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Fiber-reinforced concrete. --- Glass fibers. --- Structural design. --- Engineering design --- Architectural design --- Strains and stresses --- Fiber glass --- Fiberglass --- Fibers, Glass --- Glass, Spun --- Spun glass --- Silicate fibers --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Fibrous composites --- Reinforced concrete
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Fiber reinforced polymer (FRP) composites are increasingly used to repair and extend the service life of ageing or damaged infrastructure, including metallic structures. This important book summarises key recent research in this area. The first part of the book looks at the use of FRP composites to repair components such as hollow steel sections and steel tension members as well as ways of assessing the durability and fatigue life of components. The second part of the book reviews applications of FRP to infrastructure such as steel bridges.Looks at the use of FRP composites to
Building materials -- Environmental aspects. --- Fiber-reinforced concrete. --- Fibrous composites. --- Reinforced concrete construction. --- Building, Iron and steel --- Fibrous composites --- Polymeric composites --- Civil & Environmental Engineering --- Engineering & Applied Sciences --- Environmental Engineering --- Civil Engineering --- Maintenance and repair --- Building materials --- Environmental aspects. --- Concrete construction --- Fiber composites --- Fiber-reinforced composites --- Filament reinforced composites --- Reinforced fibrous composites --- Composite materials --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Reinforced concrete
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The in situ rehabilitation or upgrading of reinforced concrete members using bonded steel plates is an effective, convenient and economic method of improving structural performance. However, disadvantages inherent in the use of steel have stimulated research into the possibility of using fibre reinforced polymer (FRP) materials in its place, providing a non-corrosive, more versatile strengthening system.This book presents a detailed study of the flexural strengthening of reinforced and prestressed concrete members using fibre reinforces polymer composite plates. It is based to a large
Fiber reinforced plastics. --- Reinforced concrete construction. --- Engineering --- Civil Engineering --- Concrete beams. --- Buildings, Reinforced concrete. --- Fibrous composites. --- Fiber-reinforced concrete. --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Fibrous composites --- Reinforced concrete --- Fiber composites --- Fiber-reinforced composites --- Filament reinforced composites --- Reinforced fibrous composites --- Composite materials --- Reinforced concrete buildings --- Reinforced concrete construction --- Beams, Concrete --- Concrete girders --- Reinforced concrete beams --- Concrete products --- Girders
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This book sheds light on the shear behavior of Fiber Reinforced Concrete (FRC) elements, presenting a thorough analysis of the most important studies in the field and highlighting their shortcomings and issues that have been neglected to date. Instead of proposing a new formula, which would add to an already long list, it instead focuses on existing design codes. Based on a comparison of experimental tests, it provides a thorough analysis of these codes, describing both their reliability and weaknesses. Among other issues, the book addresses the influence of flange size on shear, and the possible inclusion of the flange factor in design formulas. Moreover, it reports in detail on tests performed on beams made of concrete of different compressive strengths, and on fiber reinforcements to study the influence on shear, including size effects. Lastly, the book presents a thorough analysis of FRC hollow core slabs. In fact, although this is an area of great interest in the current research landscape, it remains largely unexplored due to the difficulties encountered in attempting to fit transverse reinforcement in these elements.
Materials Science. --- Structural Materials. --- Building Materials. --- Engineering Design. --- Engineering design. --- Building construction. --- Materials. --- Conception technique --- Matériaux --- Chemical & Materials Engineering --- Engineering & Applied Sciences --- Materials Science --- Fiber-reinforced concrete --- Shear (Mechanics) --- Cracking. --- Shear lag --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Materials science. --- Building materials. --- Structural materials. --- Deformations (Mechanics) --- Elasticity --- Strains and stresses --- Fibrous composites --- Reinforced concrete --- Design, Engineering --- Engineering --- Industrial design --- Engineering materials --- Industrial materials --- Engineering design --- Manufacturing processes --- Design --- Materials --- Architectural materials --- Architecture --- Building --- Building supplies --- Buildings --- Construction materials --- Structural materials
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The use of fiber-reinforced polymer (FRP) composite materials has had a dramatic impact on civil engineering techniques over the past three decades. FRPs are an ideal material for structural applications where high strength-to-weight and stiffness-to-weight ratios are required. Developments in fiber-reinforced polymer (FRP) composites for civil engineering outlines the latest developments in fiber-reinforced polymer (FRP) composites and their applications in civil engineering.Part one outlines the general developments of fiber-reinforced polymer (FRP) use, reviewing recent advancements
Building materials -- Environmental aspects. --- Fibres. --- Fibrous composites. --- Plant fibers. --- Reinforced plastics. --- Reinforced plastics --- Fibrous composites --- Fiber-reinforced concrete --- Reinforced concrete construction --- Chemical & Materials Engineering --- Engineering & Applied Sciences --- Materials Science --- Fiber-reinforced plastics. --- Fiber-reinforced concrete. --- Reinforced concrete construction. --- Fiber composites --- Fiber-reinforced composites --- Filament reinforced composites --- Reinforced fibrous composites --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Concrete construction --- Composite materials --- Reinforced concrete --- Polymeric composites. --- Civil engineering.
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This book outlines a methodology for producing macro recycled polypropylene (PP) fibres with optimal mechanical properties and illustrates the reinforcing effects of recycled PP fibres in concrete. It describes the great potential of using these fibres in concrete applications such as footpaths and precast elements. Further, it sheds new light on the environmental impacts of using recycled PP fibres, which are evaluated by means of cradle to gate life cycle assessment based on the Australian context. The use of recycled PP fibre not only helps reduce consumption of virgin materials like steel or plastic but also provides an attractive avenue for recycling plastic waste. The book will appeal to engineers, governments, and solid waste planners, and offers a valuable reference for the plastic waste recycling and plastic fibre reinforced concrete industries.
Materials science. --- Building materials. --- Structural materials. --- Ceramics. --- Glass. --- Composites (Materials). --- Composite materials. --- Materials Science. --- Ceramics, Glass, Composites, Natural Materials. --- Building Materials. --- Structural Materials. --- Fiber-reinforced concrete. --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Fibrous composites --- Reinforced concrete --- Building construction. --- Materials. --- Engineering --- Engineering materials --- Industrial materials --- Engineering design --- Manufacturing processes --- Materials --- Architectural materials --- Architecture --- Building --- Building supplies --- Buildings --- Construction materials --- Structural materials --- Composites (Materials) --- Multiphase materials --- Reinforced solids --- Solids, Reinforced --- Two phase materials --- Amorphous substances --- Ceramics --- Glazing --- Ceramic technology --- Industrial ceramics --- Keramics --- Building materials --- Chemistry, Technical --- Clay
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Concrete is still the most widely used construction material since it has the lowest ratio between cost and strength as compared to other available materials. However, it has two undesirable properties, namely: low tensile strength and large brittleness that cause the collapse to occur shortly after the formation of the first crack. To improve these two negative properties and to achieve a partial substitute of conventional reinforcement, an addition of short discontinuous randomly oriented steel fibres can be practiced among others. In spite of positive properties, fibrous concrete did not find such acknowledgment and application as usual concrete. There do not still exist consistent dimensioning rules due to the lack sufficient large-scale static and dynamic experiments taking into account the effect of the fibre orientation. The intention of the book is twofold: first to summarize the most important mechanical and physical properties of steel-fibre-added concrete and reinforced concrete on the basis of numerous experiments described in the scientific literature, and second to describe a quasi-static fracture process at meso-scale both in plain concrete and fibrous concrete using a novel discrete lattice model. In 2D and 3D simulations of fibrous concrete specimens under uniaxial tension, the effect of the fibre volume, fibre distribution, fibre orientation, fibre length, fibrous bond strength and specimen size on both the stress-strain curve and fracture process was carefully analyzed.
Mechanics, Applied. --- Reinforced concrete -- Mathematical models. --- Reinforced concrete -- Testing. --- Fibrous composites --- Chemical & Materials Engineering --- Civil & Environmental Engineering --- Mechanical Engineering --- Engineering & Applied Sciences --- Civil Engineering --- Materials Science --- Hydraulic Engineering --- Fiber-reinforced concrete. --- Steel, Structural. --- Structural steel --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Engineering. --- Geotechnical engineering. --- Mechanics. --- Engineering geology. --- Engineering --- Foundations. --- Hydraulics. --- Geoengineering, Foundations, Hydraulics. --- Geotechnical Engineering & Applied Earth Sciences. --- Theoretical and Applied Mechanics. --- Geology. --- Building materials --- Civil engineering --- Girders --- Building, Iron and steel --- Iron and steel bridges --- Iron, Structural --- Structural steel industry --- Reinforced concrete --- Hydraulic engineering. --- Mechanics, applied. --- Applied mechanics --- Engineering, Mechanical --- Engineering mathematics --- Engineering, Hydraulic --- Fluid mechanics --- Hydraulics --- Shore protection --- Engineering—Geology. --- Architecture --- Building --- Structural engineering --- Underground construction --- Caissons --- Earthwork --- Masonry --- Soil consolidation --- Soil mechanics --- Walls --- Geology, Economic --- Classical mechanics --- Newtonian mechanics --- Physics --- Dynamics --- Quantum theory --- Engineering, Geotechnical --- Geotechnics --- Geotechnology --- Engineering geology --- Flow of water --- Water --- Hydraulic engineering --- Jets --- Details --- Geology --- Flow --- Distribution
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Strain-Hardening Fibre-Reinforced Cement-Based Composites (SHCC) were named after their ability to resist increased tensile force after crack formation, over a significant tensile deformation range. The increased resistance is achieved through effective crack bridging by fibres, across multiple cracks of widths in the micro-range. Whether these small crack widths are maintained under sustained, cyclic or other load paths, and whether the crack width limitation translates into durability through retardation of ingress of moisture, gas and other deleterious matter, are scrutinized in this book by evaluation of test results from several laboratories internationally. The durability of SHCC under mechanical, chemical, thermal and combined actions is considered, both for the composite and the fibre types typically used in SHCC. The compilation of this state-of-the-art report has been an activity of the RILEM TC 208-HFC, Subcommittee 2: Durability, during the committee life 2005-2009.
Cement composites -- Fracture. --- Cement composites -- Service life. --- Concrete -- Testing. --- Fiber-reinforced concrete -- Fracture. --- Fiber-reinforced concrete -- Service life. --- Strain hardening -- Testing. --- Chemical & Materials Engineering --- Engineering & Applied Sciences --- Materials Science --- Fiber-reinforced concrete --- Cement composites --- Concrete --- Strain hardening --- Service life. --- Fracture. --- Testing. --- Hardening, Strain --- Work hardening --- Cementitious composites --- Fibrous concrete --- FRC (Fiber-reinforced concrete) --- Reinforced concrete, Fiber --- Engineering. --- Building materials. --- Building repair. --- Buildings --- Structural materials. --- Building Materials. --- Building Repair and Maintenance. --- Structural Materials. --- Repair and reconstruction. --- Metals --- Plasticity --- Stored energy of cold work --- Strains and stresses --- Strengthening mechanisms in solids --- Cement --- Composite materials --- Fibrous composites --- Reinforced concrete --- Cold working --- Hardenability --- Plastic properties --- Building construction. --- Materials. --- Engineering --- Engineering materials --- Industrial materials --- Engineering design --- Manufacturing processes --- Materials --- Buildings—Repair and reconstruction. --- Architectural materials --- Architecture --- Building --- Building supplies --- Construction materials --- Structural materials --- Building reconstruction --- Building renovation --- Building repair --- Reconstruction of buildings --- Remodeling of buildings --- Renovation of buildings --- Maintenance --- Repairing --- Reconstruction --- Remodeling --- Renovation --- Protection --- Conservation and restoration
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