Hostname: page-component-cd9895bd7-dzt6s Total loading time: 0 Render date: 2024-12-28T05:13:10.395Z Has data issue: false hasContentIssue false
  • English
  • Français

Numerical Assessment of Compressive Deformation in Metal-Ceramic Multilayer Micro-Pillars

Published online by Cambridge University Press:  30 October 2017

G. Tang  and
Y. L. Shen
G. Tang*
Affiliation:
College of Materials Science and Engineering Shenzhen Key Laboratory of Polymer Science and Technology Guangdong Research Center for Interfacial Engineering of Functional Materials Nanshan District Key Lab for Biopolymers and Safety Evaluation Shenzhen University Shenzhen, China Key Laboratory of Optoelectronic Devices and System of Ministry of Education and Guangdong Province College of Optoelectronic Engineering Shenzhen University Shenzhen, China
Y. L. Shen
Affiliation:
Department of Mechanical Engineering University of New Mexico Albuquerque, USA
*
*Corresponding author (gltang@szu.edu.cn.)
Get access

Abstract

A numerical study was undertaken to investigate the mechanical properties of metal-ceramic multilayer micro-pillars under compression. The model system contains alternating layers of aluminum (Al) and silicon carbide (SiC) above a thick silicon (Si) substrate. The finite element analyses show that the pillar deformed in a non-uniform manner under compression, especially when a tapered side wall was included in the model. The heterogeneous feature of the structure plays a significant role in influencing the apparent stress-strain response. The elastic property of the pillar compares favorably with the true composite modulus, but a large discrepancy was found in the plastic response. The difference in deformation behavior between homogeneous pillars and multilayer pillars, along with other geometric effects, were examined in detail.

Keywords

Metal/ceramic laminatesMicro-pillarMicro-compressionFinite element simulation
Type
Research Article
Information
Journal of Mechanics , Volume 35 , Issue 2 , April 2019 , pp. 199 - 207
Copyright
© The Society of Theoretical and Applied Mechanics 2017 

Access options

Get access to the full version of this content by using one of the access options below. (Log in options will check for institutional or personal access. Content may require purchase if you do not have access.)

References

REFERENCES

Misra, A., Kung, H., Hammon, D., Hoagland, R. G. and Nastasi, M., “Damage Mechanisms in Nanolayered Metallic Composites,” International Journal of Damage Mechanics, 12, pp. 365–376 (2003).Google Scholar
Shinn, M., Hultman, L. and Barnett, S. A., “Growth, Structure, and Microhardness of Epitaxial Tin/Nbn Superlattices,” Journal of Materials Research, 7, pp. 901–911 (1992).Google Scholar
Wiklund, U., Hedenqvist, P. and Hogmark, S., “Multilayer Cracking Resistance in Bending,” Surface and Coatings Technology, 97, pp. 773–778 (1997).Google Scholar
Misra, A., Hirth, J. P. and Hoagland, R. G., “Length-Scale-Dependent Deformation Mechanisms in Incoherent Metallic Multilayered Composites,” Acta Materialia, 53, pp. 4817–4824 (2005).Google Scholar
Tjong, S. C. and Chen, H., “Nanocrystalline Materials and Coatings,” Materials Science & Engineering R-Reports, 45, pp. 1–88 (2004).Google Scholar
Mayrhofer, P. H., Mitterer, C., Hultman, L. and Clemens, H., “Microstructural Design of Hard Coatings,” Progress in Materials Science, 51, pp. 1032–1114 (2006).Google Scholar
Chawla, N., “Metal Matrix Composites in Automotive Applications,” Advanced Materials & Processes, 164, pp. 29–31 (2006).Google Scholar
Chawla, N. and Chawla, K. K., “Metal-Matrix Composites in Ground Transportation,” The Journal of The Minerals, Metals & Materials Society, 58, pp. 67–70 (2006).Google Scholar
Chawla, N. and Ganesh, V. V., “Fatigue Crack Growth of SiC Particle Reinforced Metal Matrix Composites,” International Journal of Fatigue, 32, pp. 856–863 (2010).Google Scholar
Williams, J. J., Segurado, J., LLorca, J. and Chawla, N., “Three Dimensional (3D) Microstructure-Based Modeling of Interfacial Decohesion in Particle Reinforced Metal Matrix Composites,” Materials Science and Engineering a-Structural Materials Properties Microstructure and Processing, 557, pp. 113–118 (2012).Google Scholar
Gouldstone, A. et. al., “Indentation Across Size Scales and Disciplines: Recent Developments in Experimentation and Modeling,” Acta Materialia, 55, pp. 4015–4039 (2007).Google Scholar
Tang, G., Shen, Y. L., Singh, D. R. P. and Chawla, N., “Indentation Behavior of Metal-Ceramic Multilayers at the Nanoscale: Numerical Analysis and Experimental Verification,” Acta Materialia, 58, pp. 2033–2044 (2010).Google Scholar
Singh, D. R. P. et al., “Residual Stress Characterization of Al/SiC Nanoscale Multilayers Using X-Ray Synchrotron Radiation,” Thin Solid Films, 519, pp. 759–765 (2010).Google Scholar
Li, Y. P. et al., “Comparative Investigation of Strength and Plastic Instability in Cu/Au and Cu/Cr Multilayers by Indentation,” Journal of Materials Research, 24, pp. 728–735 (2009).Google Scholar
Zhang, H. T. et al., “In Situ Mechanical Characterization of CoCrCuFeNi High-Entropy Alloy Micro/ Nano-Pillars for Their Size-Dependent Mechanical Behavior,” Materials Research Express, 3 (2016).Google Scholar
Choi, W. S., De Cooman, B. C., Sandlobes, S. and Raabe, D., “Size and Orientation Effects in Partial Dislocation-Mediated Deformation of Twinning-Induced Plasticity Steel Micro-Pillars,” Acta Materialia, 98, pp. 391–404 (2015).Google Scholar
Xiao, Y. et al., “Investigation of the Deformation Behavior of Aluminum Micropillars Produced by Focused Ion Beam Machining Using Ga and Xe Ions,” Scripta Materialia, 127, pp. 191–194 (2017).Google Scholar
Shan, Z. W., Mishra, R. K., Syed Asif, S. A., Warren, O. L. and Minor, A. M., “Mechanical Annealing and Source-Limited Deformation in Submicrometre-Diameter Ni Crystals,” Nature Materials, 7, pp. 115–119 (2008).Google Scholar
Davydok, A. et al., “Analysis of the Full Stress Tensor in a Micropillar: Ability of and Difficulties Arising during Synchrotron Based mu Laue Diffraction,” Materials & Design, 108, pp. 68–75 (2016).Google Scholar
Greer, J. R. and Nix, W. D., “Nanoscale Gold Pillars Strengthened through Dislocation Starvation,” Physical Review B, 73, 245410 (2006).Google Scholar
Liu, M. C. et al., “Assessing the Interfacial Strength of an Amorphous-Crystalline Interface,” Acta Materialia, 61, pp. 3304–3313 (2013).Google Scholar
Guo, X. L. et al., “Interfacial Strength and Deformation Mechanism of SiC-Al Composite Micro-Pillars,” Scripta Materialia, 114, pp. 56–59 (2016).Google Scholar
Schoeppner, R. L. et al., “Coherent Interfaces Increase Strain-Hardening Behavior in Tri-Component Nano-Scale Metallic Multilayer Thin Films,” Materials Research Letters, 3, pp. 114–119 (2015).Google Scholar
Wang, J. T., Yang, C. H. and Hodgson, P. D., “Extrinsic Size Effect in Microcompression of Polycrystalline Cu/Fe Multilayers,” Scripta Materialia, 69, pp. 626–629 (2013).Google Scholar
Zhang, J. Y. et al., “Length Scale-Dependent Deformation Behavior of Nanolayered Cu/Zr Micropillars,” Acta Materialia, 60, pp. 1610–1622 (2012).Google Scholar
Mayer, C. R. et al., “Anisotropy, Size, and Aspect Ratio Effects on Micropillar Compression of Al-SiC Nanolaminate Composites,” Acta Materialia, 114, pp. 25–32 (2016).Google Scholar
Dayal, P., Quadir, M. Z., Kong, C., Savvides, N. and Hoffman, M., “Transition from Dislocation Controlled Plasticity to Grain Boundary Mediated Shear in Nanolayered Aluminum/Palladium Thin Films,” Thin Solid Films, 519, pp. 3213–3220 (2011).Google Scholar
Mayer, C. R., Molina-Aladareguia, J. and Chawla, N., “Three Dimensional (3D) Microstructure-Based Finite Element Modeling of Al-SiC Nanolaminates Using Focused Ion Beam (FIB) Tomography,” Materials Characterization, 120, pp. 369–376 (2016).Google Scholar
Tang, G., Singh, D. R. P., Shen, Y. L. and Chawla, N., “Elastic Properties of Metal-Ceramic Nanolaminates Measured by Nanoindentation,” Materials Science and Engineering a-Structural Materials Properties Microstructure and Processing, 502, pp. 79–84 (2009).Google Scholar
Tang, G. and Shen, Y. L., “Analysis of Indentation-Derived Effective Elastic Modulus of Metal-Ceramic Multilayers,” International Journal of Mechanics and Materials in Design, 4, pp. 391–398 (2008).Google Scholar
Lotfian, S. et al., “High Temperature Micropillar Compression of Al/SiC Nanolaminates,” Acta Materialia, 61, pp. 4439–4451 (2013).Google Scholar
Singh, D. R. P., Chawla, N., Tang, G. and Shen, Y. L., “Micropillar Compression of Al/SiC Nanolaminates,” Acta Materialia, 58, pp. 6628–6636 (2010).Google Scholar
Chawla, N. and Chawla, K. K., “Microstructure-Based Modeling of the Deformation Behavior of Particle Reinforced Metal Matrix Composites,” Journal of Materials Science, 41, pp. 913–925 (2006).Google Scholar
Jones, R. M., Mechanics of Composite Materials. 1975, Washington, D.C: Scripta Book Company.Google Scholar
Shen, Y. L., Finot, M., Needleman, A. and Suresh, S., “Effective Elastic Response of 2-Phase Composites,” Acta Metallurgica Et Materialia, 42, pp. 77–97 (1994).Google Scholar
Sneddon, IN., “The Relation between Load and Penetration in the Axisymmetric Boussinesq Problem for a Punch of Arbitrary Profile,” International Journal of Engineering Science, 3, pp. 47–57 (1965).Google Scholar