Design for Six Sigma
A Practical Approach through Innovation
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Design for Six Sigma (DFSS) is an innovative continuous improvement methodology for designing new products, processes, and services by integrating Lean and Six Sigma principles. This book will explain how the DFSS methodology is used to design robust products, processes, or services right the first time by using the voice of the customer to meet Six Sigma performance. Robust designs are insensitive to variation and provide consistent performance in the hands of the customer. DFSS is used to meet customer needs by understanding their requirements, considering current process capability, identifying and reducing gaps, and verifying predictions to develop a robust design.
This book offers:
- Methodology on how to implement DFSS in various industries
- Practical examples of the use of DFSS
- Sustainability utilizing Lean Six Sigma techniques and Lean product development
- Innovative designs using DFSS with concept generation
- Case studies for implementing the DFSS methodology
Design for Six Sigma (DFSS) enables organizations to develop innovative designs. In order to redesign an existing process or design a new process, the success is dependent on a rigorous process and methodology. DFSS ensures that there are minimal defects in the introduction of new products, processes, or services. The authors have compiled all of the tools necessary for implementation of a practical approach though innovation.
Table of Contents
Introduction. Design for Six Sigma Overview. History of Design for Six Sigma (relationship to Six Sigma). Design for Six Sigma Methodology (Roadmap). Design for Six Sigma Culture and Organizational Strategies. Identify. Project Charter (project description, goals, requirements, expectations, boundaries). Balanced Scorecard. Benchmarking. Project Management. Assess Risk. Invent/Innovate. Gathering the Voice of the Customer (survey design). Quality Function Deployment. Kano Model. TRIZ. Axiomatic Design. Assess Risk. Develop. Lean Product Development. Design for x Methods. Concept Generation. Pugh Concept Selection Matrix. Modeling of Technology. Design Failure Modes and Effects Analysis (talk about mistake proofing here too). Assess Risk. Optimize. Design of Experiments. Modeling of Robustness and Tunability (add ideal and transfer functions here too). System Additive Model. Process Failure Modes and Effects Analysis (add mistake proofing here too). Reliability Testing. Response Surface Methods. Measurement Systems Analysis. Assess Risk. Verify. Modeling of Variational Sensitivities (across the integrated technology platform). System Variance Model. Robustness Additive Models. Capability Analysis. Statistical Process Control. Future and Challenges of Design for Six Sigma. Assess Risk. Case Studies. Product DFSS Case Study. Healthcare DFSS Case Study. Service DFSS Case Study
Elizabeth Cudney, Ph.D. is an Associate Professor in the Engineering Management and Systems Engineering Department at Missouri University of Science and Technology. She received her B.S. in Industrial Engineering from North Carolina State University, Master of Engineering in Mechanical Engineering and Master of Business Administration from the University of Hartford, and her doctorate in Engineering Management from the University of Missouri – Rolla.
In 2014, Dr. Cudney was elected as an ASEM Fellow. In 2013, Dr. Cudney was elected as an ASQ Fellow. In 2010, Dr. Cudney was inducted into the International Academy for Quality. She received the 2008 ASQ A.V. Feigenbaum Medal and the 2006 SME Outstanding Young Manufacturing Engineering Award. She has published four books and over 40 journal papers. She is an ASQ Certified Quality Engineer, Manager of Quality/Operational Excellence, and Certified Six Sigma Black Belt. She is a member of the ASEE, ASEM, ASQ, IIE, and the Japan Quality Engineering Society (JQES).
Tina Agustiady is a certified Six Sigma Master Black Belt and Continuous Improvement Leader at BASF. Tina serves as a strategic change agent, infusing the use of Lean Six Sigma throughout the organization as a key member of the Site Leadership team. Tina improves cost, quality, and delivery at BASF through her use of Lean and Six Sigma tools while demonstrating the improvements through a simplification process. Tina has led many Kaizen, 5s, and Root Cause Analysis events through her career in the healthcare, food, and chemical industries.
Agustiady received a BS in industrial and manufacturing systems engineering from Ohio University. She earned her Black Belt and Master Black Belt certifications at Clemson University. Agustiady is also the Institute of Industrial Engineers (IIE) Lean Division board director and chairman for the IIE annual conferences and Lean Six Sigma conferences. She is an editor for the International Journal of Six Sigma and Competitive Advantage.