Weinmann, Natalie (2021)
Hybride Intervention 2.
Bottino-Leone, Dario; Larcher, Marco; Troi, Alexandra; Grunewald, John (2021)
Construction and Building Materials 266.
DOI: 10.1016/j.conbuildmat.2020.121497
Andreotti, Mirco; Bottino-Leone, Dario; Calzolari, Marta; Davoli, Pietromaria; Pereira, Luisa Dias; Lucchi, Elena; Troi, Alexandra (2020)
Andreotti, Mirco; Bottino-Leone, Dario; Calzolari, Marta; Davoli, Pietromaria...
Energies 2020, 13, 3362.
DOI: 10.3390/en13133362
Weinmann, Natalie (2020)
Hybride Intervention 1.
Hao, Lingjun; Herrera-Avellanosa, Daniel; Del Pero, Claudio; Matiu, M.; Troi, Alexandra (2020)
Hao, Lingjun; Herrera-Avellanosa, Daniel; Del Pero, Claudio; Matiu, M....
ADAPT Northern Heritage Conference 2020.
Herrera-Avellanosa, Daniel; Dagmar , Exner; Haas, Franziska; Troi, Alexandra (2020)
Euro-American Congress REHABEND 2020, Granada, Spain.
Herrera-Avellanosa, Daniel; Haas, Franziska; Leijonhufvud, Gustaf; Broström, Tor; Webb, Amanda Laurel; Hüttler, Walter; Troi, Alexandra (2020)
Herrera-Avellanosa, Daniel; Haas, Franziska; Leijonhufvud, Gustaf; Broström, Tor...
Euro-American Congress REHABEND 2020, Granada, Spain.
Bottino-Leone, Dario; Larcher, Marco; Troi, Alexandra; Grunewald, John (2020)
SDEWES 2020 2020.
Hao, Lingjun; Herrera-Avellanosa, Daniel; Del Pero, Claudio; Troi, Alexandra (2019)
Climate 7 (12), 139.
DOI: 10.3390/cli7120139
Climate change imposes great challenges on the built heritage sector by increasing the risks of energy inefficiency, indoor overheating, and moisture-related damage to the envelope. Therefore, it is urgent to assess these risks and plan adaptation strategies for historic buildings. These activities must be based on a strong knowledge of the main building categories. Moreover, before adapting a historic building to future climate, it is necessary to understand how the past climate influenced its design, construction, and eventual categories. This knowledge will help when estimating the implication of climate change on historic buildings. This study aims at identifying building categories, which will be the basis for further risk assessment and adaptation plans, while at the same time analyzing the historical interaction between climate and human dwelling. The results show some correlations between building categories and climate. Therefore, it is necessary to use different archetypes to represent the typical buildings in different climate zones. Moreover, these correlations imply a need to investigate the capability of the climate-responsive features in future climate scenarios and to explore possible further risks and adaptation strategies.
Hao, Lingjun; Herrera-Avellanosa, Daniel; Troi, Alexandra; Petitta, M.; Matiu, M.; Del Pero, Claudio (2019)
Hao, Lingjun; Herrera-Avellanosa, Daniel; Troi, Alexandra; Petitta, M.; Matiu, M....
IOP Conference Series: Earth and Environmental Science, Volume 410, Sustainability in the built environment for climate change mitigation: SBE19 Thessaloniki 23–25 October 2019, Thessaloniki, Greece.
DOI: 10.1088/1755-1315/410/1/012050
Herrera-Avellanosa, Daniel; Haas, Franziska; Leijonhufvud, Gustaf; Brostrom, Tor; Buda, Alessia; Pracchi, Valeria; Webb, Amanda; Hüttler, Walter; Troi, Alexandra (2019)
Herrera-Avellanosa, Daniel; Haas, Franziska; Leijonhufvud, Gustaf; Brostrom, Tor...
International Journal of Building Pathology and Adaptation 38 (4), 539–553.
DOI: 10.1108/IJBPA-12-2018-0102
Purpose Improving the energy performance of historic buildings has the potential to reduce carbon emissions while protecting built heritage through its continued use. However, implementing energy retrofits in these buildings faces social, economic, and technical barriers. The purpose of this conceptual paper is to present the approach of IEA-SHC Task 59 to address some of these barriers. Design/methodology/approach Task 59 aims to achieve the lowest possible energy demand for historic buildings. This paper proposes a definition for this concept and identifies three key socio-technical barriers to achieving this goal: the decision-makers’ lack of engagement in the renovation of historic buildings, a lack of support during the design process and limited access to proven retrofit solutions. Two methods – dissemination of best-practice and guidelines – are discussed in this paper as critical approaches for addressing the first two barriers. Findings An assessment of existing databases indicates a lack of best-practice examples focused specifically on historic buildings and the need for tailored information describing these case studies. Similarly, an initial evaluation of guidelines highlighted the need for process-oriented guidance and its evaluation in practice. Originality/value This paper provides a novel definition of lowest possible energy demand for historic buildings that is broadly applicable in both practice and research. Both best-practices and guidelines are intended to be widely disseminated throughout the field.
Larcher, Marco; Troi, Alexandra; Demattio, Martina (2019)
Proceedings of Building Simulation 2019, 2.-4.9.2019 in Rome, Italy, 2634–2641.
DOI: 10.26868/25222708.2019.210411
Bottino-Leone, Dario; Larcher, Marco; Herrera-Avellanosa, Daniel; Haas, Franziska; Troi, Alexandra (2019)
Bottino-Leone, Dario; Larcher, Marco; Herrera-Avellanosa, Daniel; Haas, Franziska...
Energy 181, 521–531.
DOI: 10.1016/j.energy.2019.05.139
Penna, Paola; Stuffer, Oscar; Troi, Alexandra; Carí, Valentina (2019)
Applied Mechanics and Materials 887, 148–155.
DOI: 10.4028/www.scientific.net/AMM.887.148
What Americas Cup and a heritage building have in common They both aim at innovative technologies and cutting-edge solutions. The owner of the project, an ex-crew member of the most famous sailing match race in the world, pushed the planning team to develop extraordinary solutions for his house. The house, Villa Castelli, is an historical listed building located on the Como lake. During its history, it has been transformed many times, giving as results a non-uniform structure composed by different construction technologies. The aims of the owner were: an overall refurbishment particularly focused on energy efficiency, the exploitation of renewable energy sources based on-site production and a fixed budget. To reach these goals, the energy needs have been reduced improving the performance of the thermal envelope. Then, the building’s technical systems have been re-developed in order to exploit as much as possible available renewable energy sources. From the very beginning, it was clear that, for finding optimal solutions, a multidisciplinary approach was necessary. The design approach should be the result of a shared approach integrating different fields, such as creative design, technology, knowledge of material properties, building physics. The great synergy among building envelope retrofitting, innovative technological solutions and the deployment of renewable energy sources allows the transformation of this historical listed building into an outstanding example of a nearly zero energy building (nZEB).
Lucchi, Elena; Roberti, Francesca; Troi, Alexandra (2018)
Energy and Buildings 179, 99–111.
DOI: 10.1016/j.enbuild.2018.08.049
Research and development of high thermal insulation materials for the construction sector requires an accurate characterization of the wall's performance, since that is the main causes of thermal exchanges between the internal and external boundaries. This paper presents a test procedure developed within the EU Project EFFESUS for evaluating the steady-state thermal performance of a masonry wall. A large-scale mock-up of the inhomogeneous wall was tested in a guarded hot box (GHB) apparatus before and after the application of an aerogel-based material. The methodology proposed in this paper is structured in the following steps: (i) definition of the wall geometry and the percentage of stone and mortar, using walls’ photographic records and geometrical surveys; (ii) precise thermal characterization of the material used; (iii) hygrothermal assessment procedure based on infrared technology (IRT) survey, gravimetric test, and monitoring of the internal relative humidity (RH); (iv) steady-state and dynamic thermal simulation; and (v) detailed set-up of the test using the data retrieved from the thermal surveys and simulations. According to the results of IRT surveys and the dynamic simulations, the mock-up was divided into thermal homogeneous parts, verifying the uniformity of the surface temperature and the heat flux in an isothermal area. This approach was validated both for low and high energy performance walls. Results show that the thermal flux was reduced to one third after the application of the aerogel.
Exner, Dagmar; Larcher, Marco; Belleri, Annamaria; Troi, Alexandra; Haas, Franziska (2018)
Conference report: the 3rd International Conference on Energy Efficiency in Historic Buildings: [Visby, Sweden, September 26–27, 2018] / edited by Tor Broström, Lisa Nilsen and Susanna Carlsten.
Haas, Franziska; Herrera Avellanosa, Daniel; Hüttler, Walter; Exner, Dagmar; Troi, Alexandra (2018)
Haas, Franziska; Herrera Avellanosa, Daniel; Hüttler, Walter; Exner, Dagmar...
Conference report: the 3rd International Conference on Energy Efficiency in Historic Buildings: [Visby, Sweden, September 26–27, 2018] / edited by Tor Broström, Lisa Nilsen and Susanna Carlsten.
Hao, Lingjun; Herrera Avellanosa, Daniel; Troi, Alexandra (2018)
Conference report: the 3rd International Conference on Energy Efficiency in Historic Buildings: [Visby, Sweden, September 26–27, 2018] / edited by Tor Broström, Lisa Nilsen and Susanna Carlsten.
Leone, Dario; Larcher, Marco; Troi, Alexandra; Grunewald, John (2018)
Healthy, Intelligent and Resilient Buildings and Urban Environments. 7th International Building Physics Conference, 1401–1406.
DOI: 10.14305/ibpc.2018.ps20
Becherini, Francesca; Lucchi, Elena; Gandini, Alessandra; Barrasa, Maria; Troi, Alexandra; Roberti, Francesca; Sachini, Maria; Di Tuccio, Maria; Arrieta, Leire; Pockelé, Luc; Bernardi, Adriana (2018)
Becherini, Francesca; Lucchi, Elena; Gandini, Alessandra; Barrasa, Maria...
Building and Environment 134, 35–46.
DOI: 10.1016/j.buildenv.2018.02.034
Hochschule Coburg
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