Durability of an Ultra High Performance Fiber Reinforced Concrete (UHPFRC) under progressive aging

We assess the durability of an Ultra High Performance Fiber Reinforced Concrete (UHPFRC) after accelerated aging, i.e. after partial drying, or 105°C oven-drying (dry reference state), 200, 300 or 400°C heat-treatment, or progressive splitting (Brazilian test). Our key experimental tool is gas perme...

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Veröffentlicht in:Cement and concrete research 2014-01, Vol.55, p.1-13
Hauptverfasser: Wang, Wei, Liu, Jian, Agostini, Franck, Davy, Catherine A., Skoczylas, Frédéric, Corvez, Dominique
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container_end_page 13
container_issue
container_start_page 1
container_title Cement and concrete research
container_volume 55
creator Wang, Wei
Liu, Jian
Agostini, Franck
Davy, Catherine A.
Skoczylas, Frédéric
Corvez, Dominique
description We assess the durability of an Ultra High Performance Fiber Reinforced Concrete (UHPFRC) after accelerated aging, i.e. after partial drying, or 105°C oven-drying (dry reference state), 200, 300 or 400°C heat-treatment, or progressive splitting (Brazilian test). Our key experimental tool is gas permeability Kgas under varying confinement Pc, coupled to MIP and SEM analysis. UHPFRC properties are compared to standard mortar and ordinary concrete. Whereas usual UHPFRCs involve pozzolanic additions and thermal curing, this UHPFRC does not, and is significantly more porous (by 9–10%). However, 74% of its porosity comprises pores smaller than 4nm, i.e. located within the C–S–H. Dry reference state UHPFRC lies in the range of very high durable materials, with an average Kgas=10−18m2. Damage by heat-treatment at 400°C induces limited de-bonding at the fiber/paste interface, which increases Kgas up to 10−17m2 at Pc=6MPa. While sustaining more than 300μm/m tensile strain, Kgas of UHPFRC remains virtually identical. •Gas permeability is used to assess durability of a UHPFRC after accelerated aging.•Dry gas permeability of UHPFRC (10–18 m2) places it in the very high durability range.•400°C heat-treated UHPFRC displays limited de-bonding at the fiber/paste interface.•400°C heat-treated UHPFRC is still placed within very high durability range, Kgas= 10–17 m2.•Brazilian splitting leads to 360μm/m diametral strain, but low Kgas is preserved.
doi_str_mv 10.1016/j.cemconres.2013.09.008
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Our key experimental tool is gas permeability Kgas under varying confinement Pc, coupled to MIP and SEM analysis. UHPFRC properties are compared to standard mortar and ordinary concrete. Whereas usual UHPFRCs involve pozzolanic additions and thermal curing, this UHPFRC does not, and is significantly more porous (by 9–10%). However, 74% of its porosity comprises pores smaller than 4nm, i.e. located within the C–S–H. Dry reference state UHPFRC lies in the range of very high durable materials, with an average Kgas=10−18m2. Damage by heat-treatment at 400°C induces limited de-bonding at the fiber/paste interface, which increases Kgas up to 10−17m2 at Pc=6MPa. 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Our key experimental tool is gas permeability Kgas under varying confinement Pc, coupled to MIP and SEM analysis. UHPFRC properties are compared to standard mortar and ordinary concrete. Whereas usual UHPFRCs involve pozzolanic additions and thermal curing, this UHPFRC does not, and is significantly more porous (by 9–10%). However, 74% of its porosity comprises pores smaller than 4nm, i.e. located within the C–S–H. Dry reference state UHPFRC lies in the range of very high durable materials, with an average Kgas=10−18m2. Damage by heat-treatment at 400°C induces limited de-bonding at the fiber/paste interface, which increases Kgas up to 10−17m2 at Pc=6MPa. While sustaining more than 300μm/m tensile strain, Kgas of UHPFRC remains virtually identical. •Gas permeability is used to assess durability of a UHPFRC after accelerated aging.•Dry gas permeability of UHPFRC (10–18 m2) places it in the very high durability range.•400°C heat-treated UHPFRC displays limited de-bonding at the fiber/paste interface.•400°C heat-treated UHPFRC is still placed within very high durability range, Kgas= 10–17 m2.•Brazilian splitting leads to 360μm/m diametral strain, but low Kgas is preserved.</abstract><cop>Kidlington</cop><pub>Elsevier Ltd</pub><doi>10.1016/j.cemconres.2013.09.008</doi><tpages>13</tpages></addata></record>
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source Elsevier ScienceDirect Journals
subjects Aging (C)
Applied sciences
Bending strength (C)
Brazil
Buildings. Public works
Cements
Concretes
Concretes. Mortars. Grouts
Construction works
Curing
Drying ovens
Durability
Durability (C)
Exact sciences and technology
Fiber reinforced concretes
Fiber reinforcement (E)
Fibre reinforced concrete (including asbestos cement)
Formworks
Heat treatment
High performance concrete (E)
Materials
Mortars
Other special applications (sand concrete, roller compacted concrete, heavy concrete, architectural concrete, etc.)
Permeability (C)
Porosity
Strength of materials (elasticity, plasticity, buckling, etc.)
Structural analysis. Stresses
Sustaining
title Durability of an Ultra High Performance Fiber Reinforced Concrete (UHPFRC) under progressive aging
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