Behavior of glulam timber beam strengthened with carbon fiber reinforced polymer strip for flexural loading

İşleyen, Ümmü Karagöz; Ghoroubı, Rahim; Mercimek, Ömer; Erdem, R. Tuğrul

doi:10.1177/0731684421997924

Cited by 14 publications

(6 citation statements)

References 28 publications

Supporting

Mentioning

Contrasting

Unclassified

Order By: Relevance

“…In this way, a load increase of 92% and a displacement increase of 14% were obtained compared to the reference sample. In many studies, the reinforcement of wooden beams with FRP layers (more than three layers) both reduces e ciency and increases costs [40,41,42]. It was observed that CFRP-reinforced wooden beams increase the load bearing capacity by more than 50% and exhibit a ductile behavior.…”

Section: Load-de Ection Curve Of Timber Beams Reinforced With Cfrp An...mentioning

confidence: 99%

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Composite Systems (CFRP and Wire Rope): An experimental study

OZDEMIR

Maraş

YURTSEVEN³

2023

Preprint

View full text Add to dashboard Cite

In this study, it was aimed to improve the mechanical properties of laminated timber beams by using Novel Composite Systems (Carbon Fiber Reinforced Polymer and Wire Rope). Reducing the cross-sectional area of the beam is important for the strength conditions required in large span systems with structural laminated wood material. Within the scope of this study, it is foreseen that the use of wood, which is an environmentally friendly and sustainable building element, will be made more economical and safe, instead of reinforced concrete and steel elements currently used to pass wide openings. Structural behavior of hybrid reinforced laminated timber beams was determined under the loading system. Experimental findings show that normal laminated timber beam (0N) has a maximum load of 14 kN and a deflection of 36 mm. On the other hand, the highest increase in the values of laminated beams reinforced with steel ropes was obtained with the (2N) reinforcement, with a maximum load of 38 kN and a displacement of 137mm. In this way, a load increase of 168% and a displacement increase of 275% compared to the reference sample were obtained. Since the steel rope-reinforced samples absorb the load, crack formation and transfer to the upper layers are prevented. 3F beam specimen reinforced with CFRP and steel ropes obtained maximum load of 28 kN and a displacement of 152 mm. Compared to the reference sample, a load increase of 92% and a displacement increase of 14% were obtained. Consequently, the fabrics placed between the layers with CFRP prevented crack development and provided a significant interlayer connection. It has been observed that the fiber composite-reinforced wooden beams increase the load bearing capacity by more than 50% and exhibit a ductile behavior. The carbon fabrics placed between the laminated wooden beams with the innovative reinforcement system will not both disrupt the aesthetics and will reduce the effect of earthquake forces, and significant reductions can be achieved in the sections.

show abstract

Section: Load-de Ection Curve Of Timber Beams Reinforced With Cfrp An...mentioning

confidence: 99%

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Composite Systems (CFRP and Wire Rope): An experimental study

OZDEMIR

Maraş

YURTSEVEN³

2023

Preprint

View full text Add to dashboard Cite

show abstract

“…In this way, a load increase of 92% and a displacement increase of 14% were obtained compared to the reference sample. In many studies, the reinforcement of wooden beams with FRP layers (more than threelayers) both reduces e ciency and increases costs [40,41,42]. It was observed that CFRP-reinforced wooden beams increase the load bearing capacity by more than 50% and exhibit a ductile behavior.…”

Section: 3load-de Ection Curve Of Timber Beams Reinforced With Cfrp A...mentioning

confidence: 99%

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Hybrid Composite Systems: An experimental study

OZDEMIR

Maraş

YURTSEVEN

2023

Preprint

View full text Add to dashboard Cite

In this study, it was aimed to improve the mechanical properties of laminated timber beams by using NovelHybrid Systems (Carbon Fiber Reinforced Polymer and Wire Rope). Reducing the cross-sectional area of the beam is important for the strength conditions required in large span systems with structural laminated wood material. Within the scope of this study, it is foreseen that the use of wood, which is an environmentally friendly and sustainable building element, will be made more economical and safe, instead of reinforced concrete and steel elements currently used to pass wide openings. Structural behavior of hybrid reinforced laminated timber beams was determined under the loading system.Experimental findings show that normal laminated timber beam (0N) has a maximum load of 14 kN and a deflection of 36 mm.On the other hand, the highest increase in the values of laminated beams reinforced with steel ropes was obtained with the (2N) reinforcement, with a maximum load of 38 kN and a displacement of 137mm.In this way, a load increase of 168% and a displacement increase of 275% compared to the reference sample were obtained. Since the steel rope-reinforced samples absorb the load, crack formation and transfer to the upper layers are prevented.3F beam specimen reinforced with CFRP and steel ropes obtained maximum load of 28 kN and a displacement of 152 mm. Compared to the reference sample, a load increase of 92% and a displacement increase of 14% were obtained. Consequently, the fabrics placed between the layers with CFRP prevented crack development and provided a significant interlayer connection.It has been observed that the fiber composite-reinforced wooden beams increase the load bearing capacity by more than 50% and exhibit a ductile behavior.The carbon fabrics placed between the laminated wooden beams with the innovative reinforcement system will not both disrupt the aesthetics and will reduce the effect of earthquake forces, and significant reductions can be achieved in the sections.

show abstract

“…Thus, a load increase of 92% and displacement increase of 14% were obtained compared with the reference sample. In many studies, reinforcing wooden beams with FRP layers (more than three layers) reduced efficiency and increased costs (İşleyen et al, 2021;Ling et al, 2020;Rescalvo et al, 2018a). It was observed that the CFRP-reinforced wooden beams increased the load-bearing capacity by more than 50% and exhibited ductile behavior.…”

Section: Load-deflection Curve Of Timber Beams Reinforced With Carbon...mentioning

confidence: 99%

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Hybrid Composite Systems: An Experimental Study

OZDEMIR,

MARAS,

YURTSEVEN

2023

J. Korean Wood Sci. Technol.

View full text Add to dashboard Cite

Since the early days of humanity, wood has been an important building material that meets the necessary structural needs using natural materials (Ramage et al., 2017). Because timber is an anisotropic material, it is difficult to obtain the desired cross-sectional dimensions of building elements (Akter and Bader, 2020;Kasal et al., 2003). Wood, a renewable material, is subjected to several processes after the tree is cut down in the forest until it can be used structurally (Asdrubali et al., 2015).These processes vary according to the location and purpose of the wood that will be used in the structure (Falk, 2009).

show abstract

Behavior of glulam timber beam strengthened with carbon fiber reinforced polymer strip for flexural loading

Cited by 14 publications

References 28 publications

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Composite Systems (CFRP and Wire Rope): An experimental study

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Composite Systems (CFRP and Wire Rope): An experimental study

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Hybrid Composite Systems: An experimental study

Flexural Behavior of Laminated Wood Beams Strengthened with Novel Hybrid Composite Systems: An Experimental Study

Contact Info

Product

Resources

About