Lean Six Sigma Black Belt Curriculum

Lean Six Sigma Black Belt Curriculum

Lean Six Sigma Black Belt: DMAIC, statistics, and certification.

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Platform:
Online
In-class
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Revised and Updated:
17 September 2026
Date Venue Duration
Available on Request Sandton, Gauteng 10 Days

Prerequisite for Enrolment

Candidates must have successfully completed the Lean Six Sigma Green Belt certification before enrolling in the Black Belt course. The Green Belt certification ensures that candidates have a foundational understanding of Six Sigma principles, basic statistical tools, and process improvement methodologies, which will be built upon in this advanced course.

Certification Criteria

  • Candidates must pass both Week 1 and Week 2 exams

  • Successfully complete the post-course project with measurable financial savings

  • Achieve an overall score of 80% or higher

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Training Methodology

Our diverse instructional approaches ensure effective learning:

– Lectures & Presentations: Engage with expert-driven, stimulating content.
– Course Material: Access well-crafted supporting resources.
– Group Work: Collaborate on discussions and case studies for practical insights.
– Workshops & Role-Play: Participate in immersive, scenario-based activities.
– Practical Application: Focus on applying theoretical knowledge in real situations.
– Post-Training Support: Receive extensive support after training for skill implementation.

Training Outline

Week 1: Fundamentals of Six Sigma and DMAIC Methodology
Day 1: Introduction to Six Sigma and Statistical Foundations
What is Six Sigma?
  • Overview of Six Sigma methodology
  • The goal of Six Sigma: Process improvement and defect reduction
  • The philosophy of Six Sigma: DMAIC (Define, Measure, Analyse, Improve, Control)
The Normal Distribution
  • Key properties of the Normal distribution
  • Understanding the significance of standard deviation and mean
  • Z-scores and probabilities
  • The role of the Normal distribution in process improvement
Central Limit Theorem (CLT)
  • Explanation of the CLT and its significance in process analysis
  • Sampling distribution and its implications for statistical testing
The t Distribution
  • When and why to use the t-distribution
  • Differences between the t and normal distributions

Day 2: Define Phase – Project Initiation and SIPOC Mapping
Define Stage in DMAIC
  • Project scope and goals: Defining what constitutes success in the project
  • Project Charter: How to develop a clear project charter that outlines objectives, team roles, and goals
Creating a SIPOC Diagram
  • Understanding SIPOC (Suppliers, Inputs, Process, Outputs, Customers)
  • How to map a process at a high level to identify critical inputs and outputs
Critical to Quality Measure (CTQ)
  • Understanding CTQ and how it aligns with customer requirements
  • Techniques to translate customer needs into measurable outputs
Dimensions of Service and Product Quality
  • The 5 dimensions of service quality: Tangibles, Reliability, Responsiveness, Assurance, Empathy
  • The 4 dimensions of product quality: Performance, Features, Reliability, Durability
Quality Function Deployment (QFD)
  • Introduction to QFD and the House of Quality
  • Translating customer needs into product specifications

Day 3: Measure Phase – Data Collection, Variation, and Process Capability
Key Measures for Process Performance
  • Key performance indicators (KPIs) and how to define them for specific projects
  • Understanding process metrics: Cycle time, throughput, defect rates, etc.
Data Collection Planning and Execution
  • How to plan data collection to ensure it’s systematic and unbiased
  • Techniques to ensure data accuracy and consistency
Displaying Process Variation
  • Tools for visualizing variation: Histograms, box plots, scatter plots
Measurement System Analysis (Gage R&R)
  • How to assess the accuracy and reliability of measurement systems
  • Gage R&R study: Precision vs. accuracy
Process Capability Analysis (Advanced)
  • Calculating process capability indices (Cp, Cpk)
  • Understanding process performance using sigma levels
Sigma Performance and Calculating Sigma Levels
  • Calculating sigma level of a process
  • The importance of achieving higher sigma levels for improved quality

Day 4: Analyse Phase – Identifying Root Causes and Analysing Data
Stratification Techniques
  • Breaking down data by categories to identify patterns and trends
Tree Diagrams
  • Using tree diagrams for breaking down complex problems into manageable components
Correlation and Simple Linear Regression
  • Understanding correlation vs causation
  • Using linear regression to model relationships between variables
Statistical Process Control (SPC)
  • The role of SPC in monitoring process behaviour
  • Types of control charts: X-bar, R-chart, p-chart, etc.
T-test
  • Performing t-tests to compare sample means
  • Understanding p-values and interpreting statistical significance
One-way and Two-way ANOVA
  • Performing ANOVA to analyse variance across multiple groups or factors
5 Whys and Fishbone Diagram (Ishikawa)
  • Root cause analysis using the 5 Whys technique
  • Fishbone diagrams for visualizing potential causes of problems
Cause and Effect Analysis
  • Techniques to identify root causes of process issues
Failure Mode and Effects Analysis (FMEA)
  • Identifying and prioritizing potential failure modes in processes
  • Using FMEA to assess risks and prioritize actions

Day 5: Operational Analysis and Lean Tools
Standard Operating Procedures (SOPs)
  • Importance of SOPs in maintaining process consistency and quality
Capacity Utilization
  • Analysing and improving process capacity
  • How to calculate and optimize capacity utilization
Lean Accounting
  • Introduction to lean accounting principles
  • Cost structures, value stream costing, and financial benefits of Lean
Stakeholder Analysis
  • Identifying and managing key stakeholders in Six Sigma projects
  • Techniques to ensure stakeholder engagement and buy-in

End of Week 1 Exam (3 hours)
  • Written test covering all topics from Week 1
  • Multiple-choice, short answer, and scenario-based questions

Week 2: Advanced Analysis, Improvement Techniques, and Control Tools
Day 8: Advanced Data and Process Analysis
Data and Process Analysis Techniques
  • Advanced techniques for deeper process analysis
Root Cause Analysis
  • Methods for analysing and identifying root causes in complex problems
Quantifying the Gap/Opportunity
  • How to quantify performance gaps and assess opportunities for improvement
Hypothesis Testing and Power of Tests
  • Conducting hypothesis tests to validate assumptions
  • Understanding statistical power and sample size determination
Descriptive Tests and Multiple Regression
  • Using descriptive statistics to summarize data
  • Multiple regression analysis for complex models
Design of Experiments (DOE)
  • Planning and conducting experiments to optimize process variables
  • Introduction to factorial designs and response surface methodology
Taguchi Methods
  • Robust design techniques to minimize variation in product and process performance

Day 9: Improve Phase – Solution Generation and Testing
Generating and Testing Solutions
  • Brainstorming solutions to process issues
  • Using creativity and structured methods (e.g., TRIZ) to generate innovative solutions
Selecting the Best Solutions
  • Criteria for evaluating and selecting optimal solutions based on cost, feasibility, and impact
Designing Implementation Plans
  • Developing detailed plans for implementing improvement solutions
Time Series Analysis
  • Analysing trends and patterns over time to make data-driven decisions
Cross-Correlation
  • Analysing relationships between time-series data
Binary Logistic Regression
  • Predicting categorical outcomes (yes/no) using logistic regression
Chi-Square Test
  • Testing relationships between categorical variables using chi-square tests

Day 10: Control Phase – Ensuring Sustainability
Monitoring Plans
  • Developing ongoing monitoring and control plans to track improvements
Process Standardization
  • Standardizing processes to ensure consistent results
Response Plans
  • Creating response plans to address any issues or deviations from expected outcomes
Transfer of Ownership
  • Ensuring successful transition of process improvements to operational teams
Reliability Engineering
  • Techniques for ensuring process reliability and minimizing failure rates
Total Productive Maintenance (TPM)
  • TPM principles for improving machine reliability and uptime
Poka Yoke
  • Designing error-proofing mechanisms to prevent defects
Cellular Manufacturing
  • Implementing cellular manufacturing layouts to optimize flow and reduce waste
Characteristics of Lean
  • The key principles of Lean: Value, value stream mapping, pull systems, flow, and continuous improvement

End of Week 2 Exam (3 hours)
  • Written test covering all topics from Week 2
  • Multiple-choice, short answer, and case-based questions

Post-Course Project (To be completed after course completion)

  • Project Scope: Apply Lean Six Sigma tools and techniques to a real-world process with measurable financial savings

  • Project Deliverables: Charter, data collection, analysis, solution generation, and final report with financial savings demonstrated

  • Presentation: A final presentation summarizing the project and the financial impact

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FAQs –Lean Six Sigma Black Belt Curriculum

Develop advanced Lean Six Sigma Black Belt skills covering DMAIC, process improvement, statistical analysis, project leadership, and sustainable business performance.

What is covered in the Lean Six Sigma Black Belt course?
The course covers advanced Lean Six Sigma principles, DMAIC, statistical analysis, process capability, root cause analysis, Design of Experiments, Lean tools, improvement techniques and process control.
Who should attend the Lean Six Sigma Black Belt course?
The course is suitable for professionals involved in process improvement, quality management, operations, engineering, project management and business performance who want advanced Lean Six Sigma skills.
What is the prerequisite for Lean Six Sigma Black Belt certification?
Candidates must have successfully completed a Lean Six Sigma Green Belt certification before enrolling in the Black Belt course.
Does the Lean Six Sigma Black Belt course cover DMAIC?
Yes. The course provides advanced training across all five DMAIC phases: Define, Measure, Analyse, Improve and Control, with practical application of process improvement and statistical tools.
Which statistical tools are covered in the Lean Six Sigma Black Belt course?
The course covers tools including Gage R&R, process capability analysis, hypothesis testing, regression, ANOVA, statistical process control, Design of Experiments, Chi-Square and logistic regression.
What are the certification requirements for the Lean Six Sigma Black Belt course?
Candidates must pass both course exams, achieve an overall score of at least 80%, and successfully complete a post-course project demonstrating measurable financial savings.

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