cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.34740/kaggle/dsv/3894544
title: OntoUML/UFO Catalog
DOI: 10.26188/20218871.v1
title: Material quantities, embodied GHG emissions and structural drawings of 3 structural systems for a 15-storey tall building used to assess the embodied GHG emissions premium for irregularity

description: In mitigating the effects of climate change, life cycle assessment (LCA) has been proposed as a design tool to facilitate the choice of structural typologies, materials and floor plan layouts for tall buildings. Existing studies that use LCA to compare alternative structural systems for tall buildings adopt symmetrical and regular plans, whereby their centres of mass, stiffness and strength coincide throughout the building height. Thus, existing comparative LCA studies of structural systems exclude torsionally unbalanced tall buildings. The aim of this paper is to demonstrate the detrimental influence of plan irregularity on the embodied greenhouse gas emissions (EGHGE) of structural systems for tall buildings. This influence is evaluated using three finite element models of structural systems with varying degrees of plan irregularity for a 15-storey building scenario. The eccentric placement of shear walls is amplified across the alternative structural designs for each scenario, yet the materials and typology are kept constant to isolate the influence of plan irregularity on the EGHGE of the structural systems. All three structural systems comprise reinforced concrete shear walls and a moment-resisting frame that consists of band beams, columns and one-way slabs. A hybrid life cycle inventory analysis method is used to quantify the EGHGE of the structural systems. The findings of this study provide an initial estimation of the EGHGE premium for plan irregularity and confirm the need to reduce and eliminate these irregularities in the aim of minimising the EGHGE of structural systems for tall buildings.
DOI: 10.26188/20218871
title: Material quantities, embodied GHG emissions and structural drawings of 3 structural systems for a 15-storey tall building used to assess the embodied GHG emissions premium for irregularity

description: In mitigating the effects of climate change, life cycle assessment (LCA) has been proposed as a design tool to facilitate the choice of structural typologies, materials and floor plan layouts for tall buildings. Existing studies that use LCA to compare alternative structural systems for tall buildings adopt symmetrical and regular plans, whereby their centres of mass, stiffness and strength coincide throughout the building height. Thus, existing comparative LCA studies of structural systems exclude torsionally unbalanced tall buildings. The aim of this paper is to demonstrate the detrimental influence of plan irregularity on the embodied greenhouse gas emissions (EGHGE) of structural systems for tall buildings. This influence is evaluated using three finite element models of structural systems with varying degrees of plan irregularity for a 15-storey building scenario. The eccentric placement of shear walls is amplified across the alternative structural designs for each scenario, yet the materials and typology are kept constant to isolate the influence of plan irregularity on the EGHGE of the structural systems. All three structural systems comprise reinforced concrete shear walls and a moment-resisting frame that consists of band beams, columns and one-way slabs. A hybrid life cycle inventory analysis method is used to quantify the EGHGE of the structural systems. The findings of this study provide an initial estimation of the EGHGE premium for plan irregularity and confirm the need to reduce and eliminate these irregularities in the aim of minimising the EGHGE of structural systems for tall buildings.
DOI: 10.26188/20218871.v3
title: Material quantities, embodied GHG emissions and structural drawings of 3 structural systems for a 15-storey tall building used to assess the embodied GHG emissions premium for irregularity

description: In mitigating the effects of climate change, life cycle assessment (LCA) has been proposed as a design tool to facilitate the choice of structural typologies, materials and floor plan layouts for tall buildings. Existing studies that use LCA to compare alternative structural systems for tall buildings adopt symmetrical and regular plans, whereby their centres of mass, stiffness and strength coincide throughout the building height. Thus, existing comparative LCA studies of structural systems exclude torsionally unbalanced tall buildings. The aim of this paper is to demonstrate the detrimental influence of plan irregularity on the embodied greenhouse gas emissions (EGHGE) of structural systems for tall buildings. This influence is evaluated using three finite element models of structural systems with varying degrees of plan irregularity for a 15-storey building scenario. The eccentric placement of shear walls is amplified across the alternative structural designs for each scenario, yet the materials and typology are kept constant to isolate the influence of plan irregularity on the EGHGE of the structural systems. All three structural systems comprise reinforced concrete shear walls and a moment-resisting frame that consists of band beams, columns and one-way slabs. A hybrid life cycle inventory analysis method is used to quantify the EGHGE of the structural systems. The findings of this study provide an initial estimation of the EGHGE premium for plan irregularity and confirm the need to reduce and eliminate these irregularities in the aim of minimising the EGHGE of structural systems for tall buildings.
DOI: 10.26188/20218871.v2
title: Material quantities, embodied GHG emissions and structural drawings of 3 structural systems for a 15-storey tall building used to assess the embodied GHG emissions premium for irregularity

description: In mitigating the effects of climate change, life cycle assessment (LCA) has been proposed as a design tool to facilitate the choice of structural typologies, materials and floor plan layouts for tall buildings. Existing studies that use LCA to compare alternative structural systems for tall buildings adopt symmetrical and regular plans, whereby their centres of mass, stiffness and strength coincide throughout the building height. Thus, existing comparative LCA studies of structural systems exclude torsionally unbalanced tall buildings. The aim of this paper is to demonstrate the detrimental influence of plan irregularity on the embodied greenhouse gas emissions (EGHGE) of structural systems for tall buildings. This influence is evaluated using three finite element models of structural systems with varying degrees of plan irregularity for a 15-storey building scenario. The eccentric placement of shear walls is amplified across the alternative structural designs for each scenario, yet the materials and typology are kept constant to isolate the influence of plan irregularity on the EGHGE of the structural systems. All three structural systems comprise reinforced concrete shear walls and a moment-resisting frame that consists of band beams, columns and one-way slabs. A hybrid life cycle inventory analysis method is used to quantify the EGHGE of the structural systems. The findings of this study provide an initial estimation of the EGHGE premium for plan irregularity and confirm the need to reduce and eliminate these irregularities in the aim of minimising the EGHGE of structural systems for tall buildings.
DOI: 10.6084/m9.figshare.19783498.v4
title: A comprehensive genomic and transcriptomic dataset of triple-negative breast cancers

description: Molecular subtyping of triple-negative breast cancer (TNBC) is essential for understanding the mechanisms and discovering actionable targets of this highly heterogeneous type of breast cancer. We previously performed a large single-center and multiomics study consisting of genomics, transcriptomics, and clinical information from 465 patients with primary TNBC. To facilitate reusing this unique dataset, we provided a detailed description of the dataset with special attention to data quality in this study. The multiomics data were generally of high quality, but a few sequencing data had quality issues and should be noted in subsequent data reuse. Furthermore, we reconduct data analyses with updated pipelines and the updated version of the human reference genome from hg19 to hg38. The updated profiles were in good concordance with those previously published in terms of gene quantification, variant calling, and copy number alteration. Additionally, we developed a user-friendly web-based database for convenient access and interactive exploration of the dataset. Our work will facilitate reusing the dataset, maximize the values of data and further accelerate cancer research.
DOI: 10.6084/m9.figshare.20218142.v1
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 58)

description: There are 17 files in this dataset. This is the 58th part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218142
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 58)

description: There are 17 files in this dataset. This is the 58th part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218184
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 61)

description: There are 17 files in this dataset. This is the 61st part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218184.v1
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 61)

description: There are 17 files in this dataset. This is the 61st part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218193
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 64)

description: There are 17 files in this dataset. This is the 64th part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218193.v1
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 64)

description: There are 17 files in this dataset. This is the 64th part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218187
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 62)

description: There are 17 files in this dataset. This is the 62nd part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218187.v1
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 62)

description: There are 17 files in this dataset. This is the 62nd part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218190
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 63)

description: There are 17 files in this dataset. This is the 63rd part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.
DOI: 10.6084/m9.figshare.20218190.v1
title: Polyp-canal reconstruction reveals evolution towards complexity in corals (Dataset Part 63)

description: There are 17 files in this dataset. This is the 63rd part of this dataset. The <em>A. millepora</em>, <em>A. muricata</em>,<em> C. vaughani</em>,<em> M. capricornis</em>, <em>M. foliosa</em>,<em> P. damicornis</em>, <em>P. meandrina</em>,<em> P. verrucosa</em>, and<em> S. pistillata</em> samples were collected from the Xisha Islands (2018); the <em>A. digitifera</em>, <em>F. speciosa </em>(2008), and<em> M. turgescens</em> (2017) samples were collected from the Nansha Islands; the <em>P. lutea</em> samples were collected from the Weizhou Islands (2017); the <em>G. fascicularis</em>, and<em> M. stellata </em>samples were collected from the Gaven Reef (2017); the <em>A. myriophthalma</em> samples were collected from the Reed Tablemount (2017); the <em>P. sinensis</em> samples were collected from the Subi Reef (2017). All samples, which occurred in large arborescent colonies forming thickets, were found in tropical shallow reefs of the marine neritic zone, from depths of about 5 to 10 m. The daily mean temperature was between 23.2 and 29.2°C. The coral samples were kept whole and housed in our laboratory coral tank, where all conditions were simulated to reflect those of their habitat in the South China Sea. These samples were kept in the tank for about one to three months before HRCT analysis.