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Six Sigma Green Belt Training Course

Comprehensive Six Sigma Green Belt training aligned with ASQ Body of Knowledge and IASSC standards.

Course Title

Six Sigma Green Belt

Course Duration

5 Days

Competency Assessment Criteria

Practical Assessment and knowledge Assessment

Training Delivery Method

Classroom (Instructor-Led) or Online (Instructor-Led)

Service Coverage

In Tamkene Training Center or On-Site: Covering Saudi Arabia (Dammam - Khobar - Dhahran - Jubail - Riyadh - Jeddah - Tabuk - Madinah - NEOM - Qassim - Makkah - Any City in Saudi Arabia) - MENA Region

Course Average Passing Rate

98%

Post Training Reporting 

Post Training Report + Candidate(s) Training Evaluation Forms

Certificate of Successful Completion

Verifiable certification is provided upon successful completion.

Certification Provider

PECB - Canada

Certificate Validity

3 Years

Instructors Languages

English / Arabic / Urdu / Hindi

Training Services Design Methodology

ADDIE Training Design Methodology

ADDIE Training Services Design Methodology (1).png

Course Overview

This comprehensive Six Sigma Green Belt training course provides participants with essential knowledge and practical skills required for leading process improvement projects and implementing quality management systems. The course covers fundamental Six Sigma principles along with advanced statistical techniques for process analysis, variation reduction, and continuous improvement.


Participants will learn to apply DMAIC methodology and industry best practices to achieve measurable business results throughout the improvement lifecycle. This course combines theoretical concepts with practical applications and real-world case studies to ensure participants gain valuable skills applicable to their professional environment while emphasizing operational excellence and customer satisfaction.

Key Learning Objectives

  • Understand fundamental Six Sigma principles and DMAIC methodology

  • Apply statistical analysis techniques for process improvement and variation reduction

  • Implement measurement systems analysis and process capability studies

  • Develop effective problem-solving strategies using Root Cause Analysis (RCA)

  • Design and execute process improvement projects with measurable outcomes

  • Apply proper statistical process control for sustained improvement

  • Evaluate and optimize business processes for enhanced performance

  • Implement quality management considerations in improvement initiatives

Group Exercises

  • DMAIC project documentation including (project charter, measurement plan, analysis reports, control plans)

  • Statistical analysis reports including (hypothesis testing results, capability studies, regression analysis)

  • Quality improvement proposals including (problem statements, root cause analysis, solution recommendations)

  • Process control documentation including (control chart development, SPC implementation, monitoring procedures)

Knowledge Assessment

  • DMAIC methodology application including (phase understanding, tool selection, deliverable development)

  • Statistical analysis proficiency including (hypothesis testing, regression analysis, control chart interpretation)

  • Problem-solving capability including (root cause analysis, solution development, implementation planning)

  • Quality management understanding including (standards knowledge, audit principles, continuous improvement)

Course Outline

1. Introduction to Six Sigma and Quality Management

1.1 Six Sigma Fundamentals
  • Six Sigma philosophy and methodology including (customer focus, data-driven decisions, process improvement)

  • Quality management evolution including (TQM, Lean, Six Sigma integration)

  • Six Sigma roles and responsibilities including (Champion, Black Belt, Green Belt, Yellow Belt)

  • Business benefits and ROI including (cost reduction, quality improvement, customer satisfaction)

  • Introduction to ASQ Body of Knowledge and IASSC standards for Six Sigma practitioners


1.2 Statistical Thinking and Data Analysis
  • Statistical concepts including (population, sample, variables, distributions)

  • Data types and measurement scales including (nominal, ordinal, interval, ratio)

  • Descriptive statistics including (central tendency, variability, shape)

  • Probability distributions including (normal, binomial, Poisson)

  • Statistical inference including (confidence intervals, hypothesis testing, p-values)


2. Define Phase

2.1 Project Selection and Definition
  • Project identification criteria including (business impact, feasibility, resource requirements)

  • Project charter development including (problem statement, scope, objectives, timeline)

  • Stakeholder analysis including (customer identification, voice of customer, requirements)

  • SIPOC methodology including (suppliers, inputs, process, outputs, customers)

  • Critical to Quality (CTQ) identification including (customer requirements, quality characteristics, specifications)


2.2 Voice of Customer and Requirements
  • Voice of Customer (VOC) collection including (surveys, interviews, focus groups, observation)

  • Customer requirements analysis including (Kano model, QFD, customer journey mapping)

  • Critical to Quality tree including (needs, drivers, requirements, specifications)

  • Project scope definition including (boundaries, inclusions, exclusions, constraints)

  • Team formation and roles including (project sponsor, team members, stakeholders)


3. Measure Phase

3.1 Data Collection and Measurement Systems
  • Data collection planning including (sampling strategy, data sources, collection methods)

  • Measurement systems analysis including (Gage R&R, bias, linearity, stability)

  • Operational definitions including (clear definitions, measurement procedures, standardization)

  • Process mapping including (value stream mapping, flowcharts, swim lane diagrams)

  • Baseline measurement including (current state assessment, performance metrics, data validation)


3.2 Process Capability and Statistical Analysis
  • Process capability studies including (Cp, Cpk, Pp, Ppk calculations)

  • Statistical process control including (control charts, process stability, capability assessment)

  • Normality testing including (Anderson-Darling, Shapiro-Wilk, normal probability plots)

  • Descriptive statistics including (mean, median, mode, standard deviation, variance)

  • Data visualization including (histograms, box plots, scatter plots, Pareto charts)


4. Analyze Phase

4.1 Root Cause Analysis and Problem Solving
  • Root Cause Analysis (RCA) techniques including (fishbone diagram, 5 Whys, fault tree analysis)

  • Statistical hypothesis testing including (t-tests, chi-square tests, ANOVA)

  • Correlation and regression analysis including (linear regression, multiple regression, correlation coefficients)

  • Process analysis including (value-added analysis, waste identification, bottleneck analysis)

  • Cause and effect relationships including (statistical significance, practical significance, confidence levels)


4.2 Statistical Tools and Techniques
  • Hypothesis testing methodology including (null hypothesis, alternative hypothesis, test statistics)

  • Confidence intervals including (mean confidence intervals, proportion confidence intervals)

  • Statistical power and sample size including (power calculations, alpha risk, beta risk)

  • Multi-vari analysis including (positional, cyclical, temporal variation)

  • Design of experiments fundamentals including (factorial designs, screening experiments, response surface methodology)


5. Improve Phase

5.1 Solution Development and Implementation
  • Solution generation including (brainstorming, creative problem solving, benchmarking)

  • Solution selection criteria including (impact assessment, feasibility analysis, cost-benefit analysis)

  • Pilot testing including (pilot design, data collection, results analysis)

  • Implementation planning including (project planning, resource allocation, timeline development)

  • Change management including (communication strategy, training, resistance management)


5.2 Design of Experiments and Optimization
  • Experimental design principles including (randomization, replication, blocking)

  • Factorial experiments including (full factorial, fractional factorial, screening designs)

  • Response surface methodology including (central composite design, optimization techniques)

  • Statistical optimization including (response optimization, desirability functions)

  • Robust design including (Taguchi methods, parameter design, tolerance design)


6. Control Phase

6.1 Statistical Process Control
  • Control chart selection including (X-bar R charts, X-bar S charts, individual charts)

  • Control chart implementation including (control limits, plotting rules, interpretation)

  • Process monitoring including (SPC implementation, alarm systems, response protocols)

  • Mistake-proofing including (poka-yoke, error prevention, detection systems)

  • Process standardization including (standard operating procedures, work instructions, training)


6.2 Sustainability and Continuous Improvement
  • Control plan development including (control methods, measurement systems, response plans)

  • Process capability monitoring including (ongoing capability studies, trend analysis)

  • Continuous improvement culture including (kaizen, suggestion systems, employee engagement)

  • Project closure including (documentation, lessons learned, benefits realization)

  • Knowledge transfer including (training development, best practice sharing, mentoring)


7. Lean Six Sigma Integration

7.1 Lean Principles and Tools
  • Lean thinking including (value identification, waste elimination, flow optimization)

  • Value stream mapping including (current state, future state, improvement opportunities)

  • Waste identification including (muda, mura, muri, eight wastes)

  • Lean tools including (5S, kanban, standard work, visual management)

  • Lean Six Sigma synergy including (speed and quality, waste reduction, variation reduction)


7.2 Process Flow and Efficiency
  • Process flow analysis including (cycle time, lead time, throughput)

  • Bottleneck identification including (theory of constraints, capacity analysis)

  • Takt time and demand analysis including (customer demand, production rate, capacity planning)

  • Single piece flow including (batch size reduction, setup time reduction)

  • Pull systems including (kanban systems, demand-driven production, inventory reduction)


8. Team Leadership and Project Management

8.1 Team Dynamics and Leadership
  • Team formation including (team selection, role definition, team charter)

  • Team leadership including (motivation, communication, conflict resolution)

  • Meeting facilitation including (agenda setting, participation, decision making)

  • Stakeholder management including (communication planning, expectation management)

  • Change leadership including (change models, resistance management, adoption strategies)


8.2 Project Management Fundamentals
  • Project planning including (work breakdown structure, scheduling, resource planning)

  • Risk management including (risk identification, assessment, mitigation strategies)

  • Communication management including (stakeholder communication, reporting, documentation)

  • Quality management including (quality planning, quality assurance, quality control)

  • Project monitoring including (progress tracking, milestone management, corrective actions)


9. Advanced Statistical Methods

9.1 Regression Analysis and Modeling
  • Simple linear regression including (correlation analysis, regression equation, significance testing)

  • Multiple regression including (model building, variable selection, model validation)

  • Logistic regression including (binary outcomes, odds ratios, model interpretation)

  • Polynomial regression including (curved relationships, model fitting, prediction)

  • Regression diagnostics including (residual analysis, outlier detection, assumption checking)


9.2 Analysis of Variance and Comparative Studies
  • One-way ANOVA including (between-group variation, within-group variation, F-test)

  • Two-way ANOVA including (interaction effects, main effects, factor analysis)

  • Non-parametric tests including (Mann-Whitney, Kruskal-Wallis, chi-square tests)

  • Comparative studies including (before-after comparisons, control group analysis)

  • Multi-variate analysis including (principal component analysis, cluster analysis)


10. Quality Tools and Problem-Solving Techniques

10.1 Quality Management Tools
  • Seven basic quality tools including (check sheets, histograms, Pareto charts, cause-and-effect diagrams)

  • Seven management tools including (affinity diagrams, tree diagrams, matrix diagrams)

  • Statistical quality control including (acceptance sampling, quality audits, supplier quality)

  • Quality function deployment including (house of quality, customer requirements, design specifications)

  • Failure mode and effects analysis including (FMEA process, risk priority numbers, prevention strategies)


10.2 Problem-Solving Methodologies
  • Systematic problem solving including (problem definition, analysis, solution development)

  • Creative problem solving including (brainstorming techniques, lateral thinking, innovation)

  • Decision-making tools including (decision matrices, cost-benefit analysis, risk assessment)

  • Implementation strategies including (pilot testing, full implementation, monitoring)

  • Verification and validation including (solution effectiveness, sustainability, improvement)


11. HSE in Quality Management

  • Process safety management including (hazard identification, risk assessment, safety protocols)

  • Environmental considerations including (environmental impact, sustainability, resource conservation)

  • Occupational health and safety including (workplace safety, ergonomics, health protection)

  • Regulatory compliance including (quality standards, safety regulations, environmental requirements)

  • Risk management integration including (operational risk, safety risk, environmental risk)


12. Quality Assurance and Standards

  • ISO 9001 quality management system including (quality policy, process approach, continuous improvement)

  • Quality assurance principles including (prevention, detection, correction, improvement)

  • Quality auditing including (internal audits, external audits, audit methodology)

  • Supplier quality management including (supplier selection, evaluation, development)

  • Quality documentation including (quality manual, procedures, work instructions, records)


13. Case Studies & Group Discussions

  • Regional improvement projects from Middle East operations including (manufacturing processes, service delivery, administrative functions)

  • Complex Six Sigma projects including (multi-departmental initiatives, cross-functional teams, organizational change)

  • Statistical analysis exercises including (hypothesis testing scenarios, capability studies, control chart interpretation)

  • Problem-solving simulations including (real-world challenges, team-based solutions, implementation planning)

  • The importance of proper training in developing competent Six Sigma practitioners and achieving sustainable improvements

Practical Assessment

  • Six Sigma project simulation including (complete DMAIC cycle, statistical analysis, solution implementation)

  • Statistical software application including (data analysis, chart creation, report generation)

  • Team leadership exercises including (meeting facilitation, conflict resolution, stakeholder management)

  • Quality tool application including (process mapping, measurement system analysis, control plan development)

Gained Core Technical Skills

  • Comprehensive DMAIC methodology implementation using ASQ Body of Knowledge and IASSC standards

  • Advanced statistical analysis and process capability assessment for data-driven decision making

  • Six Sigma project leadership and team management for successful improvement initiatives

  • Root Cause Analysis (RCA) and problem-solving techniques for systematic process improvement

  • Statistical process control and measurement systems analysis for quality assurance

  • Continuous improvement and change management for sustainable organizational transformation

Training Design Methodology

ADDIE Training Design Methodology

Targeted Audience

  • Quality engineers and quality assurance professionals seeking process improvement expertise

  • Manufacturing engineers and operations managers implementing continuous improvement

  • Process improvement specialists and business analysts driving organizational change

  • Project managers and team leaders requiring statistical problem-solving skills

  • Engineers and technical professionals pursuing quality management advancement

  • Operations personnel responsible for process optimization and waste reduction

  • Management professionals implementing quality initiatives and performance improvement

  • Technical staff involved in data analysis and process control activities

Why Choose This Course

  • Comprehensive Six Sigma Green Belt certification preparation with industry-recognized methodology

  • Practical application through real-world case studies and statistical analysis exercises

  • Focus on DMAIC methodology and statistical tools for measurable business improvement

  • Integration of Lean principles with Six Sigma for comprehensive process improvement

  • Hands-on experience with statistical software and quality management tools

  • Development of essential leadership and project management skills for career advancement

  • Emphasis on sustainable improvement and organizational change management

  • Access to comprehensive training materials and professional development resources

Note

Note: This course outline, including specific topics, modules, and duration, is subject to change and also can be customized based on the specific needs and requirements of the client.

Course Outline

1. Introduction to Six Sigma and Quality Management

1.1 Six Sigma Fundamentals
  • Six Sigma philosophy and methodology including (customer focus, data-driven decisions, process improvement)

  • Quality management evolution including (TQM, Lean, Six Sigma integration)

  • Six Sigma roles and responsibilities including (Champion, Black Belt, Green Belt, Yellow Belt)

  • Business benefits and ROI including (cost reduction, quality improvement, customer satisfaction)

  • Introduction to ASQ Body of Knowledge and IASSC standards for Six Sigma practitioners


1.2 Statistical Thinking and Data Analysis
  • Statistical concepts including (population, sample, variables, distributions)

  • Data types and measurement scales including (nominal, ordinal, interval, ratio)

  • Descriptive statistics including (central tendency, variability, shape)

  • Probability distributions including (normal, binomial, Poisson)

  • Statistical inference including (confidence intervals, hypothesis testing, p-values)


2. Define Phase

2.1 Project Selection and Definition
  • Project identification criteria including (business impact, feasibility, resource requirements)

  • Project charter development including (problem statement, scope, objectives, timeline)

  • Stakeholder analysis including (customer identification, voice of customer, requirements)

  • SIPOC methodology including (suppliers, inputs, process, outputs, customers)

  • Critical to Quality (CTQ) identification including (customer requirements, quality characteristics, specifications)


2.2 Voice of Customer and Requirements
  • Voice of Customer (VOC) collection including (surveys, interviews, focus groups, observation)

  • Customer requirements analysis including (Kano model, QFD, customer journey mapping)

  • Critical to Quality tree including (needs, drivers, requirements, specifications)

  • Project scope definition including (boundaries, inclusions, exclusions, constraints)

  • Team formation and roles including (project sponsor, team members, stakeholders)


3. Measure Phase

3.1 Data Collection and Measurement Systems
  • Data collection planning including (sampling strategy, data sources, collection methods)

  • Measurement systems analysis including (Gage R&R, bias, linearity, stability)

  • Operational definitions including (clear definitions, measurement procedures, standardization)

  • Process mapping including (value stream mapping, flowcharts, swim lane diagrams)

  • Baseline measurement including (current state assessment, performance metrics, data validation)


3.2 Process Capability and Statistical Analysis
  • Process capability studies including (Cp, Cpk, Pp, Ppk calculations)

  • Statistical process control including (control charts, process stability, capability assessment)

  • Normality testing including (Anderson-Darling, Shapiro-Wilk, normal probability plots)

  • Descriptive statistics including (mean, median, mode, standard deviation, variance)

  • Data visualization including (histograms, box plots, scatter plots, Pareto charts)


4. Analyze Phase

4.1 Root Cause Analysis and Problem Solving
  • Root Cause Analysis (RCA) techniques including (fishbone diagram, 5 Whys, fault tree analysis)

  • Statistical hypothesis testing including (t-tests, chi-square tests, ANOVA)

  • Correlation and regression analysis including (linear regression, multiple regression, correlation coefficients)

  • Process analysis including (value-added analysis, waste identification, bottleneck analysis)

  • Cause and effect relationships including (statistical significance, practical significance, confidence levels)


4.2 Statistical Tools and Techniques
  • Hypothesis testing methodology including (null hypothesis, alternative hypothesis, test statistics)

  • Confidence intervals including (mean confidence intervals, proportion confidence intervals)

  • Statistical power and sample size including (power calculations, alpha risk, beta risk)

  • Multi-vari analysis including (positional, cyclical, temporal variation)

  • Design of experiments fundamentals including (factorial designs, screening experiments, response surface methodology)


5. Improve Phase

5.1 Solution Development and Implementation
  • Solution generation including (brainstorming, creative problem solving, benchmarking)

  • Solution selection criteria including (impact assessment, feasibility analysis, cost-benefit analysis)

  • Pilot testing including (pilot design, data collection, results analysis)

  • Implementation planning including (project planning, resource allocation, timeline development)

  • Change management including (communication strategy, training, resistance management)


5.2 Design of Experiments and Optimization
  • Experimental design principles including (randomization, replication, blocking)

  • Factorial experiments including (full factorial, fractional factorial, screening designs)

  • Response surface methodology including (central composite design, optimization techniques)

  • Statistical optimization including (response optimization, desirability functions)

  • Robust design including (Taguchi methods, parameter design, tolerance design)


6. Control Phase

6.1 Statistical Process Control
  • Control chart selection including (X-bar R charts, X-bar S charts, individual charts)

  • Control chart implementation including (control limits, plotting rules, interpretation)

  • Process monitoring including (SPC implementation, alarm systems, response protocols)

  • Mistake-proofing including (poka-yoke, error prevention, detection systems)

  • Process standardization including (standard operating procedures, work instructions, training)


6.2 Sustainability and Continuous Improvement
  • Control plan development including (control methods, measurement systems, response plans)

  • Process capability monitoring including (ongoing capability studies, trend analysis)

  • Continuous improvement culture including (kaizen, suggestion systems, employee engagement)

  • Project closure including (documentation, lessons learned, benefits realization)

  • Knowledge transfer including (training development, best practice sharing, mentoring)


7. Lean Six Sigma Integration

7.1 Lean Principles and Tools
  • Lean thinking including (value identification, waste elimination, flow optimization)

  • Value stream mapping including (current state, future state, improvement opportunities)

  • Waste identification including (muda, mura, muri, eight wastes)

  • Lean tools including (5S, kanban, standard work, visual management)

  • Lean Six Sigma synergy including (speed and quality, waste reduction, variation reduction)


7.2 Process Flow and Efficiency
  • Process flow analysis including (cycle time, lead time, throughput)

  • Bottleneck identification including (theory of constraints, capacity analysis)

  • Takt time and demand analysis including (customer demand, production rate, capacity planning)

  • Single piece flow including (batch size reduction, setup time reduction)

  • Pull systems including (kanban systems, demand-driven production, inventory reduction)


8. Team Leadership and Project Management

8.1 Team Dynamics and Leadership
  • Team formation including (team selection, role definition, team charter)

  • Team leadership including (motivation, communication, conflict resolution)

  • Meeting facilitation including (agenda setting, participation, decision making)

  • Stakeholder management including (communication planning, expectation management)

  • Change leadership including (change models, resistance management, adoption strategies)


8.2 Project Management Fundamentals
  • Project planning including (work breakdown structure, scheduling, resource planning)

  • Risk management including (risk identification, assessment, mitigation strategies)

  • Communication management including (stakeholder communication, reporting, documentation)

  • Quality management including (quality planning, quality assurance, quality control)

  • Project monitoring including (progress tracking, milestone management, corrective actions)


9. Advanced Statistical Methods

9.1 Regression Analysis and Modeling
  • Simple linear regression including (correlation analysis, regression equation, significance testing)

  • Multiple regression including (model building, variable selection, model validation)

  • Logistic regression including (binary outcomes, odds ratios, model interpretation)

  • Polynomial regression including (curved relationships, model fitting, prediction)

  • Regression diagnostics including (residual analysis, outlier detection, assumption checking)


9.2 Analysis of Variance and Comparative Studies
  • One-way ANOVA including (between-group variation, within-group variation, F-test)

  • Two-way ANOVA including (interaction effects, main effects, factor analysis)

  • Non-parametric tests including (Mann-Whitney, Kruskal-Wallis, chi-square tests)

  • Comparative studies including (before-after comparisons, control group analysis)

  • Multi-variate analysis including (principal component analysis, cluster analysis)


10. Quality Tools and Problem-Solving Techniques

10.1 Quality Management Tools
  • Seven basic quality tools including (check sheets, histograms, Pareto charts, cause-and-effect diagrams)

  • Seven management tools including (affinity diagrams, tree diagrams, matrix diagrams)

  • Statistical quality control including (acceptance sampling, quality audits, supplier quality)

  • Quality function deployment including (house of quality, customer requirements, design specifications)

  • Failure mode and effects analysis including (FMEA process, risk priority numbers, prevention strategies)


10.2 Problem-Solving Methodologies
  • Systematic problem solving including (problem definition, analysis, solution development)

  • Creative problem solving including (brainstorming techniques, lateral thinking, innovation)

  • Decision-making tools including (decision matrices, cost-benefit analysis, risk assessment)

  • Implementation strategies including (pilot testing, full implementation, monitoring)

  • Verification and validation including (solution effectiveness, sustainability, improvement)


11. HSE in Quality Management

  • Process safety management including (hazard identification, risk assessment, safety protocols)

  • Environmental considerations including (environmental impact, sustainability, resource conservation)

  • Occupational health and safety including (workplace safety, ergonomics, health protection)

  • Regulatory compliance including (quality standards, safety regulations, environmental requirements)

  • Risk management integration including (operational risk, safety risk, environmental risk)


12. Quality Assurance and Standards

  • ISO 9001 quality management system including (quality policy, process approach, continuous improvement)

  • Quality assurance principles including (prevention, detection, correction, improvement)

  • Quality auditing including (internal audits, external audits, audit methodology)

  • Supplier quality management including (supplier selection, evaluation, development)

  • Quality documentation including (quality manual, procedures, work instructions, records)


13. Case Studies & Group Discussions

  • Regional improvement projects from Middle East operations including (manufacturing processes, service delivery, administrative functions)

  • Complex Six Sigma projects including (multi-departmental initiatives, cross-functional teams, organizational change)

  • Statistical analysis exercises including (hypothesis testing scenarios, capability studies, control chart interpretation)

  • Problem-solving simulations including (real-world challenges, team-based solutions, implementation planning)

  • The importance of proper training in developing competent Six Sigma practitioners and achieving sustainable improvements

Why Choose This Course?

  • Comprehensive Six Sigma Green Belt certification preparation with industry-recognized methodology

  • Practical application through real-world case studies and statistical analysis exercises

  • Focus on DMAIC methodology and statistical tools for measurable business improvement

  • Integration of Lean principles with Six Sigma for comprehensive process improvement

  • Hands-on experience with statistical software and quality management tools

  • Development of essential leadership and project management skills for career advancement

  • Emphasis on sustainable improvement and organizational change management

  • Access to comprehensive training materials and professional development resources

Note: This course outline, including specific topics, modules, and duration, is subject to change and also can be customized based on the specific needs and requirements of the client.

Practical Assessment

  • Six Sigma project simulation including (complete DMAIC cycle, statistical analysis, solution implementation)

  • Statistical software application including (data analysis, chart creation, report generation)

  • Team leadership exercises including (meeting facilitation, conflict resolution, stakeholder management)

  • Quality tool application including (process mapping, measurement system analysis, control plan development)

Course Overview

This comprehensive Six Sigma Green Belt training course provides participants with essential knowledge and practical skills required for leading process improvement projects and implementing quality management systems. The course covers fundamental Six Sigma principles along with advanced statistical techniques for process analysis, variation reduction, and continuous improvement.


Participants will learn to apply DMAIC methodology and industry best practices to achieve measurable business results throughout the improvement lifecycle. This course combines theoretical concepts with practical applications and real-world case studies to ensure participants gain valuable skills applicable to their professional environment while emphasizing operational excellence and customer satisfaction.

Key Learning Objectives

  • Understand fundamental Six Sigma principles and DMAIC methodology

  • Apply statistical analysis techniques for process improvement and variation reduction

  • Implement measurement systems analysis and process capability studies

  • Develop effective problem-solving strategies using Root Cause Analysis (RCA)

  • Design and execute process improvement projects with measurable outcomes

  • Apply proper statistical process control for sustained improvement

  • Evaluate and optimize business processes for enhanced performance

  • Implement quality management considerations in improvement initiatives

Knowledge Assessment

  • DMAIC methodology application including (phase understanding, tool selection, deliverable development)

  • Statistical analysis proficiency including (hypothesis testing, regression analysis, control chart interpretation)

  • Problem-solving capability including (root cause analysis, solution development, implementation planning)

  • Quality management understanding including (standards knowledge, audit principles, continuous improvement)

Targeted Audience

  • Quality engineers and quality assurance professionals seeking process improvement expertise

  • Manufacturing engineers and operations managers implementing continuous improvement

  • Process improvement specialists and business analysts driving organizational change

  • Project managers and team leaders requiring statistical problem-solving skills

  • Engineers and technical professionals pursuing quality management advancement

  • Operations personnel responsible for process optimization and waste reduction

  • Management professionals implementing quality initiatives and performance improvement

  • Technical staff involved in data analysis and process control activities

Main Service Location

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