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Repurposed materials in construction: A review of low-processed scrap tires in civil engineering applications for disaster risk reduction
Highlights A review of low-processed scrap tires in civil engineering applications is presented. Retaining, seismic retrofitting, load bearing and drainage applications are discussed. Scrap tire is a cost-effective construction material. Low-tech scrap tire applications can be used in disaster risk reduction projects. The reviewed applications are particularly suitable for low-resource communities.
Abstract The mechanical properties of waste tires make them an interesting secondary raw material for a wide range of civil engineering applications. Employing whole scrap tires (WSTs) and low-processed scrap tires (LPSTs, i.e. scrap tires that have not been processed by industrial machineries) as a repurposed construction material is a high-value recovery option that requires less resources and energy than recycling. Researchers and practitioners around the world have been able to develop a significant number of innovative and promising WST and LPST applications, particularly for disaster risk reduction (DRR) projects and in vulnerable communities with limited resources. This paper provides a literature review of the current state of the art for the use of WST and LPST in civil engineering applications (CEAs) within the context of DRR. Four main categories of CEAs have been identified according to the primary function of the scrap tire applications presented: earth retaining structures, seismic retrofitting applications, load-bearing elements, and drainage systems. The available studies have been organized, classified and discussed in order to take stock of a heterogeneous field of research and highlight areas where further research is needed.
Repurposed materials in construction: A review of low-processed scrap tires in civil engineering applications for disaster risk reduction
Highlights A review of low-processed scrap tires in civil engineering applications is presented. Retaining, seismic retrofitting, load bearing and drainage applications are discussed. Scrap tire is a cost-effective construction material. Low-tech scrap tire applications can be used in disaster risk reduction projects. The reviewed applications are particularly suitable for low-resource communities.
Abstract The mechanical properties of waste tires make them an interesting secondary raw material for a wide range of civil engineering applications. Employing whole scrap tires (WSTs) and low-processed scrap tires (LPSTs, i.e. scrap tires that have not been processed by industrial machineries) as a repurposed construction material is a high-value recovery option that requires less resources and energy than recycling. Researchers and practitioners around the world have been able to develop a significant number of innovative and promising WST and LPST applications, particularly for disaster risk reduction (DRR) projects and in vulnerable communities with limited resources. This paper provides a literature review of the current state of the art for the use of WST and LPST in civil engineering applications (CEAs) within the context of DRR. Four main categories of CEAs have been identified according to the primary function of the scrap tire applications presented: earth retaining structures, seismic retrofitting applications, load-bearing elements, and drainage systems. The available studies have been organized, classified and discussed in order to take stock of a heterogeneous field of research and highlight areas where further research is needed.
Repurposed materials in construction: A review of low-processed scrap tires in civil engineering applications for disaster risk reduction
Lamour, Mathieu (author) / Cecchin, Andrea (author)
2021-04-12
Article (Journal)
Electronic Resource
English
CEA , civil engineering application , DRR , disaster risk reduction , EB , elastomeric bearing , ELT , end-of-life tire , ERS , earth retaining structure , ESS , externally stabilized structure , FEA , finite element analysis , FEM , finite element model , FHWA , U.S. Federal Highway Administration , FREI , fiber reinforcement elastomeric isolator , GRS , geosynthetic reinforced soil wall , GRW , gravity retaining wall , IP , in-plane , Kh , horizontal stiffness , Kv , vertical stiffness , ISS , internally stabilized structure , LPST , Low-processed scrap tires , MSEW , mechanically stabilized earth wall , OOP , out-of-plane , SCS , seismic control system , SIS , seismic isolation system , SREI , steel reinforcement elastomeric isolator , STC , STR chain , STP , scrap tire pad , STR , scrap tire ring , RSS , reinforced soil slope , RW , retaining wall , TDM , tire-derived material , TMD , tuned mass damper , U-FREI , unbonded FREI , URM , unreinforced masonry , WST , whole scrap tire , Scrap tire , End-of-life product , Disaster risk reduction , Earth retaining structure , Seismic performance , Unreinforced<hsp></hsp>masonry , Retrofitting , Seismic isolation , Low-tech , Circular economy
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