A platform for research: civil engineering, architecture and urbanism
A platform for research: civil engineering, architecture and urbanism
Thermal properties of smart microencapsulated paraffin/plaster composites for the thermal regulation of buildings
https://orcid.org/0000-0002-7376-0508
Highlights Preparation of form-stable of plaster/microencapsulated paraffin composites. Measurement of thermophysical properties of plaster/paraffin using the periodic method. Experimental investigation of heat storage properties of plaster/paraffin composites. Test of the thermo-chemical stability of microencapsulated paraffin/plaster composites.
Abstract Smart plaster composites were manufactured by mixing plaster with different amounts of Micronal® DS5001X microcapsules containing a paraffin mixture with a melting point of 26°C to develop new construction materials with high thermal energy storage capacity for use in high-comfort constructive systems. Thermal characterization of smart plaster composites was performed using two different experimental techniques: thermal energy storage properties, such as latent heat and heat capacities, were investigated using a Transient Guarded Hot Plate Technique (TGHPT), whereas thermal conductivities and diffusivities were measured using a periodic temperature method. The results revealed an improvement in the latent heat and the heat capacities of the composites with increasing paraffin content in the composite. Furthermore, thermal conductivities and diffusivities decreased with increasing microencapsulated paraffin concentration.
Thermal properties of smart microencapsulated paraffin/plaster composites for the thermal regulation of buildings
https://orcid.org/0000-0002-7376-0508
Highlights Preparation of form-stable of plaster/microencapsulated paraffin composites. Measurement of thermophysical properties of plaster/paraffin using the periodic method. Experimental investigation of heat storage properties of plaster/paraffin composites. Test of the thermo-chemical stability of microencapsulated paraffin/plaster composites.
Abstract Smart plaster composites were manufactured by mixing plaster with different amounts of Micronal® DS5001X microcapsules containing a paraffin mixture with a melting point of 26°C to develop new construction materials with high thermal energy storage capacity for use in high-comfort constructive systems. Thermal characterization of smart plaster composites was performed using two different experimental techniques: thermal energy storage properties, such as latent heat and heat capacities, were investigated using a Transient Guarded Hot Plate Technique (TGHPT), whereas thermal conductivities and diffusivities were measured using a periodic temperature method. The results revealed an improvement in the latent heat and the heat capacities of the composites with increasing paraffin content in the composite. Furthermore, thermal conductivities and diffusivities decreased with increasing microencapsulated paraffin concentration.
Thermal properties of smart microencapsulated paraffin/plaster composites for the thermal regulation of buildings
https://orcid.org/0000-0002-7376-0508
Highlights Preparation of form-stable of plaster/microencapsulated paraffin composites. Measurement of thermophysical properties of plaster/paraffin using the periodic method. Experimental investigation of heat storage properties of plaster/paraffin composites. Test of the thermo-chemical stability of microencapsulated paraffin/plaster composites.
Abstract Smart plaster composites were manufactured by mixing plaster with different amounts of Micronal® DS5001X microcapsules containing a paraffin mixture with a melting point of 26°C to develop new construction materials with high thermal energy storage capacity for use in high-comfort constructive systems. Thermal characterization of smart plaster composites was performed using two different experimental techniques: thermal energy storage properties, such as latent heat and heat capacities, were investigated using a Transient Guarded Hot Plate Technique (TGHPT), whereas thermal conductivities and diffusivities were measured using a periodic temperature method. The results revealed an improvement in the latent heat and the heat capacities of the composites with increasing paraffin content in the composite. Furthermore, thermal conductivities and diffusivities decreased with increasing microencapsulated paraffin concentration.
Thermal properties of smart microencapsulated paraffin/plaster composites for the thermal regulation of buildings
Karkri, Mustapha (author) / Lachheb, Mohamed (author) / Albouchi, Fethi (author) / Nasrallah, Sassi Ben (author) / Krupa, Igor (author)
Energy and Buildings ; 88 ; 183-192
2014-11-25
10 pages
Article (Journal)
Electronic Resource
English
Thermal Properties of Low Melting Point Microencapsulated Paraffin Insulation Mortar
| British Library Online Contents | 2012
| British Library Online Contents | 2012