cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.13370240
title: Seasonal and elevational variability in the induction of specialized compounds from mountain birch (Betula pubescens var. pumila) by winter moth larvae (Operophtera brumata)

description: The material includes all data used for the paper "Seasonal and elevational variability in the induction of specialized compounds from mountain birch (Betula pubescens var. pumila) by winter moth larvae (Operophtera brumata)" publised on Tree Physiology https://doi.org/10.1093/treephys/tpab023<br>
DOI: 10.6084/m9.figshare.13370240.v1
title: Seasonal and elevational variability in the induction of specialized compounds from mountain birch (Betula pubescens var. pumila) by winter moth larvae (Operophtera brumata)

description: The material includes all data used for the paper "Seasonal and elevational variability in the induction of specialized compounds from mountain birch (Betula pubescens var. pumila) by winter moth larvae (Operophtera brumata)" publised on Tree Physiology https://doi.org/10.1093/treephys/tpab023<br>
DOI: 10.6084/m9.figshare.7879340
title: Amplification of plant volatile defence against insect herbivory in a warming Arctic tundra

description: Supplementary data for the article:<br>Li et al. (2019). Amplification of plant volatile defence against insect herbivory in a warming Arctic tundra. Nature Plants. http://dx.doi.org/10.1038/s41477-019-0439-3 <br>The study employs long-term in situ warming to assess the impacts of warming and insect herbivory on plant volatile organic compound emissions from the widespread circumpolar dwarf birch (Betula nana), a major player in ongoing Arctic greening. The experiment comprises open top chambers in place during summer on an arctic tundra heath in northern Sweden for 8 and 18 years in a randomized complete block design. The study involves three independent experiments. The first experiment describes the impacts of experimental warming and mimicked insect herbivory (exogenous application of methyl jasmonate) on Betula nana volatile emissions (n=18). The second experiment describes volatile emission kinetics of Betula nana upon either real insect herbivory (autumnal moth, Epirrita autumnata) or mimicked insect herbivory (n=4). The third experiment describes the effects of experimental warming on insect herbivory pressure on Betula nana (n=18).
DOI: 10.6084/m9.figshare.7879340.v1
title: Amplification of plant volatile defence against insect herbivory in a warming Arctic tundra

description: The study employs long-term in situ warming to assess the impacts of warming and insect herbivory on plant volatile organic compound emissions from the widespread circumpolar dwarf birch (Betula nana), a major player in ongoing Arctic greening. The experiment comprises open top chambers in place during summer on an arctic tundra heath in northern Sweden for 8 and 18 years in a randomized complete block design. The study involves three independent experiments. The first experiment describes the impacts of experimental warming and mimicked insect herbivory (exogenous application of methyl jasmonate) on Betula nana volatile emissions (n=18). The second experiment describes volatile emission kinetics of Betula nana upon either real insect herbivory (autumnal moth, Epirrita autumnata) or mimicked insect herbivory (n=4). The third experiment describes the effects of experimental warming on insect herbivory pressure on Betula nana (n=18).
DOI: 10.34740/kaggle/dsv/2279054
title: LUFlow Network Intrusion Detection Data Set
DOI: 10.25405/data.ncl.14626497
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotypeMsx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 310.1 (control E15.5 embryo). Shown in panels A, B, C & G in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626497.v2
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotypeMsx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 310.1 (control E15.5 embryo). Shown in panels A, B, C & G in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626497.v1
title: Fig4_ABCG_310_1.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626491
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 310.8 (Pax9 deleted from the second heart field, E15.5 embryo). Shown in panel I in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626491.v2
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 310.8 (Pax9 deleted from the second heart field, E15.5 embryo). Shown in panel I in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626491.v1
title: Fig4I_310_8.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626494
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 848.9 (Pax9-null, E12.5 embryo). Shown in panel K in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626494.v2
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 848.9 (Pax9-null, E12.5 embryo). Shown in panel K in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626494.v1
title: Fig2_K_848_9.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626488
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.7 (Pax9-Null;Msx1-het, E12.5 embryo). Shown in panel L in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626488.v2
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.7 (Pax9-Null;Msx1-het, E12.5 embryo). Shown in panel L in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626488.v1
title: Fig2_L_845_7.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626485
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 302.4 (Pax9 deleted from the second heart field, E15.5 embryo). Shown in panels D, E, F & H in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626485.v2
title: Fig4_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 302.4 (Pax9 deleted from the second heart field, E15.5 embryo). Shown in panels D, E, F & H in Figure 4 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626485.v1
title: Fig4_DEFH_302_4.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626482
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 654.10 (Pax9-null, E15.5 embryo). Shown in panels O, P & Q in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626482.v2
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 654.10 (Pax9-null, E15.5 embryo). Shown in panels O, P & Q in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626482.v1
title: Fig1_OPQ_654_10.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626479
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 789.4 (Pax9;Msx1 double KO, E12.5 embryo). Shown in panel L in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626479.v2
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 789.4 (Pax9;Msx1 double KO, E12.5 embryo). Shown in panel L in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626479.v1
title: AddFile2_L_789_4.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626476
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.3 (control, E12.5 embryo). Shown in panel J in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626476.v2
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.3 (control, E12.5 embryo). Shown in panel J in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626476.v1
title: Fig2_J_845_3.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626473
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 651.8 (control E15.5 embryo). Shown in panels A, B, C D, I, J & K in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626473.v2
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 651.8 (control E15.5 embryo). Shown in panels A, B, C D, I, J & K in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626473.v1
title: Fig1_ABCDIJK_651_8.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.6084/m9.figshare.14695029
title: 2019GHJ mooring data

description: A mooring (thermistor chain) was deployed at 130<sup>o</sup>08.3119'E, 16<sup>o</sup>06.5120'N in 4508 m water depth on the southwest hillside of the rift walls of the Central Basin Fault Zone (CBFZ) in the central Philippine Basin (PB). The measurements were taken in the range from 25 m to 315 m above the seafloor (hereinafter, DAB refers to the distance above seafloor) for 32 days between 24 July and 25 August 2019, corresponding to day 205-237. 98 temperature loggers (sample rate 8 Hz, Model: ONT18S, Ocean Net Technology Co., Ltd) were assembled on the cable with an equal vertical space of 3 m. 16 loggers lacked valid data, and the missing data depths were supplemented by linear interpolation. Two SBE37SM conductivity-temperature-depth recorders (CTDs) were attached at DAB=27 and 315 m with the sample interval of 10 s. A single-point SeaGuard recording current meter (RCM) was moored at DAB=25 m with the sample interval of 10 minutes. The tilt degree of RCM increased abruptly at day 236.9653, so data acquired after was abandoned.The in-situ temperature inquired by the loggers are converted to potential temperature using the salinity data measure by the CTD, then sub-sampled to a time interval of 1 hour.
DOI: 10.6084/m9.figshare.14695029.v1
title: 2019GHJ mooring data

description: A mooring (thermistor chain) was deployed at 130<sup>o</sup>08.3119'E, 16<sup>o</sup>06.5120'N in 4508 m water depth on the southwest hillside of the rift walls of the Central Basin Fault Zone (CBFZ) in the central Philippine Basin (PB). The measurements were taken in the range from 25 m to 315 m above the seafloor (hereinafter, DAB refers to the distance above seafloor) for 32 days between 24 July and 25 August 2019, corresponding to day 205-237. 98 temperature loggers (sample rate 8 Hz, Model: ONT18S, Ocean Net Technology Co., Ltd) were assembled on the cable with an equal vertical space of 3 m. 16 loggers lacked valid data, and the missing data depths were supplemented by linear interpolation. Two SBE37SM conductivity-temperature-depth recorders (CTDs) were attached at DAB=27 and 315 m with the sample interval of 10 s. A single-point SeaGuard recording current meter (RCM) was moored at DAB=25 m with the sample interval of 10 minutes. The tilt degree of RCM increased abruptly at day 236.9653, so data acquired after was abandoned.The in-situ temperature inquired by the loggers are converted to potential temperature using the salinity data measure by the CTD, then sub-sampled to a time interval of 1 hour.
DOI: 10.25405/data.ncl.14626470
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.1 (Pax9-null;Msx1-het, E12.5 embryo). Shown in panel M in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626470.v2
title: Fig2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from microCT Imaging data of embryo 845.1 (Pax9-null;Msx1-het, E12.5 embryo). Shown in panel M in Figure 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626470.v1
title: Fig2_M_845_1.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626467
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 651.6 (Pax9-null, E15.5 embryo). Shown in panels E, F, G, H, L, M & N in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626467.v2
title: Fig1_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from Magentic Resonance Imaging data of embryo 651.6 (Pax9-null, E15.5 embryo). Shown in panels E, F, G, H, L, M & N in Figure 1 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626467.v1
title: Fig1_EFGHLMN_651_6.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626464
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 760.7 (Pax9;Msx1 double KO, E10.5 embryo). Shown in panel M in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626464.v2
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 760.7 (Pax9;Msx1 double KO, E10.5 embryo). Shown in panel M in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626464.v1
title: AddFile2_M_760_7.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.25405/data.ncl.14626458
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 768.1 (Pax9;Msx1 double KO, E12.5 embryo). Shown in panel I in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626458.v2
title: AddFile2_Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype

description: AmiraMesh File from High Resolution Episcopic Microscopy Imaging data of embryo 768.1 (Pax9;Msx1 double KO, E12.5 embryo). Shown in panel I in Additional File 2 of the paper "Msx1 haploinsufficiency modifies the Pax9-deficient cardiovascular phenotype" by Khasawneh et al. This file can be loaded into Amira for analysis.
DOI: 10.25405/data.ncl.14626458.v1
title: AddFile2_I_768_1.amAmiraMesh file of embryo analysed

description: All data are in the form of AmiraMesh Files. These can be loaded into Amira for analysis.<br>
DOI: 10.1184/r1/5845656
title: Survey data on research data management practices and perceptions of MRI researchers

description: This dataset contains the results of an online survey run in summer of 2017 on the research data management (RDM) practices and perceptions of researchers using magnetic resonance imaging (MRI) to study human neuroscience (N=144). The dataset includes responses to multiple choice questions ordered roughly according the phases of a typical research project including data collection, analysis, and sharing. It focuses on a range of RDM topics, including the type of data collected, software and tools used to analyze and manage data, and the degree to which data management practices are standardized within a research group. It also includes participant ratings on the maturity of their data management practices and those of the field at large on a 1-5 scale from ad hoc to refined and responses about perceptions of new scholarly communications practices including data sharing, data reuse, and Open Access publishing.<br>The survey instrument used can be found at the link in the reference below.
DOI: 10.1184/r1/5845656.v1
title: Survey data on research data management practices and perceptions of MRI researchers

description: This dataset contains the results of an online survey run in summer of 2017 on the research data management (RDM) practices and perceptions of researchers using magnetic resonance imaging (MRI) to study human neuroscience (N=144). The dataset includes responses to multiple choice questions ordered roughly according the phases of a typical research project including data collection, analysis, and sharing. It focuses on a range of RDM topics, including the type of data collected, software and tools used to analyze and manage data, and the degree to which data management practices are standardized within a research group. It also includes participant ratings on the maturity of their data management practices and those of the field at large on a 1-5 scale from ad hoc to refined and responses about perceptions of new scholarly communications practices including data sharing, data reuse, and Open Access publishing.<br>The survey instrument used can be found at the link in the reference below.
DOI: 10.24377/ljmu.d.00000094
title: The Primary Home Learning Environment

description: 125 parent-child dyads were assessed as part of an extension to a project examining the impact of the preschool home learning environment on children’s academic development (Soto-Calvo et al., 2020). The extension project examined associations between the preschool home learning environment, the primary home learning environment and children’s academic skills. In the second term of Year 1 (child Mage = 72 months, SD = 4 months), children’s parents/carers completed a questionnaire that assessed the primary home learning environment. In the third term of Year 1 the children (Mage =75 months, SD = 4 months) completed assessments of reading, mathematics, vocabulary, working memory and phonological awareness. In the first term of Year 2 (Mage = 79 months, SD = 4 months) the children completed assessments of spelling and writing and responded to questionnaires assessing mathematics self-efficacy and mathematics anxiety. Soto-Calvo, E., Simmons, F. R., Adams, A., Francis, H. N., Patel, P. & Giofrè, D. (2020). Identifying the preschool home learning experiences that predict early number skills: Evidence from a longitudinal study, Early Childhood Research Quarterly, 53, 14-328, https://doi.org/10.1016/j.ecresq.2020.04.004
description: Parental questionnaires, individual child assessments and questionnaires. See details in README file.
DOI: 10.34740/kaggle/dsv/2279107
title: 2021 World Population (updated daily)
DOI: 10.20375/0000-000e-5547-3
title: DiscussData_Metadata-form YTV Protests Russia 2011 2012.pdf
DOI: 10.20375/0000-000e-5548-2
title: Documentation of Data Collection YTV Protests Russia.pdf
DOI: 10.20375/0000-000e-5549-1
title: YTV Protests Russia 2011 2012.xlsx