Rehabilitation and restauration of the main façade of historical masonry building –Romanian National Opera Timisoara

Pescari, Simon; Budău, Laurențiu; Vîlceanu, Clara – Beatrice

doi:10.1016/j.cscm.2023.e01838

Cited by 8 publications

(5 citation statements)

References 34 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…✓ The articles consider a wet-type façade without an air gap [24][25][26]; ✓ The articles deal with the issue of thermal modernization and/or venting façades with heat-retaining phase transition materials [27][28][29]; ✓ The articles consider only a venting façade; a closed gap is not shown [30][31][32]; ✓ The articles deal with the issue of enclosing structures for only one climatic zone, i.e., hot or cold [33][34][35][36].…”

Section: Th Stage Correlating Generalizing and Reporting The Resultsmentioning

confidence: 99%

See 1 more Smart Citation

Multilayer External Enclosing Wall Structures with Air Gaps or Channels

Baidilla

Baibolov

2023

J. Compos. Sci.

View full text Add to dashboard Cite

Precise meanings of thermophysical processes taking place in air gaps have decisive importance in composite cladding structure systems’ calculation and modeling. The climatic load conditions in Kazakhstan can significantly affect the microclimate of premises in general. In this work, a review study is carried out to obtain the relevant scientific literature on enclosing structures with air gaps under various climatic conditions. The review mainly covers research institutes from Sweden, Norway, France, Saudi Arabia, Russia, and China. On the issue of the air gap parameter’s influence on thermophysical processes, 16 papers were analyzed, and on the issue of air infiltration, 12 papers were analyzed. However, the review shows a lack of research in this area under various climatic conditions. At the same time, experience has shown that the principle of multilayer protection from climatic influences creates a favorable microclimate in buildings, but due to a possible temperature drop, wall structures made of composite building materials can be quite favorable under some conditions, and under others they may be less favorable. Therefore, working out a new energy-saving design with air gaps for climatic conditions with large temperature fluctuations during summer and winter is an urgent task.

show abstract

Section: Th Stage Correlating Generalizing and Reporting The Resultsmentioning

confidence: 99%

“…The articles consider a wet-type façade without an air gap [24][25][26]; The articles deal with the issue of thermal modernization and/or venting façades with heat-retaining phase transition materials [27][28][29];…”

Section: Methodsmentioning

confidence: 99%

Multilayer External Enclosing Wall Structures with Air Gaps or Channels

Baidilla

Baibolov

2023

J. Compos. Sci.

View full text Add to dashboard Cite

show abstract

“…Therefore, a careful study is required, preceded by a stylistic and historical documentary analysis, on the state of structural degradation and architectural characteristics, aimed at integrating the architectural image with new materials, construction techniques and innovative technologies, such as reading and testimony of the pre-existences of the document, prepared for future restoration interventions with a new design and innovative technologies, with further museum purposes and enhancement of the architectural consistency of the monument [25], frescoes, sculptures, paintings, etc. For this purpose, digitalisation also represents an innovative technology in the practice of the restoration project on which the possible system integrations are based and with the museumisation and other uses of the restoration work which is well prepared for future work.…”

Section: Restoration For Sustainable Practicementioning

confidence: 99%

Innovation and Resilience in the Redevelopment, Restoration and Digitalisation Strategies of Architectural Heritage

MOCERINO

2024

Mediterranean Architectural Heritage

View full text Add to dashboard Cite

Abstract. The architectural heritage is the expression of the vast cultural heritage, as a set of cultural and landscape assets, of the different national or international territorialities, which indicates in the connective of the heterogeneous urban, rural and mountain landscape areas, an inestimable value of the monumental historical buildings. The various transformative factors of administrative management and socio-economic cultural type, monitored by quality and compatibility indicators, distinguish different realities over time, in which technological innovations prevail. The objectives are the valorisation and resilience of the architectural heritage at different scales, for the reduction of seismic vulnerability and prevention against natural disasters (floods, erosions, seismic risk, exposure to ultraviolet rays, etc.) and climate crisis, through a model operational that focuses on various innovative strategies that also guarantee an adaptive reuse with a view to sustainability. The intervention criteria on the historical monumental building are according to a project that distinguishes the historical/cultural values with the use of innovative technologies and energy efficiency with the use of innovative materials, for safety needs, fire resistance, integrability, appearance, etc. according to indicators of environmental sustainability and chemical/physical, dimensional, energetic compatibility, etc. with zero environmental impact. Both in line and in cooperation with ICCROM, UNESCO, UNFCCC, Paris Agreement, ICOMOS, New Technology, COP27 Cleantech, etc. The methodological approach is based on phases of documentary collection, mapping, cognitive analysis, cognitive analysis of the architectural heritage privileging the diagnostic aspect, on a meta-project with verification, interdisciplinarity, monitoring and control of the definitive project. Use of innovative smart non-invasive technologies with properties of durability, flexibility, mechanical resistance, thermal conductivity, etc. with nanobiotechnology, innovative materials such as fiberglass mesh and reinforcing bars, on the internal surfaces, socks of artificial micro steel strands for the consolidation and linking between the pre-existing and new walls, of pillars, columns, etc. Use of technologies, local construction techniques and indigenous materials for raw earth buildings, FRCM (Fibre/Fabric Reinforced Cementitious Matrix/Mortar), FRP (Fiber Reinforced Polymer) composites in epoxy or polyester resins with carbon fibers, glass, aramid and boron polymers, for reinforced concrete products, etc.360° video technology, for immersive use both for document management in the archive database and for interactively viewing reconstructed monuments etc., acquisition of 3D models with non-contact 3D scanning technology to preserve and transmit object data in the future. Redevelopment strategies with energy retrofit as part of urban regeneration, sustainable architectural restoration, recovery and consolidation also with a view to new digital reality (DR) and virtual reality (VR) IT strategies. Evaluation systems, analysis of degradation and instability with design, bioclimatic choices, etc. The challenge is to pass on to future generations a sustainable architectural heritage as a document of historical, architectural, artistic, archaeological, etc. value. of cultural heritage.

show abstract

“…Because of its widespread use and its non-invasive characteristic, IRT has benefited building diagnosis in general [33][34][35]. Concerning historical buildings, most of the papers are focused on walls and are mainly devoted to crack detection [36][37][38][39][40], health and structural state [41,42], as well as moisture, humidity, and rising dampness assessment [43][44][45][46][47]. When combined with other NDT techniques, IRT can provide a thorough understanding of architectural features, construction techniques, infills or previous openings, as well as back hypotheses on building phase constructions, due to the ability to detect different materials beneath the plaster coating [48,49].…”

Section: The Role Of Non-destructive Techniquesmentioning

confidence: 99%

An HBIM Integrated Approach Using Non-Destructive Techniques (NDT) to Support Energy and Environmental Improvement of Built Heritage: The Case Study of Palazzo Maffei Borghese in Rome

et al. 2023

View full text Add to dashboard Cite

Built heritage energy and environmental improvement is increasingly being recognised as a key driver in the fight against climate change. This effort necessitates a thorough understanding of the building to guide the selection of technologies and design solutions. To have a picture of the buildings’ characteristics and behaviour that is as complete as possible, in situ studies are essential, although the complexities and heterogeneities of historical buildings make these analyses still challenging, especially in professional practice. To address these issues, the paper describes an integrated approach including the field application of Non-Destructive Techniques (namely, Heat Flow Meter measurements, Infrared thermographies and indoor environmental monitoring) within a Heritage Building Information Modelling process. This interdisciplinary/integrated approach fostered the use of each type of analysis’s results to guide the subsequent analyses and incrementally deepen the knowledge of the building. The methodology was applied to a case study in the historical city centre of Rome in Italy. The analyses will be of service in developing dynamic building performance simulations to support the design of the interventions.

show abstract

Rehabilitation and restauration of the main façade of historical masonry building –Romanian National Opera Timisoara

Cited by 8 publications

References 34 publications

Multilayer External Enclosing Wall Structures with Air Gaps or Channels

Multilayer External Enclosing Wall Structures with Air Gaps or Channels

Innovation and Resilience in the Redevelopment, Restoration and Digitalisation Strategies of Architectural Heritage

An HBIM Integrated Approach Using Non-Destructive Techniques (NDT) to Support Energy and Environmental Improvement of Built Heritage: The Case Study of Palazzo Maffei Borghese in Rome

Contact Info

Product

Resources

About