An IEEE Professional Development Course in San Francisco

"Adhesively Bonded Joints in Micro- and Opto-Electronics"
with Dr. Ephraim Suhir, University of Illinois at Chicago, IL

DATE & TIME:
Wednesday, August 13, 2003

Registration: 8:00 - 8:30 AM
Class: 8:30 AM - Noon
COST:
  • IEEE Members: $150; Non-Members: $175
  • $50 discount when registering for an AM and a PM course
  • Includes class handouts and refreshments
  • You can also register for a PM Course
  • LOCATION:
    Moscone Convention Center, San Francisco in association with PhoPack and PhoMat -- held jointly with the IEEE WESCON Exhibition.

    Photonics Packaging Week at WESCON -- August 10 - 14, 2003
    Sunday
    August 10
    Monday
    August 11
    Tuesday
    August 12
    Wednesday
    August 13
    Thursday
    August 14
       PhoPack Short Courses:
    Full-day Course:
        "Photonics Packaging: Assy & Test"
    or
    AM Course:
        "Photonic Device Accel Life Testing"
    and
    PM Course:
        "Modeling/Sim for Photonics Pkgng"
    PhoPack
    Sessions

    (Day 1)
    PhoPack
    Sessions

    (Day 2)
       PhoMat Short Courses:
    AM Course:
       "Adhesively Bonded Joints in Opto"

    PM Courses (choose one):
        "Interface Adhesion & Fracture in Electr Pkgng"
        "Fiber-Optics Structures: Design for Rel"

    PhoMat
    Sessions
    Register for both PhoPack and PhoMat -- take advantage of the joint-registration discount
    Free admission to all the WESCON exhibits -- included in your Symposium or Short Course registration!

    COURSE OBJECTIVES:
    This course describes and discusss the mechanical behavior, physical design and reliability of adhesively bonded and soldered assemblies and joints used in micro- and opto-electronics.

    WHO SHOULD ATTEND:
    Managers, researchers, practicing engineers and all those who is interested in the future of microelectronics, photonics and other areas of "high technology", as well as in the role of mechanical, materials, packaging and reliability engineering. No special knowledge of the electrical, optical, mechanical, materials or structural engineering is required.

    OUTLINE:
    • Methods of joining materials and parts in micro- and opto-electronics
    • Adherends, adhesives and solder materials: properties and applications
    • Thermal stress failure problem
    • Simplesr thermal stress model: what could be learned from using it
    • Typical thermal stress failures in bonded assemblies
    • Physics of stresses in, and bow of, bonded joints
    • What could be gained by using predictive modeling
    • Interaction of predictive modeling with experiment
    • Finite element modeling
    • Analytical ("mathematical") vs. finite-element modeling
    • More complicated analytical models: Timoshenko (TM) and the Iterfacial Stress Model (ISM)
    • Why do the interfacial stresses concentrate at the assembly ends
    • Interaction of thermal and mechanical modeling
    • "Equivalent" mechanical loading
    • Stress categories, and their effect on the modes of failure
    • Practical example: die-attach design
    • Role of the assembly size, adhesive material properties and thickness, curing temperature, thermal mismatch
    • Design recommendations
    • Shear-off testing
    • "Global" and "local" thermal mismatch stresses, their physics and interaction
    • Thermally matched flip-chip assemblies
    • Stresses and strains in thermally matched assemblies
    • Reliability testing of flip-chip solder joint interconnections
    • Thermally matched assemblies: stresses in the adhesive layer
    • Bi-material assemblies adhesively bonded at the ends: practical solution for large chips in flip-chip designs
    • Thin-film assemblies
    • Stoney's formula, and its area of application
    • Multi-layer thin-film structures
    • Physics of thin-film failure
    • Prediction of thermal stresses in thin film assemblies
    • Design recommendations
    • Failures due to structural (design) and manufacturing shortcomings
    • Reliability testing of adhesively bonded or soldered joints
    • Conclusions

    ABOUT THE INSTRUCTOR:
    Dr. Ephraim Suhir has been a Distinguished Member of Technical Staff (ret.), Bell Laboratories, Basic Research Area, Physical Sciences and Engineering Research Division, from 1984 until 2001. He is Fellow of the ASME (American Society of Mechanical Engineers), the IEEE (Institute of Electrical and Electronics Engineers), the APS (American Physical Society) and the SPE (Society of Plastics Engineers). He is a co-founder and Editor-in-Chief of the ASME Journal of Electronic Packaging (1995-2003). Dr. Suhir has authored more than 250 technical publications (papers, book chapters, and patents), including monographs "Structural Analysis of Microelectronic and Fiber Optic Systems", Van-Nostrand, 1991, and "Applied Probability for Engineers and Scientists", McGraw-Hill, 1997. He has received numerous distinguished service and professional awards, including: 2001 IMAPS John A. Wagnon Technical Achievement Award, 2000 IEEE Outstanding Sustained Technical Contribution Award, 2000 SPE Fred O. Conley Award , and 1999 ASME and Pi Tau Sigma Charles Russ Richards Memorial Award. He is a member of the IEEE Technical Advisory Board (TAB), Distinguished Lecturer of the IEEE CPMT Society and a member of its Board of Governors. He has presented numerous invited and keynote talks at universities and professional conferences worldwide, and has taught many professional development and university courses on various topics of engineering and applied science. Dr. Suhir has organized many successful conferences and symposia in different areas of Applied Physics and Materials, and Mechanical and Reliability Engineering.

    TO REGISTER:


    Last updated on || Send comments to Paul Wesling.