2-Hour Virtual Seminar on Useful Statistical Methods for Defining Product and Process Specifications

This webinar teaches statistical methods for developing product and process specifications, managing risks and costs, characterizing data, using predictive models, and optimizing process performance with Monte Carlo Simulation.
Thursday, August 07, 2025
Time: 10:00 AM PDT | 01:00 PM EDT
Duration: 2 Hours
IMG Steven Wachs
Id: 90503
Live
Session
$149.00
Single Attendee
$299.00
Group Attendees
Recorded
Session
$199.00
Single Attendee
$399.00
Group Attendees
Combo
Live+Recorded
$299.00
Single Attendee
$599.00
Group Attendees

Overview:

Scientists, Design Engineers, and Manufacturing/Process Engineers must develop product and process specifications that ensure that products delivered to customers perform their intended functions over time.  If specifications are too wide, the risks of inadequate product performance and product failures increase. If specifications are too tight, the costs to ensure conformance increase. Scientific and engineering theory, knowledge, and principles play an important role in developing specifications, but usually this must be combined with testing and data analysis to verify appropriate specifications.    

This webinar covers useful and important statistical methods that assist scientists and engineers in the development of appropriate product and process specifications.    

Why you should Attend: 

The information gained in the webinar will allow you improve your ability to develop appropriate and defensible specifications. This manages the risks of overly liberal specifications and the costs associated with overly conservative specifications.  

  • Review Product/Process Specifications and why they are important
  • Learn methods for characterizing existing process data to describe expected variation in the population
  • Using predictive models, identify input parameter specifications that ensure key outcomes will be met with high confidence
  • Further optimize process performance with Monte Carlo Simulation

Areas Covered in the Session:

  • Introduction
    • What are Specifications?
    • Why Are Specs Important?
    • Risks of Inappropriate Specifications
  • Characterizing Process Data
    • Normal Distribution
    • Characterizing Process Data
    • Reference Intervals
    • Min - Max Interval
    • Tolerance Intervals
    • Coverage Probability and Confidence Levels
  • Using Predictive Models to develop specifications 
    • Review of Predictive Models (Regression/DOE)
    • Confidence and Prediction Intervals
    • Using Models Examples (Contour Plots)
    • Factor Specifications to Optimize a Response
    • Factor Specifications to Jointly Optimize Multiple Responses
    • Introduction to Monte Carlo Simulation for further Optimization

Who Will Benefit:

  • Quality Personnel
  • Product Design Engineer
  • Scientists
  • Process Engineer
  • Manufacturing Engineer
  • Product / Program  Manager
  • Operations / Production Manager

Speaker Profile

Steve Wachs has 30 years of wide-ranging industry experience in both technical and management positions. Steve has worked as a statistician at Ford Motor Company where he has extensive experience in the development of statistical models, reliability analysis, designed experimentation, and statistical process control.

Steve is currently a Principal Statistician at Integral Concepts, Inc. where he assists manufacturers in the application of statistical methods to reduce variation and improve quality and productivity. He also possesses expertise in the application of reliability methods to achieve robust and reliable products as well as estimate and reduce warranty. Steve consults and provides workshops in industrial statistical methods worldwide. He also supports Integral Concepts’ Litigation / Expert Witness practice with data analysis.

Steve possesses an M.A. in Applied Statistics from University of Michigan (Ann Arbor), an M.B.A. from the Katz Graduate School of Business, University of Pittsburgh, and a B.S. in Mechanical Engineering from the University of Michigan (Ann Arbor).