Department of Electrical and Computer Engineering
ECE-1768: Reliability of Integrated Circuits
Specifics:
- Instructor: Farid N. Najm, 946-5175, f.najm@utoronto.ca
- Prerequisites: ECE-302 or equivalent
- Textbook: E. A. Amerasekera and F. N. Najm, Failure Mechanisms in
Semiconductor Devices, 2nd Ed.. John Wiley and Sons, 1997.
General Description:
Description of the techniques used to study the reliability of integrated
circuits. Covers reliability modeling, physical causes of semiconductor
device failure, reliability model development and calibration, model-based
reliability prediction, reliability testing and measurement, and failure
diagnosis. Coverage emphasizes application to integrated circuit technology.
Topical Outline:
- Introduction (3%): Includes an overview of integrated circuit
technology.
- Review of probability theory (10%): Includes definition of
probability, random variables, and joint statistics.
- Reliability mathematics (14%): A mathematical treatment of reliability,
covering reliability functions and distribution functions. We will be
mainly concerned with the systems approach to reliability theory.
- Reliability testing/measurements (31%): Cover reliability model
development: how to measure and use experimental data in order to derive
the distributions and parameters of the reliability models discussed
earlier in order to do reliability prediction. Topics include aging trend
identification, distribution identification, stress testing and
accelerated testing.
- Failure mechanisms in integrated circuits (21%): A brief look at the
variety of physical failure mechanisms in ICs, covering electrical stress,
intrinsic failure mechanisms, and extrinsic failure mechanisms.
- Reliability prediction (7%): Brief presentation of the two basic
approaches of prediction, namely failure rate methods (MIL-HDBK-217) and
physics of failure methods.
- Industrial practice (14%): Testing and qualifying products, including
burn-in, electrical stressing, failure analysis and building-in
reliability.