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HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 476-478A Study on Engineering Properties of...

A Study on Engineering Properties of Self-Compacting Concrete Containing Waste LCD Glass

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Abstract:

This study investigates self-compacting glass concrete(SCGC), which was used at water-to-binder ratios (w/b) of 0.28, with four kinds of glass sand replaced at various volume replacement ratios (0%, 10%, 20%, and 30%). Fly ash, blast furnace slag and superplasticizer were also added to research the engineering properties of concrete. With increasing amounts of replacement up to 30%, results show that: (1) slump flow and V-funnel time are increased; (2) 340 mm is passed at 0min, and the filling level is elevated at 45 min; (3) the compressive strength of SCGC aged 28 days at various replacement ratios rises up to 60 MPa. The ultrasonic pulse velocity and electrical resistance are also enhanced with increasing age and replacement. After 56 days, the electric resistivity is higher than 20 KΩ-cm, and the shrinkage of SCGC falls within 0.2%. This study suggests than SCGC has superior engineering properties. A mechanism for LCD optical waste glass usage can be established to achieve industrial waste minimization, resource recycling, and economic security

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Periodical:

Advanced Materials Research (Volumes 476-478)

Pages:

2009-2013

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.476-478.2009

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Online since:

February 2012

Authors:

Her Yung Wang, Tung Tsan Chen, Chia Sheng Hsieh

Keywords:

Engineering Property, Recycled Utilization, Self-Compacting Glass Concrete (SCGC)

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] V. Corinaldesi and G. Moriconi: Cement and Concrete Research Vol.34 No.2 (2004), pp.249-254.

[2] C. Djelal, Y. Vanhove and A. Magnin: Cement and Concrete Research Vol.34 No.5 (2004), pp.821-828.

DOI: 10.1016/j.cemconres.2003.09.013

[3] H.H. Lin and G.H. Yao: Thin-Walled Structures Vol.42 No.9 (2004), pp.1357-1377.

[4] J.Y. Petit, E. Wirquin and B. Duthoit: Cement Concrete Composites Vol.35 No.2 (2005), pp.256-266.

[5] W. Zhu and J.C. Gibbs: Cement Concrete Research Vol.35 No.8 (2005), pp.1454-1462.

[6] M.C. Bignozzi and F. Sandrolini: Cement Concrete Research Vol.36 No.4 (2006), pp.735-739.

[7] M. Nehdi and M.Bassuoni: Limitations and research needs of self compacting concrete technology in the Arabian Gulf: a holistic view. The Annual Concrete Technology and Corrosion Protection Conference, Dubai, UAE, (2004).

[8] C.C. Tseng: Quality Magazine is published by the Chinese Society for Quality Vol.45 No.2 (2009), pp.48-52 (In Chinese).

[9] H.Y. Wang: Journal of Waste Management Vol.19 No.1 (2009), pp.335-341.

[10] G. Chen, H. Lee, K.L. Young, P.L. Yue, A. Wong, T. Tao and K.K. Choi: Waste Manage Vol.22 No.7 (2002), pp.747-753.

[11] M.J. Terro: Building Environ Vol.41 No.5 (2006), pp.633-639.

[12] A. Shayan and A. Xu: Cement Concrete Res Vol.36 No.3 (2006), pp.457-468.

[13] E.A. Byars, H.B. Morales and H.Y. Zhu: Concrete Vol.38 No.1 (2004), pp.41-4.

[14] C. Shi and Y. Wu, C. Riefler and H. Wang: Cement Concrete Res Vol.35 No.5 (2005), pp.987-993.

[15] Z. Xie and Y. Xi: Mater Struck Vol.35 No.8 (2002), pp.510-515.

[16] C. Meyer, N. Egosi and C. Andela: Concrete with waste glass as aggregate. In: Recycling and reuse of glass cullet. Proceedings of the international symposium, Concrete technology unit of ASCE and University of Dundee, March (2001).

[17] I.B. Topcu and C. Canbaz, Cement Concrete Compos Vol.34 No.2 (2004), pp.267-274.

[18] C.M. Sangha, A.M. Alani and P.J. Walden: Cement Concrete Res. Vol.56 No.5 (2004), pp.293-297.

[19] S.B. Park, B.C. Lee and J.H. Kim: Cement Concrete Res Vol.34 No.12 (2004), pp.2181-2189.

[20] H.Y. Wang and J.S. Chen: Journal Computers Concrete Vol.5 No.5 (2008), pp.491-501.

[21] W. Jin, C. Meyer and S. Baxter: ACI Materials Journal Vol.97 No.12 (2000), pp.208-13.

[22] J. T. Mohamad: Building and Environment Vol.41 No.5 (2006), pp.633-639.

[23] C.H. Chen, R. Huang, J. K. Wu and C.C. Yang: Cement Concrete Res Vol.36 No.3 (2006), pp.449-56.

[24] I.B. Topcu and M. Canbaz: Cement Concrete Res Vol.34 No.2 (2004), pp.267-74.

[25] H.H. Tzeng: Feasibility study on mixing waste liquid crystal glass in concrete, Master's thesis, National Kaohsiung University of Technology Kaohsiung, (2005) (In Chinese).

[26] C.S. Lam, C.S. Poon and D. Chan: Cement Concrete Compos Vol.29 No.8 (2007), pp.616-625.

[27] H.Y. Wang: Waste Management Vol.29 (2009), pp.335-341.

[28] M. Lachemi, K.M. Hossain, V. Lambros and N. Bouzoubaaˆ: ACI Mater J. Vol.100 No.5 (2003), pp.419-25.