
Probability and distribution types drive data-driven decisions in Lean Six Sigma, highlighting the normal and binomial distributions for continuous and discrete outcomes, to predict performance and improve quality.
Attribute agreement analysis measures inspection accuracy and consistency in pass/fail parts, exposing bias, false rejects, and false accepts, and guides training and tool improvements, operator consistency and agreement between operators.
Apply statistical process control (SPC) and control charts to monitor process stability, differentiating random common cause variation from assignable special cause variation using rational subgroups, mean, range, and standard deviation.
Master descriptive statistics for continuous data, including central tendency, spread, and distribution shape, to support data-driven decisions in Lean Six Sigma.
Explore z scores, standard scores that show how far a value lies from the mean in standard deviations, and connect them to the standard normal distribution and alpha.
Master hypothesis testing to decide if sample evidence reflects the population, using null hypothesis H0, alternative hypothesis Ha, p values, alpha, and two-tailed, left-tailed, or right-tailed tests to compare means.
Examine how sum of squares, degrees of freedom, and mean square reveal variation sources in ANOVA. Interpret SS rows, SS columns, and SS error for a small non-replicated data set.
Compute the mean square by dividing the sum of squares by degrees of freedom. Use mean squares to compare variation and form the F statistic for significance.
Apply linear regression to predict a dependent variable from an independent variable, distinguish correlation from causation, account for outliers, and evaluate model fit with r squared using Excel.
Apply the Dmaic framework to a Lean Six Sigma project on a 500ml bottle line. Define, measure, analyze, improve, and control quality with SIPOC, control charts, and hypothesis testing.
Measure how efficiently assets like machinery and inventory generate profit. Compute ROA by dividing net income by total assets, highlighting a 20% return on assets.
Master Advanced Lean Six Sigma by applying tools to real projects — not just learning theory.
This course is designed for professionals who already understand the basics of Lean Six Sigma but struggle to apply statistical tools and analyze real data in practice. Instead of focusing on complex formulas or specialized software, you will learn how to use Excel to perform analysis, interpret results, and drive process improvement with confidence.
You will go beyond concepts and learn how to actually use Lean Six Sigma tools in real-world situations. Each topic is explained in a practical, step-by-step way, so you can focus on making decisions and improving processes rather than memorizing calculations.
What makes this course different:
- Practical, real-world focus — apply tools in real projects, not just theory
- Excel-based analysis — no need for complex statistical software
- No memorization of formulas — focus on understanding and interpretation
- Step-by-step explanations of advanced statistical concepts
- Hands-on project to reinforce learning and build confidence
Throughout the course, you will work with key Lean Six Sigma tools and techniques, including process performance metrics, control charts, hypothesis testing, and regression analysis. You will learn how to analyze data, identify trends, validate improvements, and maintain process stability.
By the end of this course, you will be able to confidently apply advanced Lean Six Sigma tools using Excel, interpret statistical results, and improve processes in real-world environments.
If you already have a basic understanding of Lean Six Sigma and want to move from theory to practical application, this course will give you the skills to do it effectively.