Lean Six Sigma Expert

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Course Overview: Lean Six Sigma Expert

Elevate your career with Nvidya’s Lean Six Sigma Expert program, designed to provide advanced knowledge and practical skills in process improvement. This comprehensive course allows you to earn both Green and Black Belt certifications, fully accredited by the IASSC, and equips you with the expertise to lead complex, data-driven initiatives across industries.

Key Features

  • 40 Hours of Live Instructor-Led Training & 15+ Hours of Self-Paced Content

    Learn at your own pace with expert guidance and interactive sessions.

  • 18+ Harvard Case Studies with Advanced Statistical Tools

    Apply real-world scenarios using tools like Minitab to master data-driven decision-making.

  • Learn from Industry Experts & Earn 114+ PDUs

    Gain practical knowledge and professional development credits to advance your career.

  • Hands-On Experience with 13 Real-World Projects & 12 Simulation Exams

    Build practical skills and confidence in leading complex process improvement initiatives.

  • Globally Accredited by IASSC

    Training aligned with internationally recognized Lean Six Sigma standards.

  • Exclusive GenAI Modules for Quality Management

    Discover how generative AI can transform efficiency and quality processes in modern organizations.

Skills Covered

  • Lean manufacturing techniques
  • Six Sigma methodologies
  • Project management skills
  • Quality management principles
  • Data analysis and statistical tools
  • Process optimization strategies
  • Minitab Tool

Career Benefits of Lean Six Sigma Expert

Master advanced Lean Six Sigma methodologies with Nvidya’s Expert Program and gain the skills to lead process improvements and drive measurable quality and efficiency in your organization.

Where Strategy Meets Operational Excellence

Instructor-led
Learn from expert instructors in live, online sessions.
Get 24/7 learner support and access two full-length mock exams.
Choose a schedule that fits your availability.

$1499

Corporate Training
Choose from flexible pricing and billing options.
Join private cohorts tailored to your teams.
Track your training progress with intuitive dashboards.
Assess and benchmark your skills easily. Integrate seamlessly with your existing platforms.
Get support from a dedicated Customer Success Manager

Eligibility for Lean Six Sigma Expert

The Lean Six Sigma Expert Course is ideal for professionals who want to strengthen their expertise in quality and process improvement. 

It is particularly well-suited for quality system managers, quality analysts, auditors, engineers, supervisors, and other professionals aiming to enhance organizational performance and operational efficiency.

Prerequisites

There are no strict prerequisites. However, having a foundational understanding of business processes and a willingness to engage in data-driven problem-solving can enhance the learning experience. Experience in project management, operations, or quality assurance can also provide a helpful context for applying the methodologies.

Course Content: Lean Six Sigma Expert

Lean Six Sigma Green Belt-Lesson 01: Course Introduction
Section 01 - Course Introduction

1.01 Course Introduction

1.01 Introduction to Six Sigma and Organizational Goals

2.01 Introduction
2.02 Value of Sigma
2.03 Meaning of Six Sigma and Quality
2.04 DMAIC Process
2.05 Key Terms
2.06 Sigma Conversion Table
2.07 Goals and Six Sigma Projects
2.08 Structure of a Six Sigma Team
2.09 Organizational Drivers and Metrics
2.10 Four-box Model vs. Strategy Maps
2.11 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Lean Concepts
3.03 Principles and Three Ms of Lean
3.04 Lean Wastes
3.05 Lean Tools and Techniques
3.06 Theory of Constraints (TOC)
3.07 Value Stream Mapping (VSM)
3.08 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 Roadmap for Design for Six Sigma (DFSS)
4.03 Quality Function Deployment (QFD)
4.04 Failure Modes and Effects Analysis (FMEA)
4.05 Key Takeaways
Knowledge Check

1.01 Introduction to Define Phase

2.01 Introduction
2.02 Steps in Project Selection
2.03 Benchmarking, Types of Benchmarking, and Best Practices
2.04 Process Elements
2.05 SIPOC Process
2.06 Owners and Stakeholders
2.07 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Customer Identification
3.03 Tips for Effective VoC Questions
3.04 VoC and Data Collection
3.05 Data Collection Methods
3.06 Proactive Data Sources
3.07 Proactive Data Sources
3.08 Proactive Data Sources
3.09 VoC Proactive Data Collection Methods
3.10 Customer Requirements
3.11 Critical-to-Quality Factor
3.12 CTQ Example
3.13 Quality Function Deployment
3.14 Sections of House of Quality (HOQ)
3.15 Post HOQ Matrix
3.16 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 The Project Charter
4.03 Problem Statement and Project Objectives
4.04 Project Scope and Its Interpretation
4.05 Project Scope and Its Interpretation
4.06 Project Metrics and Its Types
4.07 Project Planning and Documentation
4.08 Project Plan
4.09 Project Plan Schedule
4.10 Project Plan Risks
4.11 Benefits of Risk Analysis and Project Closure
4.12 Key Takeaways
Knowledge Check

5.01 Introduction
5.02 Affinity Diagram and Interrelationship Diagram
5.03 Tree Diagram and Matrix Diagram
5.04 Prioritization Matrices, Activity Network Diagrams, and Process Decision Program Chart (PDPC)
5.05 Key Takeaways
Knowledge Check

6.01 Introduction
6.02 Process Performance
6.03 Defects per Unit (DPU)
6.04 Throughput Yield (TPY) and Rolled Throughput Yield (RTY)
6.05 Defects per Million Opportunities (DPMO) and Sigma Level
6.06 Cost of Quality (COQ) and Process Capability
6.07 Key Takeaways
Knowledge Check

7.01 Introduction
7.02 Team Dynamics
7.03 Negative Team Dynamics
7.04 Team Stages
7.05 Types of Challenges
7.06 Team Roles and Responsibilities
7.07 Team Communication
7.08 Team Tools
7.09 Key Takeaways
Knowledge Check

8.01 Case Study

1.01 Introduction to Measure Phase

2.01 Introduction
2.02 Process Maps
2.03 Flowcharts
2.04 Process Documentation
2.05 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Roles of Probability and Statistics
3.03 Addition Rules and Multiplication Rules
3.04 Permutation and Combination
3.05 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 Data, Its Types, and Selection
4.03 Measurement Scales, Collection Methods, and Sampling
4.04 Data Collection Plan and Data Coding
4.05 Measures of Central Tendency and Dispersion
4.06 Microsoft Excel for Descriptive Statistics
4.07 Frequency Distribution
4.08 Stem and Leaf Plots and Box and Whisker Plots
4.09 Scatter Diagrams
4.10 Other Visualization Tools and Normal Probability Plots
4.11 Key Takeaways
Knowledge Check

5.01 Introduction
5.02 Classes of Distribution and Key Terms
5.03 Types of Statistical Distribution
5.04 Binomial and Poisson Distribution
5.05 Normal Distribution
5.06 Chi-Square, T, and F-Distribution
5.07 Central Limit Theorem (CLT)
5.08 Key Takeaways
Knowledge Check

6.01 Introduction
6.02 Measurement System Analysis and Its Properties
6.03 Measurement System Characteristics
6.04 Measurement System Concepts
6.05 Gage R&R Study
6.06 Attribute Gage R&R
6.07 Key Takeaways
Knowledge Check

7.01 Introduction
7.02 Process Stability and Normality
7.03 Process Capability Analysis and Studies
7.04 Process Capability Index and Example
7.05 Process Performance Indices
7.06 Process Mean Shift and Variation
7.07 Process Capability for Attribute Data
7.08 Key Takeaways
Knowledge Check

8.01 Case Study

1.01 Introduction to Analyze Phase

2.01 Introduction
2.02 Hypothesis Testing Basics
2.03 Type 1 and Type 2 Errors
2.04 Sample Size
2.05 P-Value and Test Statistics
2.06 Tests for Means, Variances, and Proportions
2.07 1-Sample Test
2.08 2-Sample Test
2.09 T-Test
2.10 ANOVA and Chi-Square Distribution
2.11 Hypothesis Testing with Nonnormal Data
2.12 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Multi-Vari Analysis
3.03 Correlation
3.04 Regression Analysis
3.05 Residual Analysis and Linear Regression
3.06 Multiple Regression
Knowledge Check

4.01 Case Study

1.01 Introduction to Improve Phase

2.01 Introduction
2.02 DOE Regression and Basic Terms
2.03 DOE Error
2.04 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Root Cause Analysis (RCA)
3.03 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 Lean Tools and Techniques
4.03 Cycle Time Reduction, Kaizen, and Kaizen Blitz
4.04 Key Takeaways
Knowledge Check

5.01 Introduction
5.02 Pugh Analysis and Solution Prioritization Matrix
5.03 SCAMPER Tool
5.04 Brainstorming, Cost-Benefit Analysis, Solution Screening, and Piloting
5.05 Key Takeaways
Knowledge Check

6.01 Case Study

1.01 Introduction to Control Phase

2.01 Introduction
2.02 SPC Basics
2.03 Control Charts and Analysis
2.04 Choosing an Appropriate Control Chart
2.05 Xbar Chart and Principles
2.06 I-MR Chart and Principles
2.07 Control Charts for Attribute Data
2.08 np-Chart and P-Chart
2.09 c-Chart and u-Chart
2.10 CUSUM and EWMA Charts
2.11 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Control Plan and Response Plan
3.03 Cost Benefit Analysis, KPIV, and KPOV
3.04 Control Level and Transactional Control Plan
3.05 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 Total Productive Maintenance
4.03 Visual Factory
4.04 5S
4.05 Key Takeaways
Knowledge Check

5.01 Case Study

1.01 Exam Tips
1.02 ASQ Exam
1.03 IASSC Exam

1.01 Reducing Sealant Waste
1.02 Improving Manufacturing Process

1.01 Course Introduction

2.01 Introduction
2.02 Importance of Minitab
2.03 Demo: Minitab
2.04 Demo: Minitab Menu Bar
2.05 Demo: Graph Tab
2.06 Demo: Stat Tab
2.07 Demo: Other Tabs
2.08 Common Pitfalls in Analyzing Data
2.09 Bias
2.10 Error in Methodology
2.11 Problems in Interpretation
2.12 Avoiding the Common Pitfalls
2.13 Key Takeaways
Knowledge Check

3.01 Introduction
3.02 Basic Statistics
3.03 Case Study: Amazing Inc
3.04 Demo: Bar Chart and Pie Chart
3.05 Demo: Pareto Chart and Histogram
3.06 Demo: Box Plot and Dot Plot
3.07 Demo: Individual Value Plot
3.08 Demo: Run Chart
3.09 Demo: Measuring Central Tendency and Spread
3.10 Demo: Normality Test
3.11 Key Takeaways
Knowledge Check

4.01 Introduction
4.02 Control Charts
4.03 Case Study: Couturier Garments
4.04 Couturier Garments: Six Sigma Approach
4.05 Demo: I-MR Chart
4.06 Demo: X-R Chart
4.07 Demo: X-S Chart
4.08 Demo: C Chart
4.09 Demo: U Chart
4.10 Demo: NP Chart
4.11 Demo: P Chart
4.12 Key Takeaways
Knowledge Check

5.01 Introduction
5.02 Case Study: Couturier Garments
5.03 Measurement System Analysis (MSA)
5.04 Gage R and R
5.05 Demo: Gage R and R
5.06 Attribute Gage R and R
5.07 Demo: Attribute Gage R and R
5.08 Case Study: Conclusion
5.09 Key Takeaways
Knowledge Check

6.01 Introduction
6.02 Process Capability
6.03 Case Study: Couturier Garments
6.04 Demo: Capability Analysis for Normal Data
6.05 Demo: Capability Analysis for Nonnormal Data
6.06 Demo: Poisson Capability Report
6.07 Demo: Binomial Capability Report
6.08 Key Takeaways
Knowledge Check

7.01 Introduction
7.02 Hypothesis Testing
7.03 Case Study: Life Line Inc
7.04 One-Sample t-test
7.05 Two-Sample t-test
7.06 Paired t-test
7.07 One-Sample proportion test
7.08 Two-Sample proportion test
7.09 One-Sample Variance test
7.10 Two-Sample Variance test
7.11 Chi-square: Goodness-of-fit-test
7.12 Chi-square: Test of association
7.13 Chi-square: cross tabulation
7.14 Key Takeaways
Knowledge Check

8.01 Introduction
8.02 Nonparametric tests
8.03 One-Sample sign test
8.04 Two-Sample Mann-Whitney U test
8.05 Friedman test
8.06 Mood's Median test
8.07 One-Sample Wilcoxon Test
8.08 Kruskal Wallis Test
8.09 Key Takeaways
Knowledge Check

9.01 Introduction
9.02 Case Study: Metro Hospital
9.03 Metro Hospital: Six Sigma Approach
9.04 Correlation Coefficient
9.05 Demo: Correlation Coefficient
9.06 Regression Analysis
9.07 Case Study: Life Line Inc
9.08 Simple Linear Regression
9.09 Demo: Simple Linear Regression
9.10 Multiple Linear Regression
9.11 Demo: Multiple Linear Regression
9.12 Key Takeaways
Knowledge Check

10.01 Introduction
10.02 Case Study: Great Investors
10.03 Analysis of Variance (ANOVA)
10.04 Demo: Normality
10.05 Demo: Equal Variation
10.06 Demo: Residuals
10.07 Main Effects Plot
10.08 Demo: Main Effects Plot
10.09 Interaction plot
10.10 Demo: Interaction Plot
10.11 Key Takeaways
Knowledge Check

11.01 Introduction
11.02 Case Study: Jeeshan Automotive
11.03 One Factor at a Time Approach
11.04 Design of Experiments
11.05 Demo: Full Factorial Design
11.06 Demo: Anlayze Factorial Design
11.07 Demo: Factorial Plots
11.08 Demo: Response Optimizer
11.09 Key Takeaways
Knowledge Check

1.01 Course Introduction

1.01 Introduction to Define Phase
1.02 Learning Objectives
1.03 Six Sigma
1.04 Lean
1.05 Sigma Shift
1.06 Yield
1.07 Continuous Improvement Process Evolution
1.08 Six Sigma Deliverables
1.09 Problem Solving Strategy
1.10 VOC Campaign
1.11 VOC Tools
1.12 VOB
1.13 VOE
1.14 KANO Analysis
1.15 Six Sigma Roles and Responsibilities
1.16 Project Champion and Master Black Belt
1.17 Black Belt and Yellow Belt
1.18 Drivers of Six Sigma
1.19 Key Takeaways

2.01 Learning Objectives
2.02 Process
2.03 Project Charter
2.04 Critical to Quality (CTQ)
2.05 Cost of Poor Quality (COPQ)
2.06 Calculating COPQ
2.07 Pareto Analysis (80-20 rule)
2.08 Basic Six Sigma Metrics
2.09 Key Takeaways

3.01 Learning Objectives
3.02 Selecting Lean Six Sigma Projects
3.03 Project Selection Roadmap
3.04 Project Charter: Elements
3.05 Project Charter: Business Case
3.06 Project Charter: Problem Statement
3.07 Project Charter: Goal Statement
3.08 Project Charter: Scope
3.09 Project Charter: Key Milestones
3.10 Project Charter: Team Selection
3.11 Tuckman’s Stages of Team Formation
3.12 The RACI and RASIC Matrix
3.13 Expected Financial Benefits
3.14 Developing Project Metrics
3.15 Key Performance Indicator (KPI)
3.16 Financial Evaluation and Benefits Capture
3.17 Net Present Value (NPV)
3.18 Key Takeaways

4.01 Learning Objectives
4.02 Lean
4.03 Principles of Lean
4.04 Lean Methodology
4.05 Lean and Six Sigma
4.06 3Ms of Lean
4.07 Categories of Waste (TIMWOODS)
4.08 Categories of Waste (DOWNTIME)
4.09 5S
4.10 Steps in 5S: Part One
4.11 Steps in 5S: Part Two
4.12 Key Takeaways
4.13 Activity
4.14 Solution

1.01 Introduction to Measure Phase
1.02 Learning Objectives
1.03 Tools to Define a Process
1.04 Cause-and-Effect Diagram
1.05 Drawing a Fishbone Diagram
1.06 Root Cause
1.07 Process Mapping
1.08 Creating a Process Map
1.09 Process Mapping Levels
1.10 Four Types of Process Maps
1.11 SIPOC Process Map
1.12 Value Stream Maps
1.13 Value Stream Maps: Key Metrics
1.14 X-Y Diagrams or Scatter Plots
1.15 Failure Mode and Effects Analysis (FMEA)
1.16 FMEA Process
1.17 FMEA Template
1.18 Severity, Occurrence, and Detection Table
1.19 Risk Priority Number (RPN)
1.20 Key Takeaways

2.01 Learning Objectives
2.02 Data
2.03 Measurement Scales
2.04 Basic Statistics
2.05 Measures of Central Tendency
2.06 Measures of Dispersion
2.07 Data Collection Plan
2.08 Data Collection Plan: Steps
2.09 Develop a Measurement Plan
2.10 Collect Data
2.11 Sampling
2.12 Sampling Methods
2.13 Graphical Analysis
2.14 Graphical Analysis: Tools
2.15 Demo: Introduction to Minitab
2.16 Demo: Box Plot (One Variable)
2.17 Demo: Box Plot (Three Variables)
2.18 Demo: Time Series Plot
2.19 Normal Distribution
2.20 Standard Normal Distribution
2.21 Demo: Normality Test
2.22 Key Takeaways

3.01 Learning Objectives
3.02 Measurement System Analysis: Overview
3.03 Good and Poor Measurement System Analysis
3.04 Measurement Error Categories
3.05 MSA Sources of Variation
3.06 Repeatability
3.07 Reproducibility
3.08 Accuracy
3.09 Bias
3.10 Stability
3.11 Linearity
3.12 MSA Types
3.13 Gage R&R Guidance in MINITAB
3.14 Gage R&R Ground Rules
3.15 Demo: Gage R&R Continuous Data
3.16 Attribute Agreement Analysis (AAA)
3.17 Attribute Gage Study
3.18 Demo: Gage R&R Attribute Data
3.19 Key Takeaways

4.01 Learning Objectives
4.02 Process Capability Overview
4.03 RUMBA Analysis
4.04 Process Capabilities
4.05 Data Types
4.06 Baseline Performance: Part One
4.07 Baseline Performance: Part Two
4.08 Components of Variation
4.09 Process Stability
4.10 Process Capability Indices
4.11 Demo: Capability Analysis Continuous Data
4.12 Process Capability Indices: Example
4.13 Demo: Capability Analysis Continuous Data Sigma Level
4.14 Z Score
4.15 Process Baseline
4.16 Defects per Unit
4.17 Defects per Million Opportunities
4.18 Attribute Data: Example
4.19 Short-Term and Long-Term Process Capability
4.20 Key Takeaways
4.21 Activity
4.22 Solution

1.01 Introduction to Analyze Phase
1.02 Learning Objectives
1.03 Frequency Distribution
1.04 Demo: Histogram
1.05 Probability Distribution
1.06 Types of Probability Distributions
1.07 Types of Discrete Probability Distributions
1.08 Types of Continuous Probability Distribution
1.09 Key Takeaways

2.01 Learning Objectives
2.02 Inferential Statistics
2.03 Branches of Inferential Statistics
2.04 Central Limit Theorem (CLT)
2.05 Key Takeaways

3.01 Learning Objectives
3.02 Basics of Hypothesis Testing
3.03 Confidence Interval
3.04 Significant Difference Between Datasets
3.05 Detecting Significance
3.06 Statistical Hypothesis Test
3.07 Hypothesis Testing Risks
3.08 Beta Risk
3.09 Power of a Hypothesis Test
3.10 Sample Size
3.11 Hypothesis Testing Roadmap
3.12 Key Takeaways

4.01 Learning Objectives
4.02 Normal Data
4.03 One-Sample T-test
4.04 One-Sample T-Test: Sample Size
4.05 Demo: One-Sample T-Test
4.06 Two-Sample T-Test
4.07 Two-Sample T-Test Example
4.08 Demo: Two-Sample T-Test
4.09 Demo: Bartlett Test
4.10 Paired T-Test
4.11 Demo: Paired T-Test
4.12 Z-Test for Hypothesis Testing
4.13 ANOVA
4.14 Demo: ANOVA
4.15 Residual Plots
4.16 Key Takeaways

5.01 Learning Objectives
5.02 Non-Parametric Tests
5.03 Mann Whitney Test
5.04 Demo: Mann Whitney Test
5.05 Kruskal Wallis Test
5.06 Demo: Kruskal Wallis Test
5.07 Mood's Median Test
5.08 Demo: Mood's Median Test
5.09 Friedman Test
5.10 Demo: Friedman Test
5.11 One-Sample Sign Test
5.12 Demo: One-Sample Sign Test
5.13 One-Sample Wilcoxon Test
5.14 Demo: One-Sample Wilcoxon Test
5.15 One-Sample Proportion Tests
5.16 Demo: One-Sample Proportion Test
5.17 Two-Sample Proportion Tests
5.18 Demo: Two-Sample Proportion Test
5.19 Chi-Square Tests
5.20 Demo: Chi-Square Test of Independence
5.21 Chi-Square Goodness-of-Fit Test
5.22 Demo: Chi-Square Goodness of Fit
5.23 Chi-Square Cross Tabulation
5.24 Demo: Chi-Square Cross Tabulation
5.25 Demo: Two-Sample T-Test with Levene F-Test
5.26 Key Takeaways
5.27 Exercise One
5.28 Exercise Two

1.01 Introduction to Improve Phase
1.02 Learning Objectives
1.03 Correlation
1.04 Demo: Correlation
1.05 Demo: Correlation Test Using Scatter Plot
1.06 Correlation and Causation
1.07 Predictor Measures and Results
1.08 Correlation Coefficients
1.09 Regression Analysis
1.10 Demo: Regression
1.11 Residual Analysis
1.12 Key Takeaways

2.01 Learning Objectives
2.02 Multi-Vari Analysis
2.03 Demo: Multi-Vari Analysis
2.04 Nonlinear Regression
2.05 Multiple Linear Regression
2.06 Demo: Multiple Linear Regression
2.07 Variance Inflation Factor (VIF)
2.08 Variance Inflation Factor (VIF): Example
2.09 Confidence Interval for Multiple Linear Regression
2.10 Box-Cox Transformation
2.11 Demo: Box-Cox Transformation
2.12 Key Takeaways

3.01 Learning Objectives
3.02 Design of Experiments (DOE)
3.03 Phases of DOE Process
3.04 Optimization and Confirmation Phase
3.05 Types of DOE Strategies
3.06 Full Factorial and Fractional Factorial Approaches
3.07 Principles of Experimental Design
3.08 Key Takeaways

4.01 Learning Objectives
4.02 Factorial Designs
4.03 Full Factorial Experiments
4.04 Demo: Full Factorial Experiments
4.05 Quadratic Models
4.06 Types of Response Surface Designs
4.07 Balanced and Orthogonal Designs
4.08 Center Points
4.09 Fractional Factorial Experiment
4.10 Confounding
4.11 Key Takeaways

5.01 Learning Objectives
5.02 Competitor Analysis
5.03 Benchmarking, Types of Benchmarking, and Best Practices
5.04 Team Tools
5.05 Pugh Analysis and Solution Prioritization Matrix
5.06 Process Redesign and Optimization
5.07 Cost Benefit Analysis (CBA)
5.08 Pilot Testing, Implementation, PDCA, and Prototyping
5.09 Project Plan
5.10 Project Plan Schedule
5.11 Project Plan Risks
5.12 Quality Function Deployment (QFD)
5.13 Failure Modes and Effects Analysis (FMEA)
5.14 Change Management in Lean Six Sigma
5.15 Roadmap for Design for Six Sigma
5.16 Key Takeaways

1.01 Introduction to Control Phase
1.02 Learning Objectives
1.03 Control Methods of Five S
1.04 Sort
1.05 Set in Order
1.06 Shine, Standardize, and Sustain
1.07 Kanban
1.08 Kanban Principles
1.09 Six Steps to Implement Kanban
1.10 Poka-Yoke or Mistake Proofing
1.11 Mistake Proofing: Examples
1.12 Key Takeaways

2.01 Learning Objectives
2.02 Statistical Process Control: Purpose
2.03 Control Charts
2.04 Control Charts: Objectives
2.05 Control Charts: Uses
2.06 Control Charts: Types
2.07 Control Charts: Steps
2.08 Subgroup
2.09 Considerations for Rational Subgrouping
2.10 Charts for Attribute Data
2.11 Tests for Special Causes
2.12 Demo: I-MR Chart
2.13 Demo: X-Bar-R Chart
2.14 Demo: XBar-S Chart
2.15 Demo: P-Chart
2.16 Demo: NP-Chart
2.17 Demo: U-Chart
2.18 Demo: C-Chart
2.19 Demo: CUSUM-Chart
2.20 Demo: EWMA-Chart
2.21 Key Takeaways

3.01 Learning Objectives
3.02 Project Cost Benefit Analysis
3.03 Return on Investment (ROI) and Return on Assets (ROA)
3.04 Cost Benefit Analysis
3.05 Cost Benefit Analysis: Steps
3.06 Net Present Value (NPV) and Internal Rate of Return (IRR)
3.07 Selecting the Right Solutions
3.08 Implementation of Proposed Solutions Roadmap
3.09 Control Plan
3.10 Elements of a Control Plan
3.11 Training, Monitoring, and Aligning Systems and Structures
3.12 Response Plan
3.13 Project Closure
3.14 Key Takeaways
3.15 Exercise

HBR Case Study: Akshaya Patra Foundation

HBR Case Study: Telenor

Lean Management

Lean Six Sigma Application in Information Technology
This industry-specific course on the application of Lean Six Sigma in information technology emphasizes Lean Six Sigma concepts and tools to address the constant challenges IT teams face in implementing process improvements. Learn through real-world examples and industry case studies to gain insight into the improvements that are possible by implementing Lean Six Sigma.

Lean Six Sigma in Healthcare
Learn how to apply Lean Six Sigma principles and methodologies to healthcare organizations in this course. It provides an industry-specific, practical understanding of how Lean practices can improve critical processes through real-world examples, case studies, and a hands-on project to reinforce your learning.

Exam & Certification FAQs

Why should I enroll in the Lean Six Sigma Expert Program?

The Lean Six Sigma Expert Program is designed to help professionals master advanced quality management and process improvement techniques. By combining Lean and Six Sigma methodologies, participants gain the skills to optimize operations, reduce inefficiencies, and drive measurable business improvements. This globally recognized certification also enhances employability and can positively impact career growth and earning potential.

Graduates of the program can pursue a variety of roles across industries, including:

  • Quality Assurance Manager
  • Process Improvement Consultant
  • Operations Analyst
  • Project Manager

Industries such as manufacturing, healthcare, finance, and logistics actively seek professionals certified in Lean Six Sigma to lead process optimization and quality enhancement initiatives.

There are no strict prerequisites. However, having a foundational understanding of business processes and a willingness to engage in data-driven problem-solving can enhance the learning experience. Experience in project management, operations, or quality assurance can also provide a helpful context for applying the methodologies.

Participants will develop expertise in:

  • The DMAIC (Define, Measure, Analyze, Improve, Control) framework for process improvement
  • Statistical analysis and data interpretation using tools like Minitab
  • Identifying and eliminating waste in processes
  • Implementing practical solutions to enhance efficiency and quality

The program emphasizes real-world application, preparing learners to make meaningful improvements in their organizations and drive operational excellence.

CERTIFICATE FOR Lean Six Sigma Expert
THIS CERTIFICATE IS AWARDED TO
Your Name
FOR SUCCESSFUL PARTICIPATION IN
Lean Six Sigma Expert
Issued By NVidya
Certificate ID __________
Date __________

Success Stories

Ananya Rao
Ananya Rao

““A transformative learning journey.””

"As an individual learner in India, this Expert program helped me take my Lean Six Sigma knowledge to the next level. The combination of live sessions, Harvard case studies, and real-world projects made the learning practical and actionable. I now confidently lead complex process improvement initiatives at my organization."

Michael Adams
Michael Adams

““Perfect blend of theory and hands-on application.””

“It exceeded expectations. The mix of simulations, advanced statistical tools, and GenAI modules helped our teams apply Lean Six Sigma principles directly to business challenges. It’s a comprehensive program that drives measurable impact."

Why Choose This Program?

Develop In-Demand Skills

Gain practical expertise crafted with industry and academic input.

Learn from Seasoned Professionals

Learn from seasoned professionals sharing real-world insights and case studies.

Engage in Applied Learning

Build skills through hands-on projects with real data and virtual labs.

Benefit from Continuous Support

Enjoy 24/7 access to mentors and a supportive learning community.

Frequently Asked Questions

What is the Lean Six Sigma Expert Program and who should take it?

The Lean Six Sigma Expert Program is designed for professionals aiming to master process improvement and quality management. It is ideal for individuals who want to lead efficiency initiatives, optimize operations, and make data-driven decisions to drive measurable business results.

Participants develop expertise in the DMAIC (Define, Measure, Analyze, Improve, Control) framework, statistical analysis using tools like Minitab, and techniques to eliminate waste and enhance processes. The program emphasizes applying these concepts in real-world projects to achieve tangible improvements.

While there are no strict prerequisites, learners should have at least a high school diploma or an undergraduate degree. Familiarity with business processes, project management, or quality management concepts can be helpful but is not mandatory.

Graduates can take on advanced roles such as:

  • Quality Assurance Manager
  • Process Improvement Consultant
  • Operations Analyst
  • Project Manager
  • Operational Excellence Leader
  • Lean Manufacturing Specialist

These roles span industries like healthcare, finance, logistics, and manufacturing.

Industries that rely heavily on operational efficiency and process optimization are particularly interested in Lean Six Sigma experts. Key sectors include manufacturing, automotive, electronics, healthcare, and transportation.

Yes. Many leading global companies, including IBM, Honeywell, General Electric, 3M, and Siemens, actively hire Lean Six Sigma-certified professionals to lead process improvement projects and quality initiatives.

The program combines theoretical knowledge with hands-on exercises and real-life case studies. Learners work on projects that simulate actual business challenges, equipping them to implement Lean Six Sigma methodologies effectively in their organizations.

Yes. Nvidya provides practice assessments for both Green Belt and Black Belt levels. These exercises help learners test their understanding, evaluate readiness, and gain confidence before attempting formal certification exams.

Salaries vary by region and experience. On average:

  • India: ₹8.83 LPA
  • United States: $81,000
  • United Kingdom: £37,000
  • Canada: C$80,000

Certification significantly enhances earning potential by demonstrating advanced skills in process optimization.

No, the certification exam fee is separate from the course fee. However, learners receive completion certificates upon finishing the program and meeting all requirements.

Absolutely. Nvidya offers recorded sessions for all live classes. You can watch any missed session at your convenience, ensuring you stay on track and complete the program successfully.

The program is highly practical, industry-aligned, and delivered by experienced instructors who bring real-world insights. Its flexible format allows professionals to balance learning with work commitments while gaining a globally recognized credential that adds tangible value to their careers.

The program is open to both beginners and experienced professionals. Applicants should have at least a bachelor’s degree. Prior work experience is optional but can help contextualize the learning.

Yes. Nvidya provides a range of Quality Management programs to help learners deepen their expertise, including:

  • Lean Six Sigma Green Belt
  • Lean Six Sigma Black Belt
  • Advanced Lean Six Sigma Master Programs
  • Introduction to Six Sigma
  • Specialized workshops on quality tools and methodologies

These courses are designed to enhance professional skills, improve operational efficiency, and boost career prospects.