cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.8157905.v1
title: primates_exons.tar from The perils of intralocus recombination for inferences of molecular convergence

description: Accurate inferences of convergence require that the appropriate tree topology be used. If there is a mismatch between the tree a trait has evolved along and the tree used for analysis, then false inferences of convergence (‘hemiplasy’) can occur. To avoid problems of hemiplasy when there are high levels of gene tree discordance with the species tree, researchers have begun to construct tree topologies from individual loci. However, due to intralocus recombination, even locus-specific trees may contain multiple topologies within them. This implies that the use of individual tree topologies discordant with the species tree can still lead to incorrect inferences about molecular convergence. Here, we examine the frequency with which single exons and single protein-coding genes contain multiple underlying tree topologies, in primates and <i>Drosophila</i>, and quantify the effects of hemiplasy when using trees inferred from individual loci. In both clades, we find that there are most often multiple diagnosable topologies within single exons and whole genes, with 91% of <i>Drosophila</i> protein-coding genes containing multiple topologies. Because of this underlying topological heterogeneity, even using trees inferred from individual protein-coding genes results in 25% and 38% of substitutions falsely labelled as convergent in primates and <i>Drosophila</i>, respectively. While constructing local trees can reduce the problem of hemiplasy, our results suggest that it will be difficult to completely avoid false inferences of convergence. We conclude by suggesting several ways forward in the analysis of convergent evolution, for both molecular and morphological characters.This article is part of the theme issue ‘Convergent evolution in the genomics era: new insights and directions’.
DOI: 10.6084/m9.figshare.8157902
title: droso_cdss.tar from The perils of intralocus recombination for inferences of molecular convergence

description: Accurate inferences of convergence require that the appropriate tree topology be used. If there is a mismatch between the tree a trait has evolved along and the tree used for analysis, then false inferences of convergence (‘hemiplasy’) can occur. To avoid problems of hemiplasy when there are high levels of gene tree discordance with the species tree, researchers have begun to construct tree topologies from individual loci. However, due to intralocus recombination, even locus-specific trees may contain multiple topologies within them. This implies that the use of individual tree topologies discordant with the species tree can still lead to incorrect inferences about molecular convergence. Here, we examine the frequency with which single exons and single protein-coding genes contain multiple underlying tree topologies, in primates and <i>Drosophila</i>, and quantify the effects of hemiplasy when using trees inferred from individual loci. In both clades, we find that there are most often multiple diagnosable topologies within single exons and whole genes, with 91% of <i>Drosophila</i> protein-coding genes containing multiple topologies. Because of this underlying topological heterogeneity, even using trees inferred from individual protein-coding genes results in 25% and 38% of substitutions falsely labelled as convergent in primates and <i>Drosophila</i>, respectively. While constructing local trees can reduce the problem of hemiplasy, our results suggest that it will be difficult to completely avoid false inferences of convergence. We conclude by suggesting several ways forward in the analysis of convergent evolution, for both molecular and morphological characters.This article is part of the theme issue ‘Convergent evolution in the genomics era: new insights and directions’.
DOI: 10.6084/m9.figshare.8157902.v1
title: droso_cdss.tar from The perils of intralocus recombination for inferences of molecular convergence

description: Accurate inferences of convergence require that the appropriate tree topology be used. If there is a mismatch between the tree a trait has evolved along and the tree used for analysis, then false inferences of convergence (‘hemiplasy’) can occur. To avoid problems of hemiplasy when there are high levels of gene tree discordance with the species tree, researchers have begun to construct tree topologies from individual loci. However, due to intralocus recombination, even locus-specific trees may contain multiple topologies within them. This implies that the use of individual tree topologies discordant with the species tree can still lead to incorrect inferences about molecular convergence. Here, we examine the frequency with which single exons and single protein-coding genes contain multiple underlying tree topologies, in primates and <i>Drosophila</i>, and quantify the effects of hemiplasy when using trees inferred from individual loci. In both clades, we find that there are most often multiple diagnosable topologies within single exons and whole genes, with 91% of <i>Drosophila</i> protein-coding genes containing multiple topologies. Because of this underlying topological heterogeneity, even using trees inferred from individual protein-coding genes results in 25% and 38% of substitutions falsely labelled as convergent in primates and <i>Drosophila</i>, respectively. While constructing local trees can reduce the problem of hemiplasy, our results suggest that it will be difficult to completely avoid false inferences of convergence. We conclude by suggesting several ways forward in the analysis of convergent evolution, for both molecular and morphological characters.This article is part of the theme issue ‘Convergent evolution in the genomics era: new insights and directions’.
DOI: 10.6084/m9.figshare.8157899
title: Raw Data Files

description: <b>Content:</b><br>The archive contains the raw data used to generate the Figures 1-3 as well as the Supplementary Figures 1-9. <br><b>Software:</b>The data was created Igor Pro 6 and the Asylum Research Software 14. For best performance of data visualization these proprietary softwares are recommended. However, all the files can be read by Gwyddion, a freely available SPM data analysis tool (http://gwyddion.net/).<b>Credit:</b><br>When using this data, please cite the original publication.<i><br></i><i>For further questions, please consult the article text or get in touch with the corresponding author. </i>
DOI: 10.6084/m9.figshare.8157527
title: Additional file 8 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Bipartite tumor network for immunity and signaling-related processes. (XLSX 11 kb)
DOI: 10.6084/m9.figshare.8157527.v1
title: Additional file 8 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Bipartite tumor network for immunity and signaling-related processes. (XLSX 11 kb)
DOI: 10.6084/m9.figshare.8157500
title: Additional file 3 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Excel file with Topological parameters for topologically adjacent module networks (XLSX 34 kb)
DOI: 10.6084/m9.figshare.8157500.v1
title: Additional file 3 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Excel file with Topological parameters for topologically adjacent module networks (XLSX 34 kb)
DOI: 10.6084/m9.figshare.8157497
title: Additional file 2 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Excel file with Topological parameters for co-expression networks (TXT 478 b)
DOI: 10.6084/m9.figshare.8157497.v1
title: Additional file 2 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Excel file with Topological parameters for co-expression networks (TXT 478 b)
DOI: 10.6084/m9.figshare.8157491
title: Additional file 1 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Includes two TXT files with tables of the analysis parameters for both tumors and controls at different MI thresholds. The files include the threshold quantile, number of nodes, edges, components, and largest component sizes for each quantile threshold tested. (TXT 478 b)
DOI: 10.6084/m9.figshare.8157491.v1
title: Additional file 1 of Functional and transcriptional connectivity of communities in breast cancer co-expression networks

description: Supplementary Data. Includes two TXT files with tables of the analysis parameters for both tumors and controls at different MI thresholds. The files include the threshold quantile, number of nodes, edges, components, and largest component sizes for each quantile threshold tested. (TXT 478 b)
DOI: 10.6084/m9.figshare.8157488
title: Additional file 4: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S4. Full dataset of uORFs. All uORFs detected by SPECtre are listed and scored alongside their associated CDS. (XLSX 2835 kb)
DOI: 10.6084/m9.figshare.8157488.v1
title: Additional file 4: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S4. Full dataset of uORFs. All uORFs detected by SPECtre are listed and scored alongside their associated CDS. (XLSX 2835 kb)
DOI: 10.6084/m9.figshare.8157479
title: Additional file 3: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S3. Full GoSeq analysis. Results from gene ontology analysis by mRNA, RPF, and TE measures. (XLSX 10 kb)
DOI: 10.6084/m9.figshare.8157479.v1
title: Additional file 3: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S3. Full GoSeq analysis. Results from gene ontology analysis by mRNA, RPF, and TE measures. (XLSX 10 kb)
DOI: 10.6084/m9.figshare.8157473
title: Additional file 2: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S2. Analysis of mRNA sequencing and Ribosome Profiling. All mRNA, RPF, and TE changes are listed in this table for all transcripts. (XLSX 2581 kb)
DOI: 10.6084/m9.figshare.8157473.v1
title: Additional file 2: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S2. Analysis of mRNA sequencing and Ribosome Profiling. All mRNA, RPF, and TE changes are listed in this table for all transcripts. (XLSX 2581 kb)
DOI: 10.6084/m9.figshare.8157464
title: Additional file 1: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S1. Reads mapped by Bowtie. This table outlines the breakdown of sequencing reads for each individual replicate. (XLSX 12 kb)
DOI: 10.6084/m9.figshare.8157464.v1
title: Additional file 1: of Translation of upstream open reading frames in a model of neuronal differentiation

description: Table S1. Reads mapped by Bowtie. This table outlines the breakdown of sequencing reads for each individual replicate. (XLSX 12 kb)
DOI: 10.6084/m9.figshare.12871235
title: Supplementary Material for: Immunological and Symptomatic Effects of Oral Intake of Transgenic Rice Containing 7 Linked Major T-Cell Epitopes from Japanese Cedar Pollen Allergens

description: <b><i>Background:</i></b> A rice-based peptide vaccine containing 7 linked human predominant T-cell epitopes (7Crp) derived from Japanese cedar (JC) pollen allergens, Cry j 1 and Cry j 2, was developed. Here, we examined the efficacy and safety of this transgenic rice in JC pollinosis patients. <b><i>Methods:</i></b> Transgenic rice (5, 20, and 80 g) was administered orally. We measured the T-cell proliferative activity against 7Crp, Cry j 1, and Cry j 2; the cytokine expression levels; and specific IgE and IgG4 production levels. In addition, the symptom and medication scores were monitored during the pollen season, and quality of life (QOL) was evaluated. <b><i>Results:</i></b> T-cell proliferative activities to Cry j 1, Cry j 2, and 7Crp were significantly depressed in a dose-dependent manner. Oral intake of 80 g transgenic rice for 20 weeks resulted in significant suppression of allergen-specific T-cell proliferation with downregulation of IL-13 and upregulation of IL-10 levels but no changes to specific IgE and IgG4 levels. The QOL symptom scores for allergic rhinitis were not significantly improved. <b><i>Conclusions:</i></b> Allergen-specific T-cell responses were significantly reduced by oral intake of transgenic rice in a dose-dependent manner. However, neither medication score nor QOL symptom scores could be improved during the JC pollen season with oral intake of transgenic rice for 20 weeks.
DOI: 10.6084/m9.figshare.12871235.v1
title: Supplementary Material for: Immunological and Symptomatic Effects of Oral Intake of Transgenic Rice Containing 7 Linked Major T-Cell Epitopes from Japanese Cedar Pollen Allergens

description: <b><i>Background:</i></b> A rice-based peptide vaccine containing 7 linked human predominant T-cell epitopes (7Crp) derived from Japanese cedar (JC) pollen allergens, Cry j 1 and Cry j 2, was developed. Here, we examined the efficacy and safety of this transgenic rice in JC pollinosis patients. <b><i>Methods:</i></b> Transgenic rice (5, 20, and 80 g) was administered orally. We measured the T-cell proliferative activity against 7Crp, Cry j 1, and Cry j 2; the cytokine expression levels; and specific IgE and IgG4 production levels. In addition, the symptom and medication scores were monitored during the pollen season, and quality of life (QOL) was evaluated. <b><i>Results:</i></b> T-cell proliferative activities to Cry j 1, Cry j 2, and 7Crp were significantly depressed in a dose-dependent manner. Oral intake of 80 g transgenic rice for 20 weeks resulted in significant suppression of allergen-specific T-cell proliferation with downregulation of IL-13 and upregulation of IL-10 levels but no changes to specific IgE and IgG4 levels. The QOL symptom scores for allergic rhinitis were not significantly improved. <b><i>Conclusions:</i></b> Allergen-specific T-cell responses were significantly reduced by oral intake of transgenic rice in a dose-dependent manner. However, neither medication score nor QOL symptom scores could be improved during the JC pollen season with oral intake of transgenic rice for 20 weeks.
DOI: 10.6084/m9.figshare.8157419
title: Additional file 6 of Impact of cancer mutational signatures on transcription factor motifs in the human genome

description: Excel sheet containing the predicted alteration frequencies for all JASPAR motifs for all 30 COSMIC mutational signatures. (xlsx 1977 kb)
DOI: 10.6084/m9.figshare.8157419.v1
title: Additional file 6 of Impact of cancer mutational signatures on transcription factor motifs in the human genome

description: Excel sheet containing the predicted alteration frequencies for all JASPAR motifs for all 30 COSMIC mutational signatures. (xlsx 1977 kb)
DOI: 10.6084/m9.figshare.8157284
title: Additional file 1: of Factors influencing behavioural intention to use a smart shoe insole in regionally based adults with diabetes: a mixed methods study

description: Modified Unified Theory of Acceptance and Use of Technology Questionnaire. (ZIP 45 kb)
DOI: 10.6084/m9.figshare.8157284.v1
title: Additional file 1: of Factors influencing behavioural intention to use a smart shoe insole in regionally based adults with diabetes: a mixed methods study

description: Modified Unified Theory of Acceptance and Use of Technology Questionnaire. (ZIP 45 kb)
DOI: 10.22008/fk2/5dskg1/cucvbs
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_01.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_01.nc, date: 2017-04-01
DOI: 10.22008/fk2/5dskg1/rdxyln
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_02.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_02.nc, date: 2017-04-02
DOI: 10.22008/fk2/5dskg1/fgwfbj
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_03.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_03.nc, date: 2017-04-03
DOI: 10.22008/fk2/5dskg1/bo0yvo
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_04.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_04.nc, date: 2017-04-04
DOI: 10.22008/fk2/5dskg1/rvvmgp
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_05.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_05.nc, date: 2017-04-05
DOI: 10.22008/fk2/5dskg1/t9nh5r
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_06.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_06.nc, date: 2017-04-06
DOI: 10.22008/fk2/5dskg1/pcibhp
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_07.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_07.nc, date: 2017-04-07
DOI: 10.22008/fk2/5dskg1/n1swdw
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_08.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_08.nc, date: 2017-04-08
DOI: 10.22008/fk2/5dskg1/ilufsq
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_09.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_09.nc, date: 2017-04-09
DOI: 10.22008/fk2/5dskg1/h3lbri
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_10.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_10.nc, date: 2017-04-10
DOI: 10.22008/fk2/5dskg1/xt6mwj
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_11.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_11.nc, date: 2017-04-11
DOI: 10.22008/fk2/5dskg1/cg2udv
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_12.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_12.nc, date: 2017-04-12
DOI: 10.22008/fk2/5dskg1/vuek8n
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_13.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_13.nc, date: 2017-04-13
DOI: 10.22008/fk2/5dskg1/i740yb
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_14.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_14.nc, date: 2017-04-14
DOI: 10.22008/fk2/5dskg1/dxl3ea
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_15.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_15.nc, date: 2017-04-15
DOI: 10.22008/fk2/5dskg1/fqlytv
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_16.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_16.nc, date: 2017-04-16
DOI: 10.22008/fk2/5dskg1/ibjrjj
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_17.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_17.nc, date: 2017-04-17
DOI: 10.22008/fk2/5dskg1/hmuo5e
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_18.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_18.nc, date: 2017-04-18
DOI: 10.22008/fk2/5dskg1/frzr2e
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_19.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_19.nc, date: 2017-04-19
DOI: 10.22008/fk2/5dskg1/eynj1m
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_21.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_21.nc, date: 2017-04-21
DOI: 10.22008/fk2/5dskg1/u3snfn
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_20.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_20.nc, date: 2017-04-20
DOI: 10.22008/fk2/5dskg1/0hu3zg
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_22.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_22.nc, date: 2017-04-22
DOI: 10.22008/fk2/5dskg1/3mt1ay
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_23.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_23.nc, date: 2017-04-23
DOI: 10.22008/fk2/5dskg1/rgc7bh
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_24.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_24.nc, date: 2017-04-24
DOI: 10.22008/fk2/5dskg1/9hblba
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_25.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_25.nc, date: 2017-04-25
DOI: 10.22008/fk2/5dskg1/culbk5
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_26.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_26.nc, date: 2017-04-26
DOI: 10.22008/fk2/5dskg1/cmx8ye
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_27.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_27.nc, date: 2017-04-27
DOI: 10.22008/fk2/5dskg1/tlneas
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_28.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_28.nc, date: 2017-04-28
DOI: 10.22008/fk2/5dskg1/yn4ilr
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_29.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_29.nc, date: 2017-04-29
DOI: 10.22008/fk2/5dskg1/xaixoa
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_30.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_04_30.nc, date: 2017-04-30
DOI: 10.22008/fk2/5dskg1/pxpouo
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_01.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_01.nc, date: 2017-05-01
DOI: 10.22008/fk2/5dskg1/r64nra
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_02.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_02.nc, date: 2017-05-02
DOI: 10.22008/fk2/5dskg1/1oout6
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_03.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_03.nc, date: 2017-05-03
DOI: 10.22008/fk2/5dskg1/s50kdf
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_04.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_04.nc, date: 2017-05-04
DOI: 10.22008/fk2/5dskg1/u7hiiq
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_05.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_05.nc, date: 2017-05-05
DOI: 10.22008/fk2/5dskg1/yecbx1
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_06.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_06.nc, date: 2017-05-06
DOI: 10.22008/fk2/5dskg1/co5ocm
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_07.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_07.nc, date: 2017-05-07
DOI: 10.22008/fk2/5dskg1/kkophv
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_08.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_08.nc, date: 2017-05-08
DOI: 10.22008/fk2/5dskg1/nvuesu
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_09.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_09.nc, date: 2017-05-09
DOI: 10.22008/fk2/5dskg1/q5fmrb
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_10.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_10.nc, date: 2017-05-10
DOI: 10.22008/fk2/5dskg1/2e0tmd
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_12.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_12.nc, date: 2017-05-12
DOI: 10.22008/fk2/5dskg1/x2z1qb
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_11.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_11.nc, date: 2017-05-11
DOI: 10.22008/fk2/5dskg1/pv0dh3
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_13.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_13.nc, date: 2017-05-13
DOI: 10.22008/fk2/5dskg1/enelkq
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_14.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_14.nc, date: 2017-05-14
DOI: 10.22008/fk2/5dskg1/cyha5l
title: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_15.nc

description: SICEv2.3.2 output: SICEv2.3.2_SevernayaZemlya_1000m_2017_05_15.nc, date: 2017-05-15