Mechanical and electrical properties of hydraulic lime pastes reinforced with carbon nanomaterials

Dimou, Angeliki-Eirini; Charalampidou, Christina-Margarita; Metaxa, Zoi S.; Kourkoulis, Stavros K.; Karatasios, Ioannis; Asimakopoulos, Georgios; Alexopoulos, Nikolaos D.

doi:10.1016/j.prostr.2020.10.144

Cited by 8 publications

(2 citation statements)

References 30 publications

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“…[153,155] Further work from Dimou et al showed no significant changes in the flexural strength due to the addition of GO, but an improvement in the compressive strength, which was reported to increase by 20-30% compared with the reference mortar. [156][157][158] Besides investigating these properties, Dorin et al proved that GO addition only slightly improves the adhesion of the modified mortar. In these studies on the influence of GO on the performance of natural hydraulic mortars, different concentrations of GO in different physical forms (aqueous dispersions or powder) have been tested.…”

Section: Loss Of Structural Integritymentioning

confidence: 99%

“…showed no significant changes in the flexural strength due to the addition of GO, but an improvement in the compressive strength, which was reported to increase by 20–30% compared with the reference mortar. [ 156–158 ] Besides investigating these properties, Dorin et al. proved that GO addition only slightly improves the adhesion of the modified mortar.…”

Section: Applications In Cultural Heritagementioning

confidence: 99%

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Present Status and Perspectives of Graphene and Graphene‐related Materials in Cultural Heritage

Galvagno,

Tartaglia,

Stratigaki

et al. 2024

Adv Funct Materials

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Cultural heritage faces recurring degradation processes and natural aging phenomena, demanding the envisioning of innovative preservation solutions inspired by cutting‐edge scientific research. Over extended time frames, current preservation strategies often prove inadequate in preserving the different constituent materials of cultural assets, which are thus threatened by their inherent fragility and by the complex interactions with the surrounding environment. The distinctive properties of graphene and graphene‐related materials (GRMs) now offer unexplored opportunities in the field of cultural heritage, addressing various forms of deterioration phenomena. This work critically analyzes early‐stage literature on the use of graphene and GRMs. Strengths, weaknesses, and limitations in anti‐corrosion, anti‐fading, and consolidation properties of graphene and GRMs are thoroughly investigated, along with their possible applications in smart sensors to monitor the state of health of endangered artifacts. The aim is to elucidate how specific characteristics of graphene and GRMs can be applied to the conservation, diagnostics, and monitoring of artistic and archaeological assets. Future perspectives in the design of stable, long‐lasting, and compatible graphene‐based solutions for cultural heritage protection are highlighted, providing a detailed discussion on potentials and pitfalls.

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