This document provides an overview of Six Sigma, including its objectives, methodologies, tools, and an example of its implementation. It describes Six Sigma as a set of techniques for process improvement developed by Motorola to reduce defects. The key methodologies are DMAIC for improving existing processes and DMADV for designing new processes or products. Both follow five phases: Define, Measure, Analyze, Improve/Design, and Control. The document also lists common Six Sigma tools and software and gives an example of how Catalent Pharma Solutions used Six Sigma processes to improve efficiency and prevent product losses.
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Sr.# CONTENTS
Slide
No.
1. Introduction 3
2. Characteristics of Six Sigma 5
3. Six Sigma Objectives 6
4. Methodologies 11
5. DMAIC 13
6. DMADV 16
7. Software used for Six Sigma 19
8. Catalent Format Solutions 21
9. Conclusions 22
10. References 23
3. 1. Introduction
Six Sigma is a set of techniques, and tools for process
improvement. It was developed by Motorola in 1986.
Sir Bill Smith, “ the Father of six sigma”
introduce this quality improvement
Methodology.
Fig.1.1 Father of six sigma3
4. Definition
“Six Sigma seeks to improve the quality of
process outputs by identifying and removing the
causes of defects”
Six Sigma approach is a collection of managerial and statistical
concept and techniques that focuses on reducing variation in
processes and preventing deficiencies in product.
The concept of Variation states “NO two items
will be perfectly identical.”
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6. 3. Six Sigma Objectives
A.Overall Business Improvement
Six Sigma methodology focuses on business
improvement. Beyond reducing the number of
defects present in any given number of products.
Fig. 1.2 Focus team
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7. B. Remedy Defects/Variability
•Any business seeking improved numbers must reduce
the number of defective products or services it
produces
• Defective products can harm customer satisfaction
levels
Fig. 1.3 Defects 7
8. C. Reduce Costs
•Reduced costs equal increased profits
•A company implementing Six Sigma principles has to
look to reduce costs wherever it possibly can without
reducing quality.
Fig. 1.4 Reduce costs
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9. D. Improve Cycle Time
•Any reduction in the amount of time it takes to
produce a product or perform a service means money
saved, both in maintenance costs and personnel wages.
•Additionally, customer satisfaction improves when
both retailers and end users receive products sooner
than expected.
Fig. 1.5 Cycle time 9
10. E. Increase Customer Satisfaction
•Customer satisfaction depends upon successful
resolution of all Six Sigma’s other objectives.
•But customer satisfaction is an objective all its own.
•As soon as customers receive their products , more
satisfy they are.
Fig. 1.6 Feedback 10
11. 4. Methodologies
Six Sigma projects follow two project methodologies
• DMAIC
• DMADV
These methodologies, composed of five phases.
Fig. 1.7 Methodologies
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12. DMAIC is used for projects aimed at improving an
existing business process.
DMADV is used for projects aimed at creating new
product or process design.
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13. 5. DMAIC
The DMAIC project methodology has five phases
•Define
•Measure
•Analyze
•Improve
•Control
Fig. 1.8 DMAIC Strategy
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14. •Define
Define the system, the voice of the customer and
their requirements, and the project goals,
specifically.
•Measure
Measure key aspects of the current process and
collect relevant data.
•Analyze
Analyze the data to investigate and verify cause and
effect relationships. Seek out root cause of the defect
under investigation.
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15. •Improve
Improve or optimize the current process based upon
data analysis using techniques such as design of
experiments, or mistake proofing, and standard work to
create a new, future state process.
•Control
Control the future state process to ensure that any
deviations from target are corrected before they result
in defects.
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16. 6. DMADV
The DMADV project methodology has five phases
•Define
•Measure
•Analyze
•Design
•Verify
Fig. 1.9 DMADV Strategy
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17. •Define
Define design goals that are
consistent with customer demands
and the enterprise strategy.
• Measure
Measure and identify CTQs
(characteristics that are Critical To
Quality), product capabilities,
production process capability, and
risks.
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18. •Analyze
Analyze to develop and design
alternatives
•Design
Design an improved alternative, best
suited per analysis in the previous step
•Verify
Verify the design, set up pilot runs,
implement the production process and
hand it over to the process owner(s).
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19. 7. Software used for Six Sigma
•Arena
•JMP
•Mathematical
•MATLAB or GNU Octave
•Microsoft Visio
•STATISTICA
Fig. 1.10
STATISTICA
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21. 8. Catalent Pharma Solutions
Is a leader in developing solutions for the
pharmaceutical, veterinary, biological and consumer
health industries.
The company specifically required a solution for
their proprietary product known as Zydis.
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22. 9. Conclusion
•The project team devised a database to collect
information.
•Control charts were also completed and entered
automatically.
• The efficiency was improved by making these
changes.
•After two weeks of implementing Six Sigma
processes, the company prevented the loss of two
batches of product, which was worth 50,000 pounds.
This case study demonstrates how companies can
improve processes to meet Six Sigma standards,
prevent loses and save money
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23. References
•"The Inventors of Six Sigma". Archived from the original on
2005-11-06. Retrieved 2006-01-29.
•Tennant, Geoff (2001). SIX SIGMA: SPC and TQM in
Manufacturing and Services. Gower Publishing, Ltd.
p. 6. ISBN 0-566-08374-4.
•"About Motorola University". Archived from the original on
2005-12-22. Retrieved 2006-01-28.
•"Six Sigma: Where is it now?". 24 June 2003. Retrieved 2008-
05-22.
•Jump up to: a b c d Dusharme, Dirk. "Six Sigma Survey:
Breaking Through the Six Sigma Hype". Quality Digest
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