Unit 4 DB OM
Live Chat #4
Prof. Lori Forrest
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Phase IV – Group Project
Phase 4 Individual DB Due Saturday by 11:59 PM
Peer Responses Due Tuesday
Late assignments? – contact me
Work
Smart
The
End
Is
Close
Management would like to just implement one of Deming's points each year. First, which of the points do you think is most important and why? Secondly, do you believe that this methodology would be effective? Why or why not?
Post your comments to at least two other postings. Each comment must be at least 150 words in length. Use the 2X2 matrix to comment (e.g., two things you liked about the posting and two things the student could have included to improve the posting, including errors or excluding erroneous information).
Group Project
The transportation costs for the Ultamyacin are high, but so are the costs of building an entirely new manufacturing facility. A description of the processes is listed. The company does not know how to proceed but is beginning to embrace TQM thinking. To encourage this new direction, you want to bring more information and analysis to the next management meeting. You believe Deming's steps could be applied here, as well as process mapping to determine what the company should do next.
Group Portion (Small Group Discussion Board):
Research each of Deming's 14 points for management. Then, on the Discussion Board, include the following items:
Which of the points do you think are most important, and why?
If management were to implement one of Deming's points each year, do you believe that this methodology would be effective? Why or why not?
Create an ideal process map with minimal waste. How will the new process meet each of Deming's 14 points?
Summary Portion:
From the group discussion, submit the following:
A document that contains the streamlined, optimum process map
A second document that explains the following:
How the new process will address each of Deming's 14 points, as compared to the old process
How your team has optimized the process
Managerial and employee goals and communication processes to reach each of Deming's Points in the future
Within your group, you may divide Deming's points to summarize the findings and submit those documents.
Group Project
Two documents need to be submitted
- Individual submissions: Research Deming’s points to answer the task list questions AND create a process Map – current process/New Process
- Group Submission:
Answering:
a. How the new process will address each of Deming's 14 points, as compared to the old process
b. How your team has optimized the process
c. Managerial and employee goals and communication processes to reach each of Deming's Points in the future
Recommend Teams to Assign Points to each Team Member to complete
Group Project
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- Small Group DB submission:
- Research each of Deming's 14 points for management. Then, on the Discussion Board, include the following items:
- Which of the points do you think are most important, and why?
- If management were to implement one of Deming's points each year, do you believe that this methodology would be effective? Why or why not?
- Create an ideal process map with minimal waste. How will the new process meet each of Deming's 14 points?
Group Project – Individual Questions
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Group Project – Process Map
- Walter A. Shewhart - Developed statistical control process methods to distinguish between random and nonrandom variation in industrial processes to keep processes under control.
- Joseph M. Juran - Emphasized the importance of producing quality products through an approach focused on quality planning, control, and improvement.
- Armand Feigenbaum - Proposed the concept of “total quality control,” making quality everyone’s responsibility
- Philip Crosby - Preached that “quality is free.”
- Genichi Taguchi - Emphasizes the minimization of variation (Concerned with the cost of quality to society)
- W. Edwards Deming - Identified 14 points critical for improving quality
- Create constancy of purpose toward product quality to achieve organizational goals.
- Refuse to allow commonly accepted levels of poor quality.
- Stop depending on inspection to achieve quality.
- Use fewer suppliers, and select them based on quality and dependability instead of price.
- Instill programs for continuous improvement of costs, quality, service, and productivity.
- Train all employees on quality concepts.
- Focus supervisions on helping people to do a better job.
- Eliminate fear, create trust, and encourage two-way communication between workers and management.
- Eliminate barriers between departments, and encourage joint problem solving.
- Eliminate the use of numerical goals and slogans to make workers work harder.
- Use statistical methods for continuous improvement of quality and productivity instead of numerical quotas.
- Remove barriers to pride of workmanship.
- Encourage education and self-improvement for everyone.
- Clearly define management's permanent commitment to quality and productivity.
Which of the 14- points of Deming do you think is most important and why?
Implementation
is easier said
than done –
What is action plan?
Value Stream Mapping Defined
- All the actions (both value-added and non value-added) currently “required” to produce a product, where a product could be a service (i.e. information) or a tangible good (i.e. a dispenser), and/or
- The simple process of directly observing the flows of information and materials as they now occur, summarizing them visually, and then envisioning a future state with much better performance.
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Information example could be the help desk.
Value Stream Analysis Example
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Value Stream Analysis–
Cross Functional Example
Also know as swim lanes…
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Purpose of Value Stream Mapping
Enable people to see the flow of material and information through the Value Stream.
Identify sources of MUDA (waste) and other opportunities to improve.
Identify financial opportunities within the current state.
Provide leadership clarity and responsibility to transform current state to future.
Helps you visualize the process and to create the vision
Common language
Decisions based on facts, not gut feel
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Why do we call it a Value Stream?
- Value assumes that you are creating something of value that a customer is willing to pay for.
- Stream refers to a sequential flow of activities needed to create work units and deliver them to the customer.
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VSM Deliverables (Outputs)
- Current State Map – How it is
- Future State Map – How it could be
- Action Plan – The steps required to move us from the Current State to the Future State
- Measure & Review – Did it work?
- Repeat
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What are the outputs of the process?
Three Main Areas of Focus
- Material Flow
- Information Flow
- People/Process
- Customers
- Internal
- External
- Processes
- Upstream
- Downstream
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WASTE IDENTIFICATION EXAMPLE
PO Autosourcing Project
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Current State Process
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Waste Identified
Buyer navigates through five pages within PeopleSoft
Waiting Waste
Rework Waste
Processing Waste
Motion Waste
Processing Waste
Motion Waste
Motion Waste
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Desired Future State Process
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Source:
Davis, Aquilano, & Chase, Fundamentals of Operations Management, 4e
Describing quality from the perspective of the customer’s
Continuous rise in the level of quality for today’s goods and services.
Problems encountered in managing service quality
Identifying quality measurements that are most critical to customers
Preventing the costs of poor quality products and services
Customer loyalty that is more and more based on quality
Quality in Goods
Performance
Features
Reliability
Durability
Conformance
Serviceability
Aesthetics
Perceived quality
Quality in Services
Tangibles
Reliability
Responsiveness
Competence
Courtesy
Credibility
Security
Access
Communication
Understanding the customer
Example: Business Opportunity
- How a Reduction in Errors in Loan Applications Affects Customers and the Business.
- Discussion Points on Value Creation
- Growth
- Competitive Advantage
- Loyalty – Value Creation Opportunity
- Reduced Costs
| Opportunity | Customer Impacts | Business Impact |
| Error Reduction in Loan Application | Reduce Time to Process Loan Applications Improve Customer Satisfaction | Reduced Transaction Cost Increased Capacity Reduced Transaction Errors Reduced Number of Bad Loans Increased Employee Satisfaction |
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Process Output Indicators
CTQ’s & CTP’s
VOB
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_____
_____
Business
Issues
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CBR’s
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CTP’s
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CTQ’s
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Output
Indicators
VOC
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Customer
Issues
______
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CCR’s
______
______
______
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- Why Use It?
- Identifies the CTQ characteristics
- A CTQ has the following features:
- Critical to the customer’s perception of quality
- It can be measured
- Specification can be set to tell whether the CTQ has been achieved
- What does it do?
- Links customer needs (VOC) data collected with drivers
Critical-to-Quality Tree
SOURCE: iSixSigma Magazine
Need Drivers CTQs
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Good Customer Service
Knowledgeable CSR
Friendly CSR
Short Wait
Answers by by CSR are correct
CSR can answer questions without further research
Researched information is returned quickly
Customers are not interrupted
Customers are greeted by name
Customers are transferred immediately to the person who can help them
Time on hold is minimal
- Metrics drive behavior
- Customers are critical to future success
- SIPOC has highlighted customers, suppliers, and process steps leading to potential metrics.
- Important to talk to customers and stakeholders to identify THEIR requirements.
- Not all voices are equal: users versus buyers.
- Market segmentation
VOC as Requirements
Why do we care so much about our customers? Why not just do what makes the most sense for the business? Make the least expensive product and deal with customer returns? This is truly how some business managers “feel” but most know that being successful means putting your customers first, regardless how far out some of their requirements may seem.
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Pareto Chart
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The Pareto chart was introduced in the 1940s by Joseph M. Juran, who named it after the Italian economist and statisti- cian Vilfredo Pareto, 1848–1923. It is applied to distinguish the“vital few from the trivial many” as Juran formulated the purpose of the Pareto chart. It is closely related to the so- called 80/20 rule– “80% of the problems stem from 20% of the causes,” or in Six Sigma terms“80% of the poor values in
Y stem from 20% of the Xs.”
In the Six Sigma improvement methodology, the Pareto chart has two primary applications. One is for selecting appropriate improvement projects in the define phase. Here it offers a very objective basis for selection, based on, for example, frequency of occurrence, cost saving and improvement potential in process performance.
The other primary application is in the analyze phase for identifying the vital few causes (Xs) that will constitute the greatest improvement in Y if appropriate measures are taken.
A procedure to construct a Pareto chart is as follows:
1) Define the problem and process characteristics to use in the diagram.
2) Define the period of time for the diagram– for example, weekly, daily, or shift. Quality improvements over time can later be made from the information determined within this step.
3) Obtain the total number of times each characteristic occurred.
4) Rank the characteristics according to the totals from step 3.
5) Plot the number of occurrences of each characteristic in descending order in a bar graph along with a cumu- lative percentage overlay.
6) Trivial columns can be lumped under one column des- ignation; however, care must be exercised not to omit small but important items.
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Cause & Effect / Fishbone Diagram
Allows a team to identify, explore, and graphically display, in increasing detail, important possible causes related to a problem or condition to discover its root cause(s).
Enables a team to focus on the content of the problem, not on the history of the problem or differing personal interests of the team members.
Creates a snapshot of the collective knowledge and consensus of a team around a problem. This builds support for the resulting solutions.
Focuses the team on causes, not symptoms.
Utilize tool – Ask Why 5 Times?
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Fishbone Diagram
(1) Cause-and-effect diagram
An effective tool as part of a problem-solving process is the cause-and-effect diagram, also known as the Ishikawa diagram (after its originator) or fishbone diagram. This technique is use- ful to trigger ideas and promote a balanced approach in group brainstorming sessions where individuals list the perceived sources (causes) with respect to outcomes (effect). The effect is written in a rectangle on the right-hand side, and the causes are listed on the left-hand side. They are connected with arrows to show the cause-and-effect relationship.
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Metrics & Reporting
- Track expected performance
- Define project value and ROI
- Management tool for decision making
- Should report on actionable business drivers
- Define reporting frequency based on feedback from end-user
- Seek to understand how the data will be used before developing reporting
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Balanced Scorecard
Revised
| Weekly Performance | January | Status | 3 Months Rolling Actuals | ||||||||||
| Cost | Week 1 | Week 2 | Week 3 | Week 4 | Week 5 | Target/Goal | October | November | December | ||||
| # of Purchase Orders Issued | 2.5 | 2.4 | 2.6 | 2.4 | Red | 3.2 | 2.4 | 2.5 | |||||
| # of Releases | 19.6 | 20.8 | 19.6 | 19 Hours | Yellow | 21.1 | 17.1 | 17.4 | |||||
| # of Change Orders | $ 17,953 | $ 17,500 | $ 16,758 | $ 17,000 | Green | $ 17,929 | $ 16,660 | $ 16,738 | |||||
| Inventory On-Hand - Raw Material $$ | $ (62) | $ (48) | $ (28) | $ (100) | Green | $ (187) | $ (323) | $ (398) | |||||
| MRO Expense $$ | |||||||||||||
| # of Items Created | |||||||||||||
| Purchase Price Variance (Fav) $$ | $ (62) | $ (48) | $ (28) | $ (100) | Green | $ (187) | $ (323) | $ (398) | |||||
| Quality | |||||||||||||
| # of Rejects | 99.1% | 98.0% | 94.0% | 99.5% | Green | 99.9% | 99.0% | 99.5% | |||||
| Cycle Count Accuracy | |||||||||||||
| Cycle Count Items | 94.0% | 96.0% | 96.5% | 98.0% | Green | 99.0% | 99.2% | 99.7% | |||||
| # of Receiving Issues | |||||||||||||
| # of Active Stock Items vs. N/SP | |||||||||||||
| # of Items Reviewed | |||||||||||||
| # of Attachments | $ 232 | $ 263 | $ 455 | $ 595 | Red | $ 828 | $ (82) | $ 628 | |||||
| Delivery | |||||||||||||
| Material Issued $$ | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Material Issued - Item Count | 99.9% | 99.7% | 100.0% | 100.0% | Yellow | 100.0% | 99.9% | 99.8% | |||||
| Pick Release to Ship (Hours) | 8 | 3 | 6 | 0 | Red | 7 | 19 | 11 | |||||
| $ 927 | $ 918 | $ 913 | $ 3,500 | Yellow | $ 3,595 | $ 3,415 | $ 3,919 | ||||||
| On-Time Delivery (Suppliers) | 90.5% | 88.0% | 88.0% | 95.0% | Red | 0.0% | 82.0% | 90.0% | |||||
| Process Improvement | |||||||||||||
| ERS Voucher Accuracy | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| PO Auto Sourcing % | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Supplier Tracking Issues Logged | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Consignment / VMI | |||||||||||||
Draft
| Weekly Performance | January | Status | 3 Months Rolling Actuals | ||||||||||
| Cost | Week 1 | Week 2 | Week 3 | Week 4 | Week 5 | Target/Goal | October | November | December | ||||
| Storeroom Personnel Per Item | 2.5 | 2.4 | 2.6 | 2.4 | Red | 3.2 | 2.4 | 2.5 | |||||
| # of Purchase Orders Issued | 19.6 | 20.8 | 19.6 | 19 Hours | Yellow | 21.1 | 17.1 | 17.4 | |||||
| Inventory On-Hand - Raw Material $$ | $ 17,953 | $ 17,500 | $ 16,758 | $ 17,000 | Green | $ 17,929 | $ 16,660 | $ 16,738 | |||||
| Purchase Price Variance (Fav) $$ | $ (62) | $ (48) | $ (28) | $ (100) | Green | $ (187) | $ (323) | $ (398) | |||||
| # of Change Orders | $ (62) | $ (48) | $ (28) | $ (100) | Green | $ (187) | $ (323) | $ (398) | |||||
| Quality | |||||||||||||
| First Pass Yield - Internal | 99.1% | 98.0% | 94.0% | 99.5% | Green | 99.9% | 99.0% | 99.5% | |||||
| Cycle Count Accuracy | |||||||||||||
| Incoming Supplier Quality Performance (SQP) | 94.0% | 96.0% | 96.5% | 98.0% | Green | 99.0% | 99.2% | 99.7% | |||||
| Warranty - External $$ | $ 232 | $ 263 | $ 455 | $ 595 | Red | $ 828 | $ (82) | $ 628 | |||||
| Delivery | |||||||||||||
| Material Issued $$ | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Material issued on Time % | 99.9% | 99.7% | 100.0% | 100.0% | Yellow | 100.0% | 99.9% | 99.8% | |||||
| Complaints Logged | 8 | 3 | 6 | 0 | Red | 7 | 19 | 11 | |||||
| Pick Release to Ship (Hours) | $ 927 | $ 918 | $ 913 | $ 3,500 | Yellow | $ 3,595 | $ 3,415 | $ 3,919 | |||||
| On-Time Delivery (Suppliers) | 90.5% | 88.0% | 88.0% | 95.0% | Red | 0.0% | 82.0% | 90.0% | |||||
| Process Improvement | |||||||||||||
| ERS Voucher Accuracy | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| PO Auto Sourcing % | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Supplier Tracking Issues Logged | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
| Consignment / VMI | 200 | 225 | 189 | 700 | Green | 789 | 900 | 450 | |||||
Technical Quality versus Functional Quality
- Technical quality refers to the core element of the good or service.
- Functional quality refers to the customer’s perception of how the good functions or the service is delivered.
Expectations and Perceptions
Another approach is to measure how satisfied customers are with the service they received
Their satisfaction is relative to:
Prior expectations about the service
Perception of how well the service was provided
Satisfaction = (Perception of Performance) – (Expectation)
Additional aspects of Quality
By definition:
Framework for identifying quality components that are related to producing both high quality products and low quality components, with the goal of minimizing the total cost of quality.
Three major Categories:
Cost of Prevention
Cost of Detection/Appraisal
Cost of Failure
Cost of Quality
Cost of Prevention - Before
Cost associated with the development of programs to prevent defectives from occurring in the first place
What’s included?
Investments – technology, machinery, education (training programs)
Cost of Detection/Appraisal - During
Cost associated with the test and inspection of subassemblies and products after they have been made
What’s included?
Material inspection, test throughout the production process
Cost of Failure - After
Cost associated with the failure of a defective product
Includes customer complaints
Internal failure costs – cost incurred when defects are produced
External failure costs - cost incurred after delivery
Total Quality Management (TQM)
An approach for integrating quality at all levels of an organization
Organization-wide initiative encompassing all functional areas and levels within the organization.
Focuses on producing high quality goods and services.
Dealing with Quality Initiatives
Four Elements
- Leadership - Top management vision, planning and support
- Employee involvement - employees assume responsibility for inspecting the quality of their work.
- Product/Process Excellence - Involves product design quality and monitoring the process for continuous improvement.
- Continuous Improvement - A concept that recognizes that quality improvement is a journey with no end and that there is a need for continually looking for new approaches for improving quality.
TQM Elements
- Lack of a company-wide definition of quality.
- Lack of a formalized strategic plan for change.
- Lack of a customer focus.
- Poor inter-organizational communication.
- Lack of real employee empowerment.
- Lack of employee trust in senior management.
- View of the quality program as a quick fix.
- Drive for short-term financial results.
- Politics and turf issues.
Obstacles to TQM Implementation
Production vs. Service Operations
- What is different about service operations?
- Customer Presence and Participation
- Using Customers as Labor
- When the Product is an Experience
- Difficulties in Stocking a Service
- Intangibles
Most services have an element of product-based operations integrated with service delivery. A pure service operation does not exist. Methods which may be used to design, implement and evaluate product operations are relevant to service.
Situations faced by service operations managers may be less significant and/or less frequently encountered by the production/manufacturing manager. The points at which comparisons can be made include:
Customer Presence and Participation
Using Customers as Labor
When the Product is an Experience
Difficulties in Stocking a Service
Intangibles
Print Page 5, 6, & 7…
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Defining Expectations
- Clearing establish the outcome of a process
- Benefits of Defining the Expectations for a Process
- Establishes a standard for decision making
- Provides a mechanism for resolving interdepartmental conflicts
- Allows for “Thinking Outside the Box”
- Useful in evaluating new technology
- Expectations Should Include
- Cost
- Time between demand and delivery
- Environment
- Level of Service
- Level of Customer Support
- Description of customer’s experience
- Quality of the product or service
Clearly establishing the outcome of a process is highly desirable..but it is often overlooked.
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Understanding the Customer
- Who is the Customer?
- A Customer can be an individual or a group
- A Customer can be the next step in the process
- A process can have multiple customers with differing needs
- Determining What the Customer Wants
- Focus Groups
- Demographic data
- Customer History
- Industry Trends
- Customer Surveys
- Complaints / Feedback
Page 9 & 10
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Design of a Product or Service
- The point when engineering / designers and makers / deliverers is the point at which conflict can occur
- Creative ideas or nice designs do not always deliver a profit
- Operations managers bring valuable problem-solving skills to the design review
- Can we produce it as designed?
- Design should account for the limitations and constraints of existing equipment, capacity, facilities and expertise
- Service design should concentrate on utilization and efficiency in addressing demand variation and customer participation
Page 11
Think about things like, can these new products be made alongside old products using existing technology?
Page 14…
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Operations Finance Reporting
- Cost of Failure
- Pulse Reporting
- Supplier Performance Reports
- Quality Reporting
- On-Time Delivery Reporting
- Cost Savings
Cost of Failure - Background
Failure
So how we define the true cost of a product or service?
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Sheet1
| Open Ideas feed to machine | ||||
| $13 M | Funnel (Yellow/Red Projects) | |||
| Internal Plan $$ | $ 8M | Planned Hedges (Green Projects) | ||
| Committed $$ | $ 4M | (Green Projects) | ||
| Answer = | $4M with $4M hedge |
Sheet2
| Project Name | Annual Savings 000s | 2010 Savings | Q1 | Q2 | Q3 | Q4 | |
| Engineering - Cost Savings | 3,581 | 1,847 | - 0 | 61 | 857 | 929 | |
| Materials - Cost Savings | 3,801 | 3,561 | 820 | 608 | 900 | 1,233 | |
| Cost Avoidance / Working Capital | 1,120 | - 0 | - 0 | - 0 | - 0 | 43 | |
| Total Projects | 8,502 | 5,408 | 820 | 669 | 1,757 | 2,205 | |
| Cost of Quality | Unproductive / Waste | ||||||
| Overhead | Prevention, Quality | ||||||
| Production Cost | Productivity | ||||||
Sheet3
Quality Control
Failure
| Cost of Quality | |||
| Overhead | Prevention, Quality | Prevention, Quality | |
| Production Cost | |||
| Cost of Product or Service | |||
| if we were to do it Right the | |||
| 1st Time |
Here is where one of my favorite subjects comes into play. Quality control overlaps with Lean and Six Sigma efforts to eliminate waste and reduce variation.
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Cost of Quality Components
- Prevention Costs
- Appraisal Costs
- Continuous Improvement Efforts
- “Cost of Failure” (COF)
- Internal Failure Costs
- External Failure Costs
- Lost Opportunity Costs
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Prevention Costs…
- The costs of all activities specifically designed to prevent poor quality in products and services.
- Keep problems from occurring.
- Cost of quality activities performed before production starts.
- Examples…employee training, design for quality or manufacturability…
Prevention Costs Examples
- Marketing/Customer/User Marketing Research
- Customer Perception Surveys
- Contract/Document Review
- Product/Design Development
- Design Quality Progress Review
- Design Support Activities
- Product/Service Design Qualification Test
- Field Trial
- Supplier Reviews/Ratings
- Purchase Order Technical Data Review
- Supplier Quality Planning
- Operations Prevention Costs
- Operations Process Validation
- Operations Quality Planning
- Design of Measurement/Control Equipment
- Operator Quality Education
- Operator Process Control
- Quality Administrative Salaries and Expenses
- Quality Program Planning
- Quality Performance Planning and Reporting
- Quality Education
- Quality Improvement
- Quality Systems Audits
Can you all think of any other prevention related costs? For a new company, many of these actually “cost” money to develop and design…
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Appraisal Costs
- Costs associated with measuring, evaluating or auditing products or services to ensure conformance to quality standards and performance requirements
- Cost of quality activities conducted during production or upon completion of production.
- Measuring and monitoring production processes and output
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Appraisal Costs Examples
- Purchasing Appraisal Costs
- Receiving / Incoming Inspection and Test
- Measurement Equipment
- Qualification of Supplier Product
- Source Inspection and Control Programs
- Manufacturing Appraisal Costs
- Planned Inspections, Tests, Audits
- Checking Labor
- Product or Service Quality Audits
- Inspection and Test Materials
- Set-up Inspections and Tests
- Measurement Equipment Expense
- Maintenance and Calibration Labor
- Outside Endorsements and Certifications
- External Appraisal Costs
- Field Performance Evaluation
- Special Product Evaluations
- Evaluation of Field Stock and Spare Parts
- Review of Test and Inspection Data
- Special Testing
- Process Control Measurement
- Laboratory Support
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Continuous Improvement Costs
- Costs associated with training staff to focus on operational excellence. This includes ensuring that employees at all levels of the organization understand their impact on the bottom line.
- Lean and Six Sigma efforts focused on process improvements.
- Costs associated with efforts around monitoring and controlling, best practices centers around dedicated resources.
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Cost of Failure – Internal Costs
- Failure costs occurring due to discovery of defects in process but prior to product / service delivery or shipment.
- Cost of fixing or disposing of defective products before delivery to customer.
- Cost of quality activities triggered by discovery of defects “in-house.”
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COF – Internal Costs Examples
- Design Corrective Action
- Rework - Design Change
- Scrap – Design Change
- Purchasing Failure Costs
- Purchased Material Reject Disposition
- Purchased Material Replacement Costs
- Supplier Corrective Action
- Rework of Supplier Rejects
- Uncontrolled material losses
- Manufacturing Failure Costs
- Material Review / Corrective Action
- Disposition Costs
- Troubleshooting / Failure Analysis
- Investigation Support Costs
- Operations Corrective Action
- Failure to Transfer from Design to Manufacturing
- Rework
- Repair
- Reinspection / Retest Costs
- Poor Characterization
- Poor Optimization
- Poor Communication
- Poor Documentation
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Cost of Failure – External Costs
- Costs incurred due to defects discovered (by the customer) after the product has been shipped or the service has been delivered.
- Cost of quality activities triggered by discovery of defects after delivery to customers.
- Examples: Warranty claims, Field Service, Help Desk Calls, Returns and Allowances
COF – External Costs Examples
- Customer Complaint Investigation
- Returns / Refunds
- Field Service / Retrofit
- Recalls
- Warranty Claims
- Help Desk Calls
- Liability Costs
- Penalties
- Customer / User Goodwill
- Other External Failure Costs
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COF – Lost Opportunity Examples
- Failure to Enter a New Market Because of….
- Delayed Market Entry
- Lost Sales
- Lost Customers
- Additional Shifts, Lines, Plants Due to Poor Productivity
- Competitor Obtains Patent Rights Before We do
- Reliability Issues
- Safety Issues
- Ergonomic Issues
- Legal Issues
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Cost of Failure Quantified
Goal =
2.5%
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Sheet1
| Open Ideas feed to machine | ||||
| $13 M | Funnel (Yellow/Red Projects) | |||
| Internal Plan $$ | $ 8M | Planned Hedges (Green Projects) | ||
| Committed $$ | $ 4M | (Green Projects) | ||
| Answer = | $4M with $4M hedge |
Sheet2
| Project Name | Annual Savings 000s | 2010 Savings | Q1 | Q2 | Q3 | Q4 | ||
| Engineering - Cost Savings | 3,581 | 1,847 | - 0 | 61 | 857 | 929 | ||
| Materials - Cost Savings | 3,801 | 3,561 | 820 | 608 | 900 | 1,233 | ||
| Cost Avoidance / Working Capital | 1,120 | - 0 | - 0 | - 0 | - 0 | 43 | ||
| Total Projects | 8,502 | 5,408 | 820 | 669 | 1,757 | 2,205 | ||
| Cost of Quality | ||||||||
| Overhead | Prevention, Quality | Prevention, Quality | ||||||
| Production Cost | ||||||||
| Cost of Product or Service | ||||||||
| if we were to do it Right the | ||||||||
| 1st Time |
Sheet3
| 2009 | 2010 | |||
| Net Sales | $ 1,049,159 | $ 947,163 | ||
| Costs | ||||
| Returns | 7,102 | 4,673 | ||
| Cancellations | 5,331 | 11,470 | ||
| Special Allowances | 3,536 | 3,347 | ||
| Expedite / Airfreight | 8,373 | 7,394 | ||
| Scrap | 3,822 | 2,961 | ||
| Rework | 2,563 | 4,276 | ||
| Overtime | 16,822 | 15,497 | ||
| Warranty Expense | 14,079 | 15,054 | ||
| E&O | 5,020 | 6,437 | ||
| Total Costs | $ 66,648 | $ 71,109 | ||
| COF % of Sales | 6.4% | 7.5% |
Cost of Failure Trend
COF YTD / Net Sales = Cost of Failure %
*
Chart1
| Jan | Jan |
| Feb | Feb |
| Mar | Mar |
| Apr | Apr |
| May | May |
| Jun | Jun |
| July | July |
Sheet1
| Actual | Goal | |
| Jan | 4.8 | 2.5 |
| Feb | 5.4 | 2.5 |
| Mar | 5.5 | 2.5 |
| Apr | 6 | 2.5 |
| May | 5.7 | 2.5 |
| Jun | 5.1 | 2.5 |
| July | 4.5 | 2.5 |
Problem Solving Example
What you need to do is look at total numbers of “failures”…then seek to root cause the why? For example if your issue was “inconsistent order information”, you could institute an order verification process. Your customer service manager might tell you that it would have an impact on the Order Entry errors of 80%. If, for example, your issue was “sales override”, you could implement a process that required executive approval for equipment returns, possibly creating a checklist.
This type of problem solving can be done for any failures…
*
Chart1
| Jan |
| Feb |
| Mar |
| Apr |
| May |
Sheet1
| Equipment Returns by Month | |
| Jan | 61 |
| Feb | 21 |
| Mar | 120 |
| Apr | 54 |
| May | 41 |
| To resize chart data range, drag lower right corner of range. |
Chart1
| Order Entry |
| Sales Override |
| Customer Error |
| Other |
Sheet1
| Pareto by Category | |
| Order Entry | 171 |
| Sales Override | 53 |
| Customer Error | 20 |
| Other | 53 |
| To resize chart data range, drag lower right corner of range. |
Closing Thoughts…
*
Good Customer
Service
Knowledgeable
CSR
Friendly CSR
Short Wait
Answers by by
CSR are correct
CSR can answer
questions without
further research
Researched
information is
returned quickly
Customers are not
interrupted
Customers are
greeted by name
Customers are
transferred
immediately to the
person who can
help them
Time on hold is
minimal
JanuaryStatus
Cost
Week 1Week 2Week 3Week 4Week 5Target/Goal
OctoberNovemberDecember
Storeroom Personnel Per Item2.52.42.62.4Red3.22.42.5
# of Purchase Orders Issued19.620.819.619 HoursYellow21.117.117.4
Inventory On-Hand - Raw Material $$17,953$ 17,500$ 16,758$ 17,000$ Green17,929$ 16,660$ 16,738$
Purchase Price Variance (Fav) $$(62)$ (48)$ (28)$ (100)$ Green(187)$ (323)$ (398)$
# of Change Orders(62)$ (48)$ (28)$ (100)$ Green(187)$ (323)$ (398)$
Quality
First Pass Yield - Internal99.1%98.0%94.0%99.5%Green99.9%99.0%99.5%
Cycle Count Accuracy
Incoming Supplier Quality Performance (SQP)94.0%96.0%96.5%98.0%Green99.0%99.2%99.7%
Warranty - External $$232$ 263$ 455$ 595$ Red828$ (82)$ 628$
Delivery
Material Issued $$200225189700Green789900450
Material issued on Time %99.9%99.7%100.0%100.0%Yellow100.0%99.9%99.8%
Complaints Logged8360Red71911
Pick Release to Ship (Hours)927$ 918$ 913$ 3,500$ Yellow3,595$ 3,415$ 3,919$
On-Time Delivery (Suppliers)90.5%88.0%88.0%95.0%Red0.0%82.0%90.0%
Process Improvement
ERS Voucher Accuracy200225189700Green789900450
PO Auto Sourcing %200225189700Green789900450
Supplier Tracking Issues Logged200225189700Green789900450
Consignment / VMI200225189700Green789900450
Weekly Performance3 Months Rolling Actuals
Cost of QualityUnproductive / Waste
Overhead
Prevention,
Quality
Production CostProductivity
20092010
Net Sales
1,049,159$ 947,163$
Costs
Returns
7,102 4,673
Cancellations
5,331 11,470
Special Allowances
3,536 3,347
Expedite / Airfreight
8,373 7,394
Scrap
3,822 2,961
Rework
2,563 4,276
Overtime
16,822 15,497
Warranty Expense
14,079 15,054
E&O
5,020 6,437
Total Costs
66,648$ 71,109$
COF % of Sales
6.4%7.5%