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References
Thermal loading and thermal stress failures
J.H. Lau, Ed., Thermal Stress and Strain in Microelectronics Packaging, Van-Nostrand Reinhold, New York, 1993.
E. Suhir, R.C. Cammarata, D.D.L. Chung, and M. Jono, Mechanical behavior of materials and structures in microelectronics, Materials Research Society Symposia Proceedings, Vol. 226, 1991.
E. Suhir, M. Fukuda, C.R. Kurkjian, Eds., Reliability of photonic materials and structures, Materials Research Society Symposia Proceedings, Vol. 531, 1998.
E. Suhir, M. Shiratori, Y.C. Lee, and G. Subbarayan, Eds., Advances in Electronic Packaging—1997, Vols. 1 and 2, ASME Press, 1997.
E. Suhir, Thermal stress failures in microelectronic components—review and extension, in A. Bar-Cohen and A.D. Kraus, Eds., Advances in Thermal Modeling of Electronic Components and Systems, Hemisphere, New York, 1988.
E. Suhir, B. Michel, K. Kishimoto, and J. Lu, Eds., Mechanical Reliability of Polymeric Materials and Plastic Packages of IC Devices, ASME Press, 1998.
E. Suhir, Thermal stress failures in microelectronics and photonics: prediction and prevention, Future Circuits International, issue 5, 1999.
E. Suhir, Microelectronics and photonics—the future, Microelectronics Journal, 31(11–12) (2000).
G.A. Lang, et al., Thermal fatigue in silicon power devices, IEEE Transactions on Electron Devices, 17 (1970).
Thermal stress modeling
E. Suhir, Accelerated Life Testing (ALT) in microelectronics and photonics: its role, attributes, challenges, pitfalls, and interaction with qualification tests, Keynote address at the SPIE’s 7-th Annual International Symposium on Nondestructive Evaluations for Health Monitoring and Diagnostics, 17–21 March, San Diego, CA, 2002.
E. Suhir, Reliability and accelerated life testing, Semiconductor International, February 1, 2005.
E. Suhir, Modeling of the mechanical behavior of microelectronic and photonic systems: attributes, merits, shortcomings, and interaction with experiment, Proceedings of the 9-th Int. Congress on Experimental Mechanics, Orlando, FL, June 5–8, 2000.
E. Suhir, Analytical stress–strain modeling in photonics engineering: its role, attributes and interaction with the finite-element method, Laser Focus World, May 2002.
E. Suhir, Thermomechanical stress modeling in microelectronics and photonics, Electronic Cooling, 7(4) (2001).
M. Schen, H. Abe, and E. Suhir, Eds., Thermal and Mechanical Behavior and Modeling, ASME, AMD-Vol, 1994.
Bi-metal thermostats and other bi-material assemblies
S. Timoshenko, Analysis of bi-metal thermostats, Journal of the Optical Society of America, 11 (1925).
B.J. Aleck, Thermal stresses in a rectangular plate clamped along an edge, ASME Journal of Applied Mechanics, 16 (1949).
W.T. Chen and C.W. Nelson, Thermal stresses in bonded joints, IBM Journal, Research and Development, 23(2) (1979).
F.-V. Chang, Thermal contact stresses of bi-metal strip thermostat, Applied Mathematics and Mechanics, 4(3) Tsing-hua Univ., Beijing, China (1983).
E. Suhir, Stresses in bi-metal thermostats, ASME Journal of Applied Mechanics, 53(3) (1986).
E. Suhir, Interfacial stresses in bi-metal thermostats, ASME Journal of Applied Mechanics, 56(3) (1989).
E. Suhir, Calculated thermally induced stresses in adhesively bonded and soldered assemblies, Proc. of the Int. Symp. on Microelectronics, ISHM, 1986, Atlanta, Georgia, Oct. 1986.
R. Zeyfang, Stresses and strains in a plate bonded to a substrate: Semiconductor devices, Solid State Electronics, 14 (1971).
J.W. Eischen, C. Chung, and J.H. Kim, Realistic modeling of the edge effect stresses in bimaterial elements, ASME Journal of Electronic Packaging, 112(1) (1990).
A.Y. Kuo, Thermal stress at the edge of a bi-metallic thermostat, ASME Journal of Applied Mechanics, 57 (1990).
S.E. Yamada, A bonded joint analysis for surface mount components, ASME Journal of Electronic Packaging, 114(1) (1992).
E. Suhir, Structural analysis in microelectronic and fiber optic systems, Vol. 1, Basic Principles of Engineering Elasticity and Fundamentals of Structural Analysis, Van Nostrand Reinhold, New York, 1991.
J.H. Lau, A note on the calculation of thermal stresses in electronic packaging by finite-element method, ASME Journal of Electronic Packaging, 111(12) (1989).
J.C. Glaser, Thermal stresses in compliantly joined materials, ASME Journal of Electronic Packaging, 112(1) (1990).
J.U. Akay and Y. Tong, Thermal fatigue analysis of an smt solder joint using FEM approach, Journal of Microcircuits and Electronic Packaging, 116 (1993).
E. Suhir, Die attachment design and its influence on the thermally induced stresses in the die and the attachment, Proc. of the 37th Elect. Comp. Conf., IEEE, Boston, MA, May 1987.
V. Mishkevich and E. Suhir, Simplified approach to the evaluation of thermally induced stresses in bi-material structures, in E. Suhir, Ed., Structural Analysis in Microelectronics and Fiber Optics, ASME Press, 1993.
E. Suhir, Approximate evaluation of the elastic interfacial stresses in thin films with application to high-Tc superconducting ceramics, Int. Journal of Solids and Structures, 27(8) (1991).
P.M. Hall, et al., Strains in aluminum-adhesive-ceramic trilayers, ASME Journal of Electronic Packaging, 112(4) (1990).
E.K. Buratynski, Analysis of bending and shearing of tri-layer laminations for solder joint reliability, in E. Suhir et al., Advances in Electronic Packaging 1997, ASME Press, 1997.
E. Suhir, Analysis of interfacial thermal stresses in a tri-material assembly, Journal of Applied Physics, 89(7) (2001).
S. Luryi and E. Suhir, A new approach to the high-quality epitaxial growth of lattice—mismatched materials, Applied Physics Letters, 49(3) (1986).
S.C. Lee et al., Strain-reliweved, dislocation-free In x Ga1−xAs/GaAs(001) heterostructure by nanoscale-patterned growth, Applied Physics Letters, 85(18) (2004).
E. Suhir and T.M. Sullivan, Analysis of interfacial thermal stresses and adhesive strength of bi-annular cylinders, Int. Journal of Solids and Structures, 26(6) (1990).
A.O. Cifuentes, Elastoplastic analysis of bimaterial beams subjected to thermal loads, ASME Journal of Electronic Packaging, 113(4) (1991).
Solder Joints
H.S. Morgan, Thermal stresses in layered electrical assemblies bonded with solder, ASME Journal of Electronic Packaging, 113(4) (1991).
J.S. Hwang, Modern Solder Technology for Competitive Electronics Manufacturing, McGraw-Hill, New York, 1996.
R.J. Iannuzzelli, J.M. Pitarresi, and V. Prakash, Solder joint reliability prediction by the integrated matrix creep method, ASME Journal of Electronic Packaging, 118 (1996).
E. Suhir, Twist-off testing of solder joint interconnections, ASME Journal of Electronic Packaging, 111(3) (1989).
E. Suhir, Stress relief in solder joints due to the application of a flex circuit, ASME Journal of Electronic Packaging, 113(3) (1991).
E. Suhir, Flex circuit vs regular substrate: predicted reduction in the shearing stress in solder joints, Proc. of the 3-rd Int. Conf. on Flexible Circuits FLEXCON 96, San-Jose, CA, Oct. 1996.
F. Juskey and R. Carson, DCA on flex: A low cost/stress approach, in E. Suhir et al., Eds., Advances in Electronic Packaging, ASME Press, 1997.
E. Suhir, Solder materials and joints in fiber optics: reliability requirements and predicted stresses, Proc. of the Int. Symp. on Design and Reliability of Solders and Solder Interconnections, Orlando, FL, Febr. 1997.
E. Suhir, Thermally induced stresses in an optical glass fiber soldered into a ferrule, IEEE/OSA Journal of Lightwave Technology, 12(10) (1994).
“Global” and “Local” Mismatch and Assemblies Bonded at the Ends
E. Suhir, “Global” and “local” thermal mismatch stresses in an elongated bi-material assembly bonded at the ends, in E. Suhir, Ed., Structural Analysis in Microelectronic and Fiber-Optic Systems, Symposium Proceedings, ASME Press, 1995.
E. Suhir, Thermal stress in a bi-material assembly adhesively bonded at the ends, Journal of Applied Physics, 89(1) (2001).
E. Suhir, Bi-material assembly adhesively bonded at the ends and fabrication method, U.S. Patent #6,460,753, 2002.
E. Suhir, Predicted thermal mismatch stresses in a cylindrical bi-material assembly adhesively bonded at the ends, ASME Journal of Applied Mechanics, 64(1) (1997).
Assembly with Low Modulus Adhesive Layer at the Ends
E. Suhir, Thermal stress in an adhesively bonded joint with a low modulus adhesive layer at the ends, Applied Physics Journal, (April) (2003).
E. Suhir, Electronic assembly having improved resistance to delamination, U.S. Patent #6,028,772, 2000.
E. Suhir, Thermal stress in a polymer coated optical glass fiber with a low modulus coating at the ends, Journal of Materials Research, 16(10) (2001).
E. Suhir, Coated optical fiber, U.S. Patent #6,647,195, 2003.
Thermally Matched Assembliess
E. Suhir, Axisymmetric elastic deformations of a finite circular cylinder with application to low temperature strains and stresses in solder joints, ASME Journal of Applied Mechanics, 56(2) (1989).
E. Suhir, Mechanical reliability of flip-chip interconnections in silicon-on-silicon multichip modules, IEEE Conference on Multichip Modules, IEEE, Santa Cruz, Calif., March 1993.
E. Suhir and B. Poborets, Solder glass attachment in cerdip/cerquad packages: thermally induced stresses and mechanical reliability, Proc. of the 40th Elect. Comp. and Techn. Conf., Las Vegas, Nevada, May 1990, see also: ASME Journal of Electronic Packaging, 112(2) (1990).
E. Suhir, Adhesively bonded assemblies with identical nondeformable adherends: predicted thermal stresses in the adhesive layer, Composite Interfaces, 6(2) (1999).
E. Suhir, Adhesively bonded assemblies with identical nondeformable adherends and inhomogeneous adhesive layer: predicted thermal stresses in the adhesive, Journal of Reinforced Plastics and Composites, 17(14) (1998).
E. Suhir, Adhesively bonded assemblies with identical nondeformable adherends and “piecewise continuous” adhesive layer: predicted thermal stresses and displacements in the adhesive, Int. Journal of Solids and Structures, 37 (2000).
E. Suhir, Applied Probability for Engineers and Scientists, McGraw Hill, New York, 1997.
Thin Films
K. Roll, Analysis of stress and strain distribution in thin films and substrates, Journal of Applied Physics, 47(7) (1976).
G.H. Olsen and M. Ettenberg, Calculated stresses in multilayered heteroepitaxial structures, Journal of Applied Physics, 48(6) (1977).
J. Vilms and D. Kerps, Simple stress formula for multilayered thin films on a thick substrate, Journal of Applied Physics, 53(3) (1982).
E. Suhir, An approximate analysis of stresses in multilayer elastic thin films, ASME Journal of Applied Mechanics, 55(3) (1988).
T.-Y. Pan and Y.-H. Pao, Deformation of multilayer stacked assemblies, ASME Journal of Electronic Packaging, 112(1) (1990).
E. Suhir, Approximate evaluation of the elastic thermal stresses in a thin film fabricated on a very thick circular substrate, ASME Journal of Electronic Packaging, 116(3) (1994).
E. Suhir, Predicted thermally induced stresses in, and the bow of, a circular substrate/thin-film structure, Journal of Applied Physics, 88(5) (2000).
Polymeric Materials and Plastic IC Packages
E. Suhir, Applications of an epoxy cap in a flip-chip package design, ASME Journal of Electronic Packaging, 111(1) (1989).
G.S. Ganssan and H. Berg, Model and analysis for reflow cracking phenomenon in SMT plastic packages, 43-rd IEEE ECTC., 1993.
E. Suhir, Failure criterion for moisture-sensitive plastic packages of integrated circuit (IC) devices: application of von-Karman equations with consideration of thermoelastic strains, Int. Journal of Solids and Structures, 34(12) (1997).
E. Suhir and Q.S.M. Ilyas, “Thick” plastic packages with “small” chips vs “thin” packages with “large” chips: how different is their propensity to moisture induced failures?, in E. Suhir, Ed., Structural Analysis in Micro-electronics and Fiber Optics, Symposium Proceedings, ASME Press, 1996.
M. Uschitsky and E. Suhir, Predicted thermally induced stresses in an epoxy molding compound at the chip corner, in E. Suhir, Ed., Structural Analysis in Microelectronics and Fiber Optics, Symposium Proceedings, ASME Press, 1996.
M. Ushitsky, E. Suhir, and G.W. Kammlott, Thermoelastic behavior of filled molding compounds: composite mechanics approach, ASME Journal of Electronic Packaging, 123(4) (2001).
D.K. Shin and J.J. Lee, A study on the mechanical behavior of epoxy molding compound and thermal stress analysis in plastic packaging, in E. Suhir et al., Advances in Electronic Packaging 1997, Vol. 1, ASME Press, 1997.
Thermal Stress Induced Bowing and Bow-Free Assemblies
E. Suhir, Predicted bow of plastic packages of integrated circuit devices, in J.H. Lau, Ed., Thermal Stress and Strain in Microelectronic Packaging, Van Nostrand Reinhold, New York, 1993.
E. Suhir and J. Weld, Electronic package with reduced bending stress, U.S. Patent #5,627,407, 1997.
E. Suhir, Arrangement for reducing bending stress in an electronics package, U.S. Patent #6,180,241, 2001.
E. Suhir, Device and method of controlling the bowing of a soldered or adhesively bonded assembly, U.S. Patent #6,239,382, 2001.
E. Suhir, Bow free adhesively bonded assemblies: predicted stresses, Electrotechnik & Informationtechnik, 120(6) (2003).
E. Suhir, Bow-free assemblies: predicted stresses, Therminic’2004, Niece, France, Sept. 29–Oct. 1, 2004.
Probabilistic Approach
E. Suhir, Probabilistic approach to evaluate improvements in the reliability of chip-substrate (chip-card) assembly, IEEE CPMT Transactions, Part A, 20(1) (1997).
E. Suhir, Thermal stress modeling in microelectronics and photonics packaging, and the application of the probabilistic approach: review and extension, IMAPS International Journal of Microcircuits and Electronic Packaging, 23(2) (2000).
Optical Fibers and Other Photonic Structures
E. Suhir, Stresses in dual-coated optical fibers, ASME Journal of Applied Mechanics, 55(10) (1988).
E. Suhir, Fiber optic structural mechanics—brief review, editor’s note, ASME Journal of Electronic Packaging, September 1998.
E. Suhir, Polymer coated optical glass fibers: review and extension, Proceedings of the POLYTRONIK’2003, Montreaux, October 21–24, 2003.
E. Suhir, Effect of initial curvature on low temperature microbending in optical fibers, IEEE/OSA Journal of Lightwave Technology, 6(8) (1988).
E. Suhir, Spring constant in the buckling of dual-coated optical fibers, IEEE/OSA Journal of Lightwave Technology, 6(7) (1988).
E. Suhir, Mechanical approach to the evaluation of the low temperature threshold of added transmission losses in single-coated optical fibers, IEEE/OSA Journal of Lightwave Technology, 8(6) (1990).
E. Suhir, Coated optical fiber interconnect subjected to the ends off-set and axial loading, International Workshop on Reliability of Polymeric Materials and Plastic Packages of IC Devices, Paris, Nov. 29–Dec. 2, 1998, ASME Press, 1998.
E. Suhir, Optical fiber interconnect with the ends offset and axial loading: what could be done to reduce the tensile stress in the fiber? Journal of Applied Physics, 88(7) (2000).
E. Suhir, Critical strain and postbuckling stress in polymer coated optical fiber interconnect: what could be gained by using thicker coating? International Workshop on Reliability of Polymeric Materials and Plastic Packages of IC Devices, Paris, Nov. 29–Dec. 2, 1998, ASME Press, 1998.
E. Suhir and J.J. Vuillamin, Jr., Effects of the CTE and Young’s modulus lateral gradients on the bowing of an optical fiber: analytical and finite element modeling, Optical Engineering, 39(12) (2000).
E. Suhir, Predicted stresses and strains in fused biconical taper couplers subjected to tension, Applied Optics, 32(18) (1993).
E. Suhir, Apparatus and method for thermostatic compensation of temperature sensitive devices, U.S. Patent #6,337,932, 2002.
E. Suhir, Polymer coated optical glass fiber reliability: could nano-technology make a difference? Polytronic’04, Portland, OR, September 13–15, 2004.
D. Ingman and E. Suhir, Nanoparticle material for photonics applications, Patent pending, 2001.
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Suhir, E. (2007). Analytical Thermal Stress Modeling in Physical Design for Reliability of Micro- and Opto-Electronic Systems: Role, Attributes, Challenges, Results. In: Suhir, E., Lee, Y.C., Wong, C.P. (eds) Micro- and Opto-Electronic Materials and Structures: Physics, Mechanics, Design, Reliability, Packaging. Springer, Boston, MA. https://doi.org/10.1007/0-387-32989-7_21
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