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Frontiers of Structural and Civil Engineering

Front. Struct. Civ. Eng.    2019, Vol. 13 Issue (5) : 1243-1250
Finite element analysis of controlled low strength materials
Gildart Haase School of Computer Sciences & Engineering, Fairleigh Dickinson University, Teaneck, NJ 07666, USA
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Controlled low strength materials (CLSM) are flowable and self-compacting construction materials that have been used in a wide variety of applications. This paper describes the numerical modeling of CLSM fills with finite element method under compression loading and the bond performance of CLSM and steel rebar under pullout loading. The study was conducted using a plastic-damage model which captures the material behavior using both classical theory of elasto-plasticity and continuum damage mechanics. The capability of the finite element approach for the analysis of CLSM fills was assessed by a comparison with the experimental results from a laboratory compression test on CLSM cylinders and pullout tests. The analysis shows that the behavior of a CLSM fill while subject to a failure compression load or pullout tension load can be simulated in a reasonably accurate manner.

Keywords CLSM      finite element method      compressive strength      pullout      numerical modeling      plastic damage model     
Corresponding Author(s): Vahid ALIZADEH   
Just Accepted Date: 17 June 2019   Online First Date: 17 July 2019    Issue Date: 11 September 2019
 Cite this article:   
Vahid ALIZADEH. Finite element analysis of controlled low strength materials[J]. Front. Struct. Civ. Eng., 2019, 13(5): 1243-1250.
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Fig.1  Compression test setup and failure modes of CLSM cylinders.
ingredients quantity (kg/m3)
cement 45
fly ash (type F) 258
sand 1516
water 303
Tab.1  Mixture proportion for the selected CLSM fill
Fig.2  Pullout test setup.
Fig.3  Illustration of (a) yield surface and (b) dilation angle and eccentricity.
strain softening damage
stress (kPa) inelastic strain damage d inelastic strain
134.31 0.005950 0.000000 0.005950
155.47 0.006990 0.000000 0.006990
185.89 0.008970 0.000000 0.008970
204.17 0.010900 0.099494 0.010900
206.06 0.011400 0.130905 0.011400
205.85 0.011485 0.138025 0.011485
201.67 0.011900 0.182610 0.011900
181.49 0.012700 0.301814 0.012700
155.47 0.014000 0.445489 0.014000
102.27 0.017100 0.677447 0.017100
16.90 0.017100 0.894194 0.017100
1.350 0.017060 0.932936 0.017060
Tab.2  Material parameters for the compression strain softening and damage evolution response of the CLSM
Fig.4  Conical damage (a) at compressive strength; (b) at failure with fixed end conditions; (c) experimental conical failure.
Fig.5  Shear damage (a) at compressive strength; (b) at failure with one unconstrained end; (c) at failure with capped end conditions; (d) experimental shear failure.
Fig.6  Comparison of experimental and numerical stress-strain response of the CLSM, and the effect of dilation angle y and mesh size on numerical results.
Fig.7  Finite element mesh of pullout test.
Fig.8  Traction-separation behavior for shear bond contact.
Fig.9  Damage in the CLSM fill due to the pullout tension load.
Fig.10  Comparison of the experimental measurement with numerical results of pullout tests for different bar sizes.
1 ACI 229R. Controlled Low-Strength Materials. Farmington Hills, MI: American Concrete Institute, 2013
2 V Alizadeh. The sustainable application of fly ash in bridge abutments. Geo-Chicago 2016: Sustainable Materials and Resource Conservation, Geotechnical Special Publication (GSP), 2016, 272: 159–166
3 F T Najafi, M Tia. Use of accelerated flowable fill in pavement section. Final Report-Vol. 1. 2004
4 D Trejo, K J Folliard, L Du. Sustainable development using controlled low-strength material. In: Proceedings of International Workshop on Sustainable Development and Concrete Technology, 2004, 231–250
5 Y N Sheen, L J Huang, H Y Wang, D H Le. Experimental study and strength formulation of soil-based controlled low-strength material containing stainless steel reducing slag. Construction & Building Materials, 2014, 54: 1–9
6 M E Schmitz, R L Parsons, G Ramirez, Y Zhao. Use of controlled low-strength material as abutment backfill. Report No. K-TRAN: KU-02–6. 2004
7 A Blanco, P Pujadas, S Cavalaro, A Aguado. Methodology for the design of controlled low-strength materials application to the backfill of narrow trenches. Construction & Building Materials, 2014, 72: 23–30
8 F Amiri, C Anitescu, M Arroyo, S P A Bordas, T Rabczuk. XLME interpolants, a seamless bridge between XFEM and enriched meshless methods. Computational Mechanics, 2014, 53(1): 45–57
9 P Areias, T Rabczuk, P P Camanho. Finite strain fracture of 2D problems with injected anisotropic softening elements. Theoretical and Applied Fracture Mechanics, 2014, 72: 50–63
10 T Rabczuk, J Akkermann, J Eibl. A numerical model for reinforced concrete structures. International Journal of Solids and Structures, 2005, 42(5–6): 1327–1354
11 T Rabczuk, T Belytschko. A three-dimensional large deformation meshfree method for arbitrary evolving cracks. Computer Methods in Applied Mechanics and Engineering, 2007, 196(29–30): 2777–2799
12 T Rabczuk, T Belytschko. Application of particle methods to static fracture of reinforced concrete structures. International Journal of Fracture, 2006, 137(1–4): 19–49
13 T Rabczuk, T Belytschko. Cracking particles: A simplified meshfree method for arbitrary evolving cracks. International Journal for Numerical Methods in Engineering, 2004, 61(13): 2316–2343
14 T Rabczuk, G Zi, S Bordas, H Nguyen-Xuan. A simple and robust three-dimensional cracking-particle method without enrichment. Computer Methods in Applied Mechanics and Engineering, 2010, 199(37–40): 2437–2455
15 T Rabczuk, G Zi, S Bordas, H Nguyen-Xuan. A geometrically non-linear three-dimensional cohesive crack method for reinforced concrete structures. Engineering Fracture Mechanics, 2008, 75(16): 4740–4758
16 P Areias, M A Msekh, T Rabczuk. Damage and fracture algorithm using the screened Poisson equation and local remeshing. Engineering Fracture Mechanics, 2016, 158: 116–143
17 P Areias, T Rabczuk, D Dias-da-Costa. Element-wise fracture algorithm based on rotation of edges. Engineering Fracture Mechanics, 2013, 110: 113–137
18 P Areias, T Rabczuk. Steiner-point free edge cutting of tetrahedral meshes with applications in fracture. Finite Elements in Analysis and Design, 2017, 132: 27–41
19 S Sh Ghorashi, N Valizadeh, S Mohammadi, T Rabczuk. T-spline based XIGA for fracture analysis of orthotropic media. Computers & Structures, 2015, 147: 138–146
20 H Ren, X Zhuang, Y Cai, T Rabczuk. Dual-horizon peridynamics. International Journal for Numerical Methods in Engineering, 2016, 108(12): 1451–1476
21 H Ren, X Zhuang, T Rabczuk. Dual-horizon peridynamics: A stable solution to varying horizons. Computer Methods in Applied Mechanics and Engineering, 2017, 318: 762–782
22 Abaqus analysis user’s manual. Dassault Systèmes, Version 6.14, 2014
23 ASTM D4832. Standard Test Method for Preparation and Testing of Controlled Low Strength Material (CLSM) Test Cylinders. West Conshohocken, PA: American Society for Testing and Materials, 2010
24 J Lubliner, J Oliver, S Oller, E Oñate. A plastic-damage model for concrete. International Journal of Solids and Structures, 1989, 25(3): 299–326
25 J Lee, G Fenves. Plastic-damage model for cyclic loading of concrete structures. Journal of Engineering Mechanics, 1998, 124(8): 892–900
26 T Jankowiak, L Tomasz. Identification of parameters of concrete damaged plasticity constitutive model. Foundations of Civil and Environmental Engineering, 2005, 6: 53–69
27 S Mindess, J F Young, D Darwin. Concrete. Upper Saddle River, NJ: Pearson Education Inc., 2003
28 A Hillerborg, M Modéer, P E Petersson. Analysis of crack formation and crack growth in concrete by means of fracture mechanics and finite elements. Cement and Concrete Research, 1976, 6(6): 773–781
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