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Ioannis Papantoniou

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Papers by Ioannis Papantoniou

Research paper thumbnail of Mechanical Behavior of Textile Reinforced Concrete (TRC) / Concrete Composite Elements

Journal of Advanced Concrete Technology, Feb 26, 2010

In this paper the response of composite structural elements cast against thin-walled stay-in-plac... more In this paper the response of composite structural elements cast against thin-walled stay-in-place (SiP) formwork elements made of Textile Reinforced Concrete (TRC) is experimentally investigated and analytically approached. TRC comprises an innovative composite material consisting of fabric meshes made of long fibre yarns (e.g carbon, glass, aramid or basalt) arranged in at least two (typically orthogonal) directions and embedded in a cementitious fine-grained matrix. Two types of reinforced concrete specimens were considered: the first one included 22 beam-type specimens incorporating flat TRC formworks, whereas the second included 11 prismatic column-type specimens cast into permanent precast TRC shafts. Moment and deflection values at first-crack, steel yielding (where applicable) and ultimate for the beam-type specimens were analytically derived based on a proposed simplified approximation of strain distribution across a fibre roving. Based on the results of this study SiP TRC formwork elements comprise an attractive system for hybrid construction practices.

Research paper thumbnail of Textile Reinforced Concrete (TRC) for precast Stay-in-Place formwork elements

New Solutions for our Society (Abstracts Book 314 pages + CD-ROM full papers 1196 pages), 2008

The main goal of the present study is to experimentally investigate the response of structural el... more The main goal of the present study is to experimentally investigate the response of structural elements cast against thin-walled stay-in-place formwork elements made of Textile Reinforced Concrete (TRC). TRC comprises an innovative composite material consisting of fabric meshes made of long woven, knitted or even unwoven fibre yarns (e.g. carbon, glass or aramid) in at least two (typically orthogonal) directions embedded in a cementitious matrix (mortar or fine-grained concrete). The experimental investigation described in this study was carried out on two types of reinforced concrete specimens: the first one included 22 beam-type specimens incorporating flatTRC stay-in-place formworks and the second one included 11 prismatic column-type specimens cast into permanent precast TRC shafts.

Research paper thumbnail of Optimum design of one way concrete slabs cast against Textile Reinforced Concrete Stay-in-Place Formwork Elements

Research paper thumbnail of Strengthening of two-way reinforced concrete slabs with Textile Reinforced Mortars (TRM)

Research paper thumbnail of Mechanical Behavior of Textile Reinforced Concrete (TRC) / Concrete Composite Elements

Journal of Advanced Concrete Technology, 2010

In this paper the response of composite structural elements cast against thin-walled stay-in-plac... more In this paper the response of composite structural elements cast against thin-walled stay-in-place (SiP) formwork elements made of Textile Reinforced Concrete (TRC) is experimentally investigated and analytically approached. TRC comprises an innovative composite material consisting of fabric meshes made of long fibre yarns (e.g carbon, glass, aramid or basalt) arranged in at least two (typically orthogonal) directions and embedded in a cementitious fine-grained matrix. Two types of reinforced concrete specimens were considered: the first one included 22 beam-type specimens incorporating flat TRC formworks, whereas the second included 11 prismatic column-type specimens cast into permanent precast TRC shafts. Moment and deflection values at first-crack, steel yielding (where applicable) and ultimate for the beam-type specimens were analytically derived based on a proposed simplified approximation of strain distribution across a fibre roving. Based on the results of this study SiP TRC formwork elements comprise an attractive system for hybrid construction practices.

Research paper thumbnail of Mechanical Behavior of Textile Reinforced Concrete (TRC) / Concrete Composite Elements

Journal of Advanced Concrete Technology, Feb 26, 2010

In this paper the response of composite structural elements cast against thin-walled stay-in-plac... more In this paper the response of composite structural elements cast against thin-walled stay-in-place (SiP) formwork elements made of Textile Reinforced Concrete (TRC) is experimentally investigated and analytically approached. TRC comprises an innovative composite material consisting of fabric meshes made of long fibre yarns (e.g carbon, glass, aramid or basalt) arranged in at least two (typically orthogonal) directions and embedded in a cementitious fine-grained matrix. Two types of reinforced concrete specimens were considered: the first one included 22 beam-type specimens incorporating flat TRC formworks, whereas the second included 11 prismatic column-type specimens cast into permanent precast TRC shafts. Moment and deflection values at first-crack, steel yielding (where applicable) and ultimate for the beam-type specimens were analytically derived based on a proposed simplified approximation of strain distribution across a fibre roving. Based on the results of this study SiP TRC formwork elements comprise an attractive system for hybrid construction practices.

Research paper thumbnail of Textile Reinforced Concrete (TRC) for precast Stay-in-Place formwork elements

New Solutions for our Society (Abstracts Book 314 pages + CD-ROM full papers 1196 pages), 2008

The main goal of the present study is to experimentally investigate the response of structural el... more The main goal of the present study is to experimentally investigate the response of structural elements cast against thin-walled stay-in-place formwork elements made of Textile Reinforced Concrete (TRC). TRC comprises an innovative composite material consisting of fabric meshes made of long woven, knitted or even unwoven fibre yarns (e.g. carbon, glass or aramid) in at least two (typically orthogonal) directions embedded in a cementitious matrix (mortar or fine-grained concrete). The experimental investigation described in this study was carried out on two types of reinforced concrete specimens: the first one included 22 beam-type specimens incorporating flatTRC stay-in-place formworks and the second one included 11 prismatic column-type specimens cast into permanent precast TRC shafts.

Research paper thumbnail of Optimum design of one way concrete slabs cast against Textile Reinforced Concrete Stay-in-Place Formwork Elements

Research paper thumbnail of Strengthening of two-way reinforced concrete slabs with Textile Reinforced Mortars (TRM)

Research paper thumbnail of Mechanical Behavior of Textile Reinforced Concrete (TRC) / Concrete Composite Elements

Journal of Advanced Concrete Technology, 2010

In this paper the response of composite structural elements cast against thin-walled stay-in-plac... more In this paper the response of composite structural elements cast against thin-walled stay-in-place (SiP) formwork elements made of Textile Reinforced Concrete (TRC) is experimentally investigated and analytically approached. TRC comprises an innovative composite material consisting of fabric meshes made of long fibre yarns (e.g carbon, glass, aramid or basalt) arranged in at least two (typically orthogonal) directions and embedded in a cementitious fine-grained matrix. Two types of reinforced concrete specimens were considered: the first one included 22 beam-type specimens incorporating flat TRC formworks, whereas the second included 11 prismatic column-type specimens cast into permanent precast TRC shafts. Moment and deflection values at first-crack, steel yielding (where applicable) and ultimate for the beam-type specimens were analytically derived based on a proposed simplified approximation of strain distribution across a fibre roving. Based on the results of this study SiP TRC formwork elements comprise an attractive system for hybrid construction practices.

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