory - Result table No. 902191
DOI: 10.21258/1739176
title: Swiss national forest inventory - Result table No. 899082
DOI: 10.21258/1766074
title: Swiss national forest inventory - Result table No. 897691
DOI: 10.21258/1756712
title: Swiss national forest inventory - Result table No. 899637
DOI: 10.21258/1737370
title: Swiss national forest inventory - Result table No. 897346
DOI: 10.21258/1739857
title: Swiss national forest inventory - Result table No. 899346
DOI: 10.21258/1727240
title: Swiss national forest inventory - Result table No. 897433
DOI: 10.21258/1744340
title: Swiss national forest inventory - Result table No. 892892
DOI: 10.21258/1728153
title: Swiss national forest inventory - Result table No. 897027
DOI: 10.21258/1742464
title: Swiss national forest inventory - Result table No. 891839
DOI: 10.6084/m9.figshare.13514771.v1
title: Exploring Alexithymic Syndrome in Somatization using Rorschach Psychodiagnostics.xlsx

description: Data for descriptive exploratory study on alexithymic patients with somatization.
DOI: 10.21258/1759222
title: Swiss national forest inventory - Result table No. 898693
DOI: 10.21258/1754486
title: Swiss national forest inventory - Result table No. 891971
DOI: 10.21258/1755022
title: Swiss national forest inventory - Result table No. 899661
DOI: 10.21258/1754972
title: Swiss national forest inventory - Result table No. 891844
DOI: 10.21258/1727124
title: Swiss national forest inventory - Result table No. 891710
DOI: 10.21258/1769661
title: Swiss national forest inventory - Result table No. 891973
DOI: 10.21258/1728633
title: Swiss national forest inventory - Result table No. 897590
DOI: 10.21258/1736750
title: Swiss national forest inventory - Result table No. 899568
DOI: 10.21258/1745377
title: Swiss national forest inventory - Result table No. 891735
DOI: 10.21258/1751876
title: Swiss national forest inventory - Result table No. 902083
DOI: 10.25919/xqzd-p030
title: Parkes observations for project P1088 semester 2020OCTS_05

description: We propose a targeted pulsar survey of twelve candidate sources that display interplanetary scintillation or linear polarisation in lower frequency observations using the Murchison Widefield Array (MWA). Known pulsars have been detected using these characteristics. We request 12 hours of Parkes observations using the UWL receiver and back-end to conduct a sensitive and thorough pulsar search using novel techniques. Targeted searches for pulsars using imaging surveys have been revived in recent years due to the availability of new sensitive, broadband, widefield surveys using SKA precursors/pathfinders, and have already resulted in pulsar discoveries. Discovering new pulsars provides prospects for many science cases because pulsars provide powerful probes of the ISM and fundamental physics either individually or as a population.
DOI: 10.21258/1730361
title: Swiss national forest inventory - Result table No. 898015
DOI: 10.6084/m9.figshare.13521470
title: Numerical Study of the effects of the interfacial tension on production of CO2 heavy foamy oil_numerical model.rar

description: Utilize relative oil-water permeability to represent interfacial tension value, then apply it to numerical simulation to study the effects of interfacial tension on production of CO2 heavy foamy oil. <br>
DOI: 10.6084/m9.figshare.13521470.v1
title: Numerical Study of the effects of the interfacial tension on production of CO2 heavy foamy oil_numerical model.rar

description: Utilize relative oil-water permeability to represent interfacial tension value, then apply it to numerical simulation to study the effects of interfacial tension on production of CO2 heavy foamy oil. <br>
DOI: 10.21258/1763385
title: Swiss national forest inventory - Result table No. 892834
DOI: 10.21258/1761670
title: Swiss national forest inventory - Result table No. 899316
DOI: 10.21258/1768479
title: Swiss national forest inventory - Result table No. 891940
DOI: 10.21258/1757841
title: Swiss national forest inventory - Result table No. 891767
DOI: 10.21258/1735887
title: Swiss national forest inventory - Result table No. 898271
DOI: 10.21258/1743823
title: Swiss national forest inventory - Result table No. 897907
DOI: 10.21258/1723873
title: Swiss national forest inventory - Result table No. 898011
DOI: 10.21258/1766270
title: Swiss national forest inventory - Result table No. 899482
DOI: 10.6084/m9.figshare.13521431
title: TABLE(ENGLISH).xls

description: this dataset include Patient baseline characteristics, postoperative data, Patient data of surgical management, Surgical effect with respect to disease classification,which means raw data during operation
DOI: 10.6084/m9.figshare.13521431.v1
title: TABLE(ENGLISH).xls

description: this dataset include Patient baseline characteristics, postoperative data, Patient data of surgical management, Surgical effect with respect to disease classification,which means raw data during operation
DOI: 10.21258/1733065
title: Swiss national forest inventory - Result table No. 897026
DOI: 10.21258/1726758
title: Swiss national forest inventory - Result table No. 897633
DOI: 10.21258/1735993
title: Swiss national forest inventory - Result table No. 899233
DOI: 10.6084/m9.figshare.13521488
title: MedSeg Covid Dataset 1

description: This is a dataset of 100 axial CT images from &gt;40 patients with COVID-19 that were converted from openly accessible JPG images found at https://www.sirm.org/en/ . The conversion process is described in detail in the following blogpost: Covid-19 radiology — data collection and preparation for Artificial Intelligence<br>In short, the images were segmented by a radiologist using 3 labels: <em>ground-glass</em> (mask value =1), <em>consolidation</em> (=2) and <em>pleural effusion</em> (=3). We then trained a 2d multilabel U-Net model, which you can find and apply in MedSeg
DOI: 10.5281/zenodo.4418304
title: Renoir: Accelerating Blockchain Validation using State Caching

description: A Blockchain system such as Ethereum is a peer to peer network<br> where each node works in three phases: creation, mining, and validation phases. In the creation phase, it executes a subset of locally<br> cached transactions to form a new block. In the mining phase, the<br> node solves a cryptographic puzzle (Proof of Work - PoW) on the<br> block it formed. On receiving a block from another peer, it starts the<br> validation phase, where it executes the transactions in the received<br> block in order to validate it. Since transactions depend on the state<br> that previously executed transactions have created, a node must<br> validate each newly arrived block before creating a new block on<br> top of it. A long block validation time lowers the system’s overall<br> throughput and brings the well known Verifier’s dilemma into play.<br> Additionally, this leads to wasted mining power utilization (MPU).<br> <br> In this work, we present Renoir a novel mechanism that<br> caches state from transaction execution during the block creation<br> phase and reuses it to enable nodes to skip (re)executing these transactions during block validation. Renoir artifact consists of two parts: First, the extensive measurement from the production Ethereum network to check the extent of redundancy in the transaction execution during block creation and validation phase. Second, Evaluation of Renoir using different metrics(Throughput, Mining Power Utilization and Validation time) on a 50 node testbed mimicking the top 50 Ethereum miners.
DOI: 10.5281/zenodo.4399271
title: Renoir: Accelerating Blockchain Validation using State Caching

description: A Blockchain system such as Ethereum is a peer to peer network<br> where each node works in three phases: creation, mining, and validation phases. In the creation phase, it executes a subset of locally<br> cached transactions to form a new block. In the mining phase, the<br> node solves a cryptographic puzzle (Proof of Work - PoW) on the<br> block it formed. On receiving a block from another peer, it starts the<br> validation phase, where it executes the transactions in the received<br> block in order to validate it. Since transactions depend on the state<br> that previously executed transactions have created, a node must<br> validate each newly arrived block before creating a new block on<br> top of it. A long block validation time lowers the system’s overall<br> throughput and brings the well known Verifier’s dilemma into play.<br> Additionally, this leads to wasted mining power utilization (MPU).<br> <br> In this work, we present Renoir a novel mechanism that<br> caches state from transaction execution during the block creation<br> phase and reuses it to enable nodes to skip (re)executing these transactions during block validation. Renoir artifact consists of two parts: First, the extensive measurement from the production Ethereum network to check the extent of redundancy in the transaction execution during block creation and validation phase. Second, Evaluation of Renoir using different metrics(Throughput, Mining Power Utilization and Validation time) on a 50 node testbed mimicking the top 50 Ethereum miners.
DOI: 10.21258/1757922
title: Swiss national forest inventory - Result table No. 899200
DOI: 10.6084/m9.figshare.13521509
title: MedSeg Covid Dataset 2

description: Second dataset containing segmented 9 axial, volumetric CTs from Radiopaedia. This dataset includes whole volumes and includes, therefore, both positive and negative slices (373 out of the total of 829 slices have been evaluated by a radiologist as positive and segmented). <br>These volumes are converted and normalized in a similar way as Dataset 1, but we have chosen not to resize these to 512×512. <br>
DOI: 10.5517/ccdc.csd.cc25453m
title: CCDC 1999999: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25454n
title: CCDC 2000000: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25455p
title: CCDC 2000001: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25456q
title: CCDC 2000002: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25457r
title: CCDC 2000003: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25458s
title: CCDC 2000004: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc254q57
title: CCDC 2000528: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.5517/ccdc.csd.cc25yjb0
title: CCDC 2024372: Experimental Crystal Structure Determination

description: Related Article: Akachukwu D. Obi, Lucas A. Freeman, Diane A. Dickie, Robert J. Gilliard, Jr.|2020|Organometallics|39|4575|doi:10.1021/acs.organomet.0c00620
DOI: 10.21258/1765872
title: Swiss national forest inventory - Result table No. 899427
DOI: 10.21258/1755329
title: Swiss national forest inventory - Result table No. 902167
DOI: 10.21258/1732430
title: Swiss national forest inventory - Result table No. 892932
DOI: 10.21258/1756202
title: Swiss national forest inventory - Result table No. 898174
DOI: 10.21258/1742124
title: Swiss national forest inventory - Result table No. 898814
DOI: 10.21258/1767850
title: Swiss national forest inventory - Result table No. 892039
DOI: 10.21258/1733760
title: Swiss national forest inventory - Result table No. 897079
DOI: 10.21258/1729703
title: Swiss national forest inventory - Result table No. 897630
DOI: 10.21258/1736429
title: Swiss national forest inventory - Result table No. 891935
DOI: 10.6084/m9.figshare.13521494
title: Supplementary Material for: Long-Term Successful Outcome of Dystonic Head Tremor after Bilateral Deep Brain Stimulation of the Ventral Intermediate and Ventro-Oral Internus Nuclei: A Case Report and Literature Review of Dystonic Head Tremor

description: Head tremor in patients with dystonia is referred to as dystonic tremor. During surgical treatment, numerous targets may be selected, including the internal segment of the globus pallidus and the ventral intermediate (Vim) nucleus; however, there is no consensus concerning the most effective treatment target. We report herein a case of dystonic head tremor in which improvement persisted for 5 years after deep brain stimulation (DBS) of the bilateral thalamic Vim and ventro-oral internus (Voi) nuclei. The patient, a 67-year-old woman, has a horizontal head tremor associated with cervical dystonia that had been resistant to drug treatment over 3 years. Immediately following surgery, dystonia and tremor symptoms had completely improved. Voice volume declined and dysarthria occurred but improved upon adjusting the stimulation conditions. Over 5 years, both head tremor and cervical dystonia have been completely controlled, and no other obvious complications have been observed. As the Voi nucleus receives pallidothalamic projections involved in dystonia and the Vim nucleus receives cerebellothalamic projections involved in tremors, stimulating these 2 nuclei with the same electrode appears reasonable in the treatment of dystonic tremor. This case suggests that Vim-Voi DBS may be effective for treating dystonic head tremor.
DOI: 10.6084/m9.figshare.13521494.v1
title: Supplementary Material for: Long-Term Successful Outcome of Dystonic Head Tremor after Bilateral Deep Brain Stimulation of the Ventral Intermediate and Ventro-Oral Internus Nuclei: A Case Report and Literature Review of Dystonic Head Tremor

description: Head tremor in patients with dystonia is referred to as dystonic tremor. During surgical treatment, numerous targets may be selected, including the internal segment of the globus pallidus and the ventral intermediate (Vim) nucleus; however, there is no consensus concerning the most effective treatment target. We report herein a case of dystonic head tremor in which improvement persisted for 5 years after deep brain stimulation (DBS) of the bilateral thalamic Vim and ventro-oral internus (Voi) nuclei. The patient, a 67-year-old woman, has a horizontal head tremor associated with cervical dystonia that had been resistant to drug treatment over 3 years. Immediately following surgery, dystonia and tremor symptoms had completely improved. Voice volume declined and dysarthria occurred but improved upon adjusting the stimulation conditions. Over 5 years, both head tremor and cervical dystonia have been completely controlled, and no other obvious complications have been observed. As the Voi nucleus receives pallidothalamic projections involved in dystonia and the Vim nucleus receives cerebellothalamic projections involved in tremors, stimulating these 2 nuclei with the same electrode appears reasonable in the treatment of dystonic tremor. This case suggests that Vim-Voi DBS may be effective for treating dystonic head tremor.
DOI: 10.6084/m9.figshare.13521521
title: Supplementary Material for: Comparative Genome-Wide Characterization of Microsatellites in <b><i>Candida albicans</i></b> and <b><i>Candida dubliniensis</i></b> Leading to the Development of Species-Specific Marker

description: <b><i>Background:</i></b> Microsatellites or simple sequence repeats (SSR) are related to genomic structure, function, and certain diseases of taxonomically different organisms. <b><i>Objective:</i></b> To characterize microsatellites in two closely related <i>Candida</i> species by searching and comparing 1–6 bp nucleotide motifs and utilizing them to develop species-specific markers. <b><i>Methods:</i></b> Whole-genome sequence was downloaded from the public domain, microsatellites were mined and analyzed, and primers were synthesized. <b><i>Results:</i></b> A total of 15,821 and 7,868 microsatellites, with mono-nucleotides (8,679) and trinucleotides (3,156) as most frequent microsatellites, were mined in <i>Candida dubliniensis</i> and <i>Candida albicans</i>, respectively. Chromosome size was found positively correlated with microsatellite number in both the species, whereas it was negatively correlated with the relative abundance and density of microsatellites. A number of unique motifs were also found in both the species. Overall, microsatellite frequencies of each chromosome in <i>C. dubliniensis</i> were higher than in <i>C. albicans</i>. <b><i>Conclusion:</i></b> The features of microsatellite distribution in the two species’ genomes revealed that it is probably not conserved in the genus <i>Candida</i>. Data generated in this article could be used for comparative genome mapping and understanding the distribution of microsatellites and genome structure between these closely related and phenotypically misidentified species and may provide a foundation for the development of a new set of species-specific microsatellite markers. Here, we also report a novel microsatellite-based marker for <i>C. dubliniensis</i>-specific identification.
DOI: 10.21258/1729140
title: Swiss national forest inventory - Result table No. 897792
DOI: 10.21258/1734127
title: Swiss national forest inventory - Result table No. 896960
DOI: 10.23729/52993d92-2c12-40ca-898f-bb24c90d6399
title: Tisoa trace fossil preview

description: Carbonated tube structures of a Tisoa trace fossil. Data is to be used in a future publication. Preview of PAS-dataset https://doi.org/10.23729/b60f429c-e342-473b-ac38-c188698e8de3
DOI: 10.5281/zenodo.4418960
title: Fracture resistance of fiber-reinforced restored teeth: a meta-analysis

description: Datasets for all analyses
DOI: 10.5281/zenodo.4418959
title: Fracture resistance of fiber-reinforced restored teeth: a meta-analysis

description: Datasets for all analyses
DOI: 10.21258/1755873
title: Swiss national forest inventory - Result table No. 902200
DOI: 10.21258/1724832
title: Swiss national forest inventory - Result table No. 892994
DOI: 10.21258/1764156
title: Swiss national forest inventory - Result table No. 896996
DOI: 10.21258/1737214
title: Swiss national forest inventory - Result table No. 902201
DOI: 10.21258/1729622
title: Swiss national forest inventory - Result table No. 897796
DOI: 10.21258/1758079
title: Swiss national forest inventory - Result table No. 892973
DOI: 10.22008/fk2/sfvsbm/ylu43w
title: Play_Maps_DCG_2020.mpk

description: :unav
DOI: 10.5281/zenodo.4419060
title: Porosity, Permeability, Rock Type data from 1240 Norwegian exploration, appraisal and development wells. Core data

description: This data contains all porosity permeability measurements and core plug description of released Norwegian petroleum wells at the end of 2018. <br> The data comes from digital records but also contains more than 600 well datasets that had to be digitized by hand first. <br> An attempt has been made to translate the rock type descriptions to more meaningful geological terms but this work is not complete. The data originates from Diskos where it is available as NOLD 2.0 This data (RealPore) has been made available by a generous sponsoring of GeoProvider http://geoprovider.no/. You must acknowledge Geoprovider with full website link in every publication or project using this data. For example: <strong>Data are © GeoProvider</strong> <strong>https://geoprovider.no/</strong><strong> and licensed CC-BY 4.0</strong>
DOI: 10.21258/1769900
title: Swiss national forest inventory - Result table No. 891991
DOI: 10.21258/1757397
title: Swiss national forest inventory - Result table No. 897533
DOI: 10.21258/1742527
title: Swiss national forest inventory - Result table No. 897978
DOI: 10.21258/1747916
title: Swiss national forest inventory - Result table No. 897869
DOI: 10.21258/1755981
title: Swiss national forest inventory - Result table No. 899084
DOI: 10.21258/1738684
title: Swiss national forest inventory - Result table No. 897612
DOI: 10.21258/1735468
title: Swiss national forest inventory - Result table No. 899584
DOI: 10.21258/1731718
title: Swiss national forest inventory - Result table No. 897930
DOI: 10.21258/1729156
title: Swiss national forest inventory - Result table No. 897602
DOI: 10.21258/1759389
title: Swiss national forest inventory - Result table No. 897450
DOI: 10.21258/1768688
title: Swiss national forest inventory - Result table No. 898894
DOI: 10.21258/1726754
title: Swiss national forest inventory - Result table No. 897166
DOI: 10.21258/1742553
title: Swiss national forest inventory - Result table No. 893450
DOI: 10.6084/m9.figshare.13521593
title: Raw_data_arch1

description: raw data files, flow cytometry<br>
DOI: 10.6084/m9.figshare.13521593.v1
title: Raw_data_arch1

description: raw data files, flow cytometry<br>
DOI: 10.21258/1767631
title: Swiss national forest inventory - Result table No. 897002
DOI: 10.21258/1762220
title: Swiss national forest inventory - Result table No. 897555
DOI: 10.21258/1725968
title: Swiss national forest inventory - Result table No. 898988
DOI: 10.25919/733r-tt91
title: Parkes observations for project P1038 semester 2020OCTS_02

description: PSR~J1759-2402 is one of a small handful of pulsars which are in orbit about high mass stars. Its orbital period is 8.3 years and the orbit is highly eccentric with periastron expected in 2021 March. Although discovered at Parkes, the Lovell telescope has been monitoring the pulsar over many years. However, it’s restricted bandwidth, maintenance schedule and poorer polarization capability make it unsuitable to follow the pulsar as it enters and leaves the eclipse by the companion. In contrast, the UWL on Parkes with its wide- band and excellent polarization characteristics means that we can determine scattering, polarization, dispersion measure and rotation measure changes as the pulsar enters its companion wind. We request a continuation of our weekly observations of the pulsar to track its progress around the orbit.
DOI: 10.21258/1731722
title: Swiss national forest inventory - Result table No. 899259
DOI: 10.25403/upresearchdata.13299053
title: SAP Africa: exploitation and exploration in the highly regulated payroll software industry

description: The case study research methodology was used for the purposes of the teaching case study. This was a single case study conducted on a single company. A single data collection technique was used which included semi-structured interviews using an interview guide to collect data based on the research questions. Interview transcriptions were used to document conversations, converting audio recordings into digital text. The data analysis involved listening to the recordings and reading the transcripts. The purpose of the teaching case study was to compile, analyze, and present the data in a narrative form for teaching purposes. Interviews for a case study to explore the tension in managing the competing demands of exploitation and exploration in a regulated software industry.