
Statistical Process Control Course
Master Statistical Process Control from foundational variation theory to advanced CUSUM and multivariate charts. This course equips quality engineers, manufacturing professionals, and process improvement specialists with the tools to monitor, analyze, and control any process. Build capability studies, validate measurement systems, and deploy SPC programs that deliver lasting results.
What your team will master:
You will learn how to distinguish common-cause from special-cause variation and apply that knowledge to every charting decision you make. The course covers X-bar, R, S, I-MR, p, np, c, and u charts, along with advanced techniques including EWMA, CUSUM, and Hotelling's T² for multivariate monitoring. You will conduct Gage R&R studies to confirm your measurement systems are trustworthy before drawing any conclusions. Process capability indices — Cp, Cpk, Pp, and Ppk — are covered in depth, including normality testing and non-parametric alternatives. You will also learn how to integrate SPC into production systems, build control plans, train operators, and sustain programs through audits and management reviews.
How your team studies in practice Statistical Process Control Course
How your team practices Statistical Process Control Course
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Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Statistical Process Control
Foundations of Statistical Process Control
Lesson 1 • History and Purpose of SPC
Traces SPC from Shewhart and Deming to modern manufacturing and services. Establishes why controlling variation is central to quality management.
Lesson 2 • Basic Statistical Concepts for SPC
Reviews mean, variance, standard deviation, and distributions as the math backbone of control charts. Ensures all learners share a common statistical vocabulary.
Lesson 3 • Data Types and Measurement Scales
Classifies data as continuous or attribute and links each type to the correct chart family. Prevents misapplication of control charts in subsequent chapters.
Lesson 4 • Process Thinking and Flow
Introduces SIPOC and process mapping to identify measurement points before charting. Connects process structure to data collection strategy.
Lesson 5 • Understanding Process Variation
Distinguishes common-cause from special-cause variation using real examples. This distinction drives every SPC decision made in later chapters.
Chapter 2HideHide detailsSee detailsMeasurement System Analysis
Measurement System Analysis
Lesson 1 • Attribute Agreement Analysis
Applies Kappa statistics to evaluate consistency in pass/fail or categorical inspection systems. Extends MSA principles to attribute data used in p and np charts.
Lesson 2 • Gage Repeatability and Reproducibility
Covers the crossed Gage R&R study design, data collection, and ANOVA-based analysis. Provides the primary tool for quantifying measurement system variation.
Lesson 3 • Stability and Calibration of Gages
Examines gage stability over time and links calibration schedules to measurement integrity. Ensures measurement systems remain valid throughout long-term SPC programs.
Lesson 4 • Why Measurement Quality Matters
Shows how measurement error inflates observed variation and distorts control charts. Motivates MSA as a prerequisite to any charting activity.
Chapter 3HideHide detailsSee detailsControl Charts for Continuous Data
Control Charts for Continuous Data
Lesson 1 • Interpreting Control Chart Signals
Applies Western Electric and Nelson rules to detect non-random patterns on any control chart. Translates statistical signals into actionable process investigation triggers.
Lesson 2 • Recalculating and Updating Control Limits
Explains when and how to revise control limits after process improvements or confirmed special causes. Maintains chart validity as processes evolve over time.
Lesson 3 • X-bar and S Chart for Larger Subgroups
Introduces the S chart as a more efficient spread estimator when subgroup size exceeds four. Builds on R chart logic while improving statistical sensitivity.
Lesson 4 • X-bar and R Chart Construction
Walks through subgroup sampling, center line calculation, and control limit formulas for X-bar and R charts. Forms the core skill set for monitoring process mean and spread.
Lesson 5 • Individuals and Moving Range Charts
Covers I-MR chart construction for processes where only one measurement per time period is available. Addresses autocorrelation risks unique to individual observations.
Chapter 4HideHide detailsSee detailsControl Charts for Attribute Data
Control Charts for Attribute Data
Lesson 1 • c Chart for Count of Defects
Applies the Poisson model to monitor total defect counts per inspection unit of constant size. Establishes the foundation for understanding defect-based monitoring.
Lesson 2 • np Chart for Count of Defectives
Constructs np charts when sample size is fixed and the count of defective units is the metric. Highlights when np is preferred over p for operator simplicity.
Lesson 3 • u Chart for Defects per Unit
Extends c chart logic to variable inspection unit sizes using defects-per-unit scaling. Enables defect monitoring when inspection area or volume changes between samples.
Lesson 4 • p Chart for Proportion Defective
Builds p charts for variable and constant sample sizes, including Laney's correction for overdispersion. Covers the most widely used attribute chart in industry.
Lesson 5 • Selecting the Right Attribute Chart
Provides a decision framework integrating data type, sample size consistency, and overdispersion checks. Prevents chart misapplication and ensures valid statistical inference.
Chapter 5HideHide detailsSee detailsProcess Capability Analysis
Process Capability Analysis
Lesson 1 • Cp and Cpk Indices
Calculates potential capability (Cp) and actual capability (Cpk) using within-subgroup sigma estimates. Interprets index values against industry benchmarks and sigma levels.
Lesson 2 • Normality and Capability
Tests normality assumptions before applying standard capability indices and applies transformations or non-parametric methods when needed. Ensures valid capability reporting.
Lesson 3 • Pp and Ppk Performance Indices
Distinguishes performance indices using overall sigma from capability indices using short-term sigma. Guides correct index selection for new vs. established processes.
Lesson 4 • Specification Limits vs. Control Limits
Clarifies the fundamental difference between customer-driven specs and statistically derived control limits. Prevents the critical error of confusing the two on control charts.
Lesson 5 • Attribute and Short-Run Capability
Extends capability concepts to attribute data using DPU and DPMO metrics and addresses short-run production scenarios. Broadens capability analysis beyond continuous data.
Chapter 6HideHide detailsSee detailsAdvanced Control Chart Techniques
Advanced Control Chart Techniques
Lesson 1 • Multivariate Control Charts
Introduces Hotelling's T² chart to monitor multiple correlated quality characteristics simultaneously. Prevents false alarms and missed signals caused by monitoring variables independently.
Lesson 2 • EWMA Charts for Gradual Drift
Builds exponentially weighted moving average charts with tunable lambda to balance sensitivity and stability. Ideal for processes with gradual drift or autocorrelated data.
Lesson 3 • CUSUM Charts for Small Shifts
Constructs tabular and V-mask CUSUM charts optimized to detect mean shifts of 0.5–1.5 sigma. Fills the sensitivity gap left by standard X-bar charts.
Lesson 4 • Adaptive and Zone Control Charts
Covers zone charts and adaptive sampling schemes that adjust subgroup size or frequency based on process signals. Improves detection speed while reducing sampling cost.
Lesson 5 • Short-Run and Small-Batch Charts
Adapts control charts for low-volume production using standardized Z-MR and Q charts. Enables SPC in job-shop and prototype environments where standard charts fail.
Chapter 7HideHide detailsSee detailsSPC Implementation and Deployment
SPC Implementation and Deployment
Lesson 1 • SPC Deployment Planning
Defines scope, prioritizes critical characteristics, and builds a phased rollout plan aligned with business goals. Translates SPC theory into an actionable organizational project.
Lesson 2 • Control Plans and Reaction Plans
Builds control plans that link measurement points, chart types, and response actions into a single document. Formalizes the process response system required for sustained SPC.
Lesson 3 • Sustaining and Auditing SPC Programs
Establishes audit routines, performance metrics, and management review cycles to prevent SPC program decay. Ensures long-term effectiveness beyond the initial deployment phase.
Lesson 4 • Operator Training and Engagement
Designs role-specific training for operators, technicians, and engineers to ensure correct chart use. Addresses the human factors that determine SPC program success or failure.
Lesson 5 • Integrating SPC with Production Systems
Connects SPC data collection to production workflows, ERP systems, and quality management systems. Ensures SPC is embedded in daily operations rather than treated as a separate activity.
Chapter 8HideHide detailsSee detailsSPC in Strategic Quality Management
SPC in Strategic Quality Management
Lesson 1 • Building a Quality Culture with SPC
Examines how consistent SPC use shapes organizational norms around data-driven decision making and continuous improvement. Addresses leadership behaviors that sustain a quality culture.
Lesson 2 • SPC Within Six Sigma DMAIC
Maps SPC tools to each DMAIC phase, emphasizing control charts in the Control phase and capability in Analyze. Positions SPC as the measurement and control backbone of Six Sigma.
Lesson 3 • Using SPC Data for Decision Making
Translates control chart trends and capability indices into business decisions on investment, staffing, and equipment. Bridges statistical outputs and executive-level quality strategy.
Lesson 4 • Linking SPC to Lean Operations
Shows how SPC data supports value stream mapping, takt time analysis, and waste elimination decisions. Integrates statistical control with lean flow principles.
Lesson 5 • SPC and Supplier Quality Management
Applies SPC requirements to supplier qualification, incoming inspection, and supplier development programs. Extends process control beyond internal operations to the supply chain.
Your valid completion certificate
This course is for you:
Quality engineer: needs rigorous tools to reduce recurring defects systematically.
Manufacturing supervisor: wants data-driven methods to stabilize production output.
Six Sigma Green Belt: seeks deeper SPC knowledge to strengthen project control phases.
Lab technician: aims to validate measurement systems before reporting process results.
Supply chain analyst: needs capability metrics to evaluate and develop supplier performance.
Career changer from a science background: ready to apply analytical skills in quality roles.
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