Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials
In this paper the mechanical characteristics of an innovative bioplastic material, the HBP® -HempBioPlastic® filament, is investigated. HBP® was recently patented by an Italian company Kanésis that focused its activity on nature-derived materials. The filaments are the upshot of an original process...
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Online Access: | https://doi.org/10.1515/cls-2021-0019 |
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doaj-95651a345c764c5a9a915d260a28380c2021-10-03T07:42:29ZengDe GruyterCurved and Layered Structures2353-73962021-05-018119620910.1515/cls-2021-0019Design of a modular exhibition structure with additive manufacturing of eco-sustainable materialsInvernizzi Stefano0Bertetto Amedeo Manuello1Ciaccio Federico2Nicola Paolo3Department of Structural, Geotechnical and Building Engineering, Politecnico di Torino – Torino, ItalyDepartment of Structural, Geotechnical and Building Engineering, Politecnico di Torino – Torino, ItalyDepartment of Structural, Geotechnical and Building Engineering, Politecnico di Torino – Torino, ItalyLaboo s.r.l., Via Municipio, 165, 95045 Misterbianco (CT) - Italy. Via Mignano 26 – Solagna (Vi), ItalyIn this paper the mechanical characteristics of an innovative bioplastic material, the HBP® -HempBioPlastic® filament, is investigated. HBP® was recently patented by an Italian company Kanésis that focused its activity on nature-derived materials. The filaments are the upshot of an original process allowing to reuse the surplus of the agricultural supply chains and transform it into new sustainable materials. At first, the 3D printed HBP® samples were tested in tensile tests according to the ASTMD638 standard and monitored in term of deformations by the Digital Image Correlation techniques (DIC) in order to evaluate the stress-strain behavior of different HBP® textures under loading. In addition, using the HBP® and the results coming from the experimental campaign, the design of an exhibition pavilion was proposed. The pavilion was modelled starting from the geometric construction of the fullerene. The supporting modular structure is combined by HBP® modular elements, that can be produced by 3D printing or moulding. Finally, in order to demonstrate the feasibility of the proposed pavilion, a linear finite element analysis is presented on the base of the experimentally determined mechanical properties of HBP® elements, under the effects of wind and seismic environmental actions.https://doi.org/10.1515/cls-2021-0019hemp bio plasticadditive manufacturingfused depositionmodellinggreen building |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Invernizzi Stefano Bertetto Amedeo Manuello Ciaccio Federico Nicola Paolo |
spellingShingle |
Invernizzi Stefano Bertetto Amedeo Manuello Ciaccio Federico Nicola Paolo Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials Curved and Layered Structures hemp bio plastic additive manufacturing fused deposition modelling green building |
author_facet |
Invernizzi Stefano Bertetto Amedeo Manuello Ciaccio Federico Nicola Paolo |
author_sort |
Invernizzi Stefano |
title |
Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
title_short |
Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
title_full |
Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
title_fullStr |
Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
title_full_unstemmed |
Design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
title_sort |
design of a modular exhibition structure with additive manufacturing of eco-sustainable materials |
publisher |
De Gruyter |
series |
Curved and Layered Structures |
issn |
2353-7396 |
publishDate |
2021-05-01 |
description |
In this paper the mechanical characteristics of an innovative bioplastic material, the HBP® -HempBioPlastic® filament, is investigated. HBP® was recently patented by an Italian company Kanésis that focused its activity on nature-derived materials. The filaments are the upshot of an original process allowing to reuse the surplus of the agricultural supply chains and transform it into new sustainable materials. At first, the 3D printed HBP® samples were tested in tensile tests according to the ASTMD638 standard and monitored in term of deformations by the Digital Image Correlation techniques (DIC) in order to evaluate the stress-strain behavior of different HBP® textures under loading. In addition, using the HBP® and the results coming from the experimental campaign, the design of an exhibition pavilion was proposed. The pavilion was modelled starting from the geometric construction of the fullerene. The supporting modular structure is combined by HBP® modular elements, that can be produced by 3D printing or moulding. Finally, in order to demonstrate the feasibility of the proposed pavilion, a linear finite element analysis is presented on the base of the experimentally determined mechanical properties of HBP® elements, under the effects of wind and seismic environmental actions. |
topic |
hemp bio plastic additive manufacturing fused deposition modelling green building |
url |
https://doi.org/10.1515/cls-2021-0019 |
work_keys_str_mv |
AT invernizzistefano designofamodularexhibitionstructurewithadditivemanufacturingofecosustainablematerials AT bertettoamedeomanuello designofamodularexhibitionstructurewithadditivemanufacturingofecosustainablematerials AT ciacciofederico designofamodularexhibitionstructurewithadditivemanufacturingofecosustainablematerials AT nicolapaolo designofamodularexhibitionstructurewithadditivemanufacturingofecosustainablematerials |
_version_ |
1716846124006899712 |