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"Ops A La Carte did an excellent job teaching a private two-day reliability seminar for our team. We learned a lot and would certainly use them again." ---Isaac Ohel, VP Engineering, Novera Optics
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EDUCATION on the best tools for Reliability Engineering.
INTEGRATION of all Elements of Reliability Programs for Maximum Value.
Public and In-House Courses presented by world-class instructors directly in Silicon Valley.
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Education & Seminars
Mechanical Design of IC Packaging

OBJECTIVES
Reliability techniques at the IC Packaging level are different from those at the board/system level. We shall explore the best tools and techniques to use at the IC Packaging Level.
The course is intended to provide experimental and analytical tools to engineers that evaluate the field reliability of discrete semiconductor components. The sub-discipline known as DFR (Design For Reliability) is a vital component of most modern design teams. Achieving a product's reliability goals requires the proper application of both tools and techniques.
The course covers the basics of component reliability theory and implementation for the design, quality and manufacturing engineer or manager.
Emphasis is placed on learning the proper application of each reliability tool and technique, and also on knowing when to apply each and why. The methodologies used to evaluate the failure rates for the components are based on physics of failure, when statistical tools are used in conjunction to equations describing the expected failure mechanism under use field conditions.
Download brochure (pdf)

WHO SHOULD ATTEND
This course is intended for those individuals and managers involved in the design, test and/or analysis of discrete semiconductor components, and who wish to acquire a better understanding of current reliability concepts and practices and how their proper application leads directly to better and more reliable products.
 OUTLINE
Introduction
Definitions
Failure Rates
FITs and RITs
Generalized Reliability Mathematics
Failure Patterns
System Reliability and Device Failure Rates
Examples
Life Distributions
Life Distribution Examples
Selection of Proper Life Distribution
Failure Mechanisms and Physics of Failure
Temperature
Temperature Cycling
Elevated Temperature and Voltage
Reduced Temperature and Voltage
Temperature, Voltage, and Humidity
Temperature and Current
Power Cycling
Radiation
Electrostatic Discharge (ESD)
Examples
Test Selection
Arrhenius Equation
Eyring Equation
Test selection based on Physics of Failure
Chi Square Test
Accelerated Stress Test
Accelerated Stress and Acceleration Factors
Constant Temperature Stress
Activation Energies
Overstress Testing (HALT)
Accelerated Tests and Acceleration Factors
Temperature Cycling
Vibration and Shock
Humidity
Temperature and Current (Electromigration)
Voltage (TDDB)
Electrostatic Discharge (ESD)
Examples
Data Handling
Plotting Lognormal/Weibull Distributions
Confidence Interval Estimate
Truncated Data
"S" Curves and Freak Distributions
Examples
Failure Rate Calculations and Predictions
Normalized Failure Rate vs. Time Curves
Early Life Failures
Failure Rate Calculations for Infant Mortalities and Freak Failures
Estimation of Infant Mortality Parameters
"Duane" Growth Plots
Combined Failure Rate Curves
Failure Rates from Distributions with Small Standard Deviations
Examples
Development of Screens and Life Tests
Reverse Process to Achieve System Life
Life Test Sample Size
AQL Plans
LTPD Plans
Screening Sensitivity to Failure Mechanisms
Warranty Considerations
Materials and Test Equipment Considerations
Examples

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