cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.21227/4bzy-6527
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.
DOI: 10.1285/i11211156a33n1p207
title: Don Faustino Avagliano e i Convegni sul Medioevo meridionale (1982-1991): considerazioni storiografiche e ricordi personali
DOI: 10.1285/i11211156a33n1p9
title: Saggi - Parte I - Mercato e democrazia. Le sfide di Karl Polanyi
DOI: 10.1285/i11211156a33n1p217
title: La donna non ha diritto di voto? Una delicata questione di storia costituzionale nella Francia Rivoluzionaria (1788-1795)
DOI: 10.1285/i11211156a33n1p227
title: Gli abstracts
DOI: 10.1285/i11211156a33n1p135
title: Fonte
DOI: 10.1285/i11211156a33n1p235
title: Gli autori
DOI: 10.21227/1k61-mx51
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.
DOI: 10.1285/i11211156a33n1p137
title: Quale Stato triplice?
DOI: 10.21227/d37z-g635
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.
DOI: 10.7910/dvn/qe6eru/vmsdhk
title: AIMEnduse.gdx

description: :unav
DOI: 10.7910/dvn/qe6eru/mw1wmb
title: JPN_emf.gdx

description: :unav
DOI: 10.21227/655h-rk49
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.
DOI: 10.18154/rwth-2019-04072
title: Sample TMX-BoC 14 - Optical and SEM images - Dataset of the dissertation "Deformation properties of Boom Clay - Implementation of a multi-scale concept"

description: This dataset contains research data for the dissertation "Deformation properties of Boom Clay - Implementation of a multi-scale concept". This study investigates the development of the microstructure in triaxial tests on Boom Clay of the sample TMX-BoC 14. The sample was saturated but not deformed in the triaxial cell to investigate the influence of saturation on the microstructure. The dried and cut sample was then analysed by scanning electron microscopy (SEM) and optical microscopy. This archive contains files from the fields of optical imaging and SEM related to the sample TMX-BoC 14.
DOI: 10.18154/rwth-2019-04071
title: Sample TMX-BoC 13 - Loading data, X-ray images, DIC maps, Optical and SEM images - Dataset of the dissertation "Deformation properties of Boom Clay - Implementation of a multi-scale concept"

description: This dataset contains research data to the PhD thesis "Deformation properties of Boom Clay - Implementation of a multi-scale concept". This study examines the development of microstructure during triaxial tests on Boom Clay of sample TMX-BoC 13. The sample was loaded with Sigma1 parallel to the bedding up to 5% axial strain in triaxial CU tests. The deformation process was analysed by using in-situ X-ray scanning with a following Digital Image Correlation (DIC). The dried and cut sample was then analysed by using Scanning Electron Microscopy (SEM) and optical microscopy. This archive contains files gained from DIC, Loading test, optical imaging, SEM and X-ray imaging relating to sample TMX-BoC 13.
DOI: 10.18154/rwth-2019-04070
title: Sample TMX-BoC 12 - Loading data, X-ray images, DIC maps, Optical and SEM images - Dataset of the dissertation "Deformation properties of Boom Clay - Implementation of a multi-scale concept"

description: This dataset contains research data to the PhD thesis "Deformation properties of Boom Clay - Implementation of a multi-scale concept". This study examines the development of microstructure during triaxial tests on Boom Clay of sample TMX-BoC 12. The sample was loaded with Sigma1 normal to the bedding up to 5% axial strain in triaxial CU tests. The deformation process was analysed by using in-situ X-ray scanning with a following Digital Image Correlation (DIC). The dried and cut sample was then analysed by using Scanning Electron Microscopy (SEM) and optical microscopy. This archive contains files gained from DIC, Loading test, optical imaging, SEM and X-ray imaging relating to sample TMX-BoC 12.
DOI: 10.21227/2vt9-mz79
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.
DOI: 10.18154/rwth-2019-04061
title: Sample TMX-BoC 04 - Loading data, X-ray images, DIC maps, Optical and SEM images - Dataset of the dissertation "Deformation properties of Boom Clay - Implementation of a multi-scale concept"

description: This dataset contains research data to the PhD thesis "Deformation properties of Boom Clay - Implementation of a multi-scale concept". This study examines the development of microstructure during triaxial tests on Boom Clay of sample TMX-BoC 04. The sample was loaded with Sigma1 parallel to the bedding up to 12% axial strain in triaxial CU tests. The deformation process was analysed by using in-situ X-ray scanning with a following Digital Image Correlation (DIC). The dried and cut sample was then analysed by using Scanning Electron Microscopy (SEM) and optical microscopy. This archive contains files gained from DIC, Loading test, optical imaging, SEM and X-ray imaging relating to sample TMX-BoC 04.
DOI: 10.21227/x8yq-qd43
title: DPSSL-microscopy of polymer compositions based on polyethylene [10803-020] and gas-generating agent hydrocerol

description: Compositions on the basis of polyethylene (PE) of grade 10803-020 (Russia) were investigated. The particulate chemical gas-generating agent hydrocerol (hyd) of Hydroserol BIF brand with the starting decomposition temperature of 140°C, which is the mix of endothermic foaming agents, including sodium hydrogen carbonate, was used for creating the pore structure. The gaseous products of hydrocerol degradation are water vapor and carbon dioxide in equal proportions. It is assumed that the formed gas is distributed in the polymer melt in the form of meshes; in this case the tear of walls, fusion of meshes and formation of pores may take place.The following substances was used as the natural particulate fillers: wood flour (WF) of three fractions with the size of the particles up to 80, 14 and 200 μm; corn starch (st) of Hi Maize 1043 brand with the particle size of 100 μm. The elemental chemical composition of the wood flour is approximately the same for all wood species, namely wt %: carbon – 49 – 51%, oxygen – 43 – 44%, hydrogen – 6,0 – 6,4%, nitrogen – 0,1 – 0,03%. The main materials composing the wood are natural polymers: cellulose, lignin, hemicellulose. Wood flour is the waste of the woodworking and timber industry.The fillers are finely dispersed. They increase the number of defects in the matrix and thereby decrease the robustness of material against physical and impacts.The PE compositions with hydrocerol were obtained by mechanical mixing in the melt on laboratory micro-roll mills VK-6 (Russia) with the heating at 120°C. This method provides a quite uniform distribution of the filler in the polymer melt. The hydrocerol content in the test charge and compositions was 5 wt %. Mixing was performed until a uniform distribution of the hydrocerol particles in the polymer melt was attained. Introduction of the natural component was also performed on the rotating roll mills until a uniform distribution of the particles in the polymer melt was attained. The natural component content in the compositions was 15 or 30 wt %. Formulations of the compositions are given in the table below:Table – Formulations of investigated compositions№Composition1PE (test charge)2PE + 5%hyd (test charge)3PE + 5%hyd+15%WF(0-80)4PE + 5%hyd + 15%WF(0-140)5PE + 5%hyd + 15%WF(0-200)6PE + 5%hyd + 15%st7PE + 5%hyd + 30%WF(0-80)8PE + 5%hyd + 30%WF(0-140)9PE + 5%hyd + 30%WF(0-200)10PE + 5%hyd + 30%stAfter mixing, the viscous mass was removed from the roll mills and cooled at room temperature (20±2°C) down to hardening. Samples in the form of round plates were obtained by pressing in the form of a hardened chopped mass on a manual laboratory hydraulic press at 120°C without pressure. At the same time foaming was performed at 160°C – the temperature of more complete decomposition of hydrocerol.