Usually, energy and structural improvements for historic masonry buildings are addressed separately using distinct methods and protocols. This paper covers an integrated assessment of new composite materials to reduce the seismic vulnerability of historic masonry buildings while complying with sustainable conservation requirements, emissions’ reduction, and energy savings. Firstly, this study focused on selecting suitable thermal mortars that could serve as the base material for the innovative composite. Subsequently, the mechanical characteristics of these mortars were examined by subjecting them to compressive and three-point bending tests. Dynamic thermo-hygrometric simulations were conducted using commercially available software to check the energy performance of the composite material when used on walls of existing masonry buildings. The thermal mortar that exhibited the most favorable mechanical and thermal properties was subsequently reinforced with a basalt fabric. A composite sample was assembled and subjected to direct tensile testing to determine its stress–strain behavior.

Innovative and Sustainable Composite Material for the Seismic and Energetic Upgrade of Historic Masonry Buildings / Pugliese Dora; Valerio Alecci; Rosa Romano; Gianfranco Stipo; Mario De Stefano; Antonio Nanni. - In: FIBERS. - ISSN 2079-6439. - ELETTRONICO. - 11:(2023), pp. 76.1-76.17. [10.3390/fib11090076]

Innovative and Sustainable Composite Material for the Seismic and Energetic Upgrade of Historic Masonry Buildings

Pugliese Dora
Writing – Original Draft Preparation
;
Valerio Alecci;Rosa Romano;Gianfranco Stipo;Mario De Stefano;Antonio Nanni
2023

Abstract

Usually, energy and structural improvements for historic masonry buildings are addressed separately using distinct methods and protocols. This paper covers an integrated assessment of new composite materials to reduce the seismic vulnerability of historic masonry buildings while complying with sustainable conservation requirements, emissions’ reduction, and energy savings. Firstly, this study focused on selecting suitable thermal mortars that could serve as the base material for the innovative composite. Subsequently, the mechanical characteristics of these mortars were examined by subjecting them to compressive and three-point bending tests. Dynamic thermo-hygrometric simulations were conducted using commercially available software to check the energy performance of the composite material when used on walls of existing masonry buildings. The thermal mortar that exhibited the most favorable mechanical and thermal properties was subsequently reinforced with a basalt fabric. A composite sample was assembled and subjected to direct tensile testing to determine its stress–strain behavior.
2023
11
1
17
Goal 7: Affordable and clean energy
Goal 11: Sustainable cities and communities
Goal 13: Climate action
Pugliese Dora; Valerio Alecci; Rosa Romano; Gianfranco Stipo; Mario De Stefano; Antonio Nanni
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Utilizza questo identificatore per citare o creare un link a questa risorsa: https://hdl.handle.net/2158/1328311
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