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BASIC QUALITY 
Using an FMEA 
In a Service Setting 
by Cecelia McCain 
he use of corrective action—being reactive 
to quality performance problems by iden-tifying 
and eliminating the root cause of 
nonconformities—is very common. Getting ahead 
of potential problems and designing them out of 
processes or preventing them from occurring is a 
different challenge. 
ISO 9001 includes item 8.5.3, which requires pre-ventive 
action to eliminate occurrence and recur-rence 
of nonconformities. 
Compuware Corp. recently underwent an audit 
conducted by a third-party ISO 9001 registrar and 
24 I SEPTEMBER 2006 I www.asq.org 
received certification for its product, support and 
selected services delivery groups. 
During the audit the auditor said, “Of course 
you don’t use failure mode and effects analysis 
[FMEA]” and then asked, “So, how do you address 
the preventive action requirement?” She was quite 
surprised to learn the process design activities for 
Compuware’s nonmanufacturing SOPs did include 
the use of an FMEA. 
FMEA Components 
At Compuware, project teams use an FMEA to 
test a process design—or solution—during quality 
planning and quality improvement projects to 
ensure the process is capable of meeting features 
and goals. The teams have found an FMEA addres-ses 
the root causes of a problem, meets the desired 
outcomes and deliverables and can be implement-ed 
effectively. 
An FMEA is a quality tool that allows the user to 
examine the process from the viewpoint of its 
potential for failure (what could go wrong in the 
process) and plan for its control through service, 
product or process design requirements. The 
potential for failure is designed out of the process 
before it reaches the customer. 
If you have documented processes, regardless of 
whether you are in a manufacturing or service 
environment, an FMEA easily can be applied to the 
steps of those processes. 
T 
In 50 Words 
Or Less 
• ISO 9001 requires preventive action to eliminate 
occurrence and recurrence of nonconformities. 
• Compuware uses failure mode effects analysis (FMEA) 
to ensure its service designs and processes meet 
desired outcomes and can be implemented effectively. 
• FMEA also can help service companies continually 
improve.
Take a closer look at the tool itself, starting with 
Figure 1. 
When completing an FMEA, begin by complet-ing 
the header section, which includes the name of 
the individual preparing the FMEA, the project 
team responsible for designing the process and the 
individual who owns the process that is being 
designed. 
Because working with an FMEA is an ongoing 
task, not a one-time event, also assign responsibili-ty 
and document the name 
of the individual who will be 
charged with maintaining 
the FMEA after its original 
creation. 
Finally, document the 
original date on which the 
FMEA was created. As the 
FMEA is revisited, reviewed 
and revised throughout the 
life of the process, the revi-sion 
date portion of the 
header section is updated 
accordingly. 
Column one of an FMEA 
is the service feature, which 
is something you anticipate 
doing or creating to meet 
customer needs, or process 
feature, the steps necessary 
to deliver the feature. At Compuware, project 
teams transfer the features from a customer needs 
clarification spreadsheet. 
The customer needs clarification spreadsheet is 
used to express customer needs in precise (measur-able) 
terms. The spreadsheet breaks down each pri-mary 
need so specific service or product and 
process features and goals (responses to need) can 
be developed. 
In the example shown in Figure 2, a quality 
QUALITY PROGRESS I SEPTEMBER 2006 I 25 
Prepared by: 
Project team: 
Owner: 
Responsibility: 
FEMA date: Original: 
Revision: 
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 
Service or 
process 
feature 
Potential 
failure 
mode 
Potential 
effects 
of failure 
SEV 
Potential 
cause of 
failure 
OCC DET RPN Recommended 
action 
Who Acts 
and target 
completion 
date 
Action 
taken SEV OCC DET RPN 
FIGURE 1 FMEA Template 
SEV = severity rating 
OCC = occurrence rating 
DET = detection rating 
RPN = rating priority number 
FIGURE 2 Customer Needs Clarification Spreadsheet 
Project: service delivery process 
Customer needs Response to need 
Primary 
needs 
Clarified 
needs 
Service or product 
feature (what) 
Process 
feature (how) 
Process 
feature goal 
Establish and 
maintain a 
core group 
of contract 
employees 
Sufficient 
numbers of 
employees 
available for 
long-term 
assignments 
On-site recruiting 
On-site hiring 
Preassignment 
screening process 
Develop process flow 
Implement and 
manage on-site 
recruiting process 
Implement and 
manage on-site 
hiring process 
Manage hiring and 
preassignment 
screening process 
Long-term orders 
filled 100% of the 
time 
100% on-time fill 
of long-term 
orders 
Improved ratio 
of employees 
available vs. 
assigned
BASIC QUALITY 
Effect Severity Rating Criteria 
No effect 1 Failure would have no effect on the customer. 
Slight effect 2 Customer is dissatisfied but still uses our products and services. 
Moderate effect 4 Failure results in confrontation with customer, and additional cost is incurred. 
Significant effect 6 Failure is significant, and customer rejects service. 
Major effect 8 Customer experiences downtime or excessive failure rates, and large costs are incurred. 
Extreme effect 10 Products or services do not comply with government regulations. 
planning project team was assigned the task of 
developing a service delivery process to ensure a 
steady pipeline of contract employees would be 
available to meet short- and long-term assignment 
needs. The team used the customer needs clarifica-tion 
spreadsheet to break down each primary cus-tomer 
need requiring further clarification. 
Brainstorming, a group technique for generating 
new, useful ideas, is used to complete the next two 
columns of an FMEA. Because project teams are 
identifying potential failures, brainstorming is very 
important to the successful completion of an FMEA. 
Brainstorming gives each person on the project 
team the opportunity to express his or her ideas 
without being interrupted or criticized. It allows 
more creative ideas to be generated quickly than 
does an unstructured discussion, which often 
focuses on who rather than what is right. 
Column two in the FMEA template (Figure 1, 
p. 25), potential failure mode, is about problems 
that can result while designing the feature or imple-menting 
the process—how the feature might fail. 
Column three, potential effect of failures, is a state-ment 
of the negative consequences of a failure. 
Column four is used to determine the severity 
rating (SEV) for each potential effect listed in col-umn 
three. Using a scale (see Figure 3) of one (no 
effect) to 10 (extreme effect), project teams brain-storm 
to determine how severely the effect of the 
failure impacts the customer. When possible, it also 
is quite helpful to include customers in the FMEA 
process, especially when determining severity. 
Failure Mode Detection and Rating 
Next, for each of the potential failure modes list-ed 
in column two (Figure 1), the team brainstorms 
26 I SEPTEMBER 2006 I www.asq.org 
to identify potential causes and list them in column 
five. 
Column six allows the project team to assign an 
occurrence rating (OCC), which scores the likeli-hood 
the cause documented in column five will 
occur. Again, a rating scale from one (almost never) 
to 10 (almost certain) is used to assign the rating. 
If a process is performing very efficiently, the 
likelihood the cause of the failure will occur is very 
small—thus a low rating. If a process is performing 
very inefficiently, with a high number of errors, the 
likelihood that the cause of the failure will occur is 
very high—thus a high rating. 
A typical occurrence rating table for an FMEA in 
a manufacturing facility would begin with one in 
1.5 million occurrences, which is not realistic for 
service companies. 
As you develop an occurrence rating table for 
your own service setting, examine the processes 
with the highest productivity, such as paycheck 
processing, invoice processing, order taking and 
call handling. Determine which of those processes 
have the highest level of productivity, such as 
number of paychecks processed each month, and 
set the failure rates accordingly. 
In the Compuware example shown in Figure 4, 
there are no processes with productivity more than 
30,000 occurrences each month, so that is the num-ber 
we chose to start with before moving down the 
scale accordingly. 
Column seven (Figure 1) is the detection rating 
(DET). Project teams determine how likely it is cur-rent 
process controls will detect the cause of the 
failure listed in column five. As with the previous 
columns, a rating (see Figure 5, p. 28) from one 
(almost certain) to 10 (almost never) is used. If cur- 
FIGURE 3 Severity Rating Table for FMEA
rent controls are almost certain to detect the cause 
of the failure, a low rating is assigned. If there is a 
remote likelihood current controls will detect the 
cause or there are no controls in place to detect the 
cause, a high rating is assigned. 
Column eight (Figure 1, p. 25) is the rating prior-ity 
number (RPN), which helps project teams de-termine 
which issues need the most attention. The 
RPN is calculated as: 
SEV x OCC x DET = RPN 
The remaining columns of Figure 1, nine 
through 15, are used to lower the RPN on potential 
failures with an RPN of 150 or higher. Column 
nine, recommended actions, describes activities to 
be taken or what can be done to prevent the poten-tial 
failure. Column 10 identifies who is assigned to 
complete the recommended actions and the time-frame 
the actions are targeted to be completed. 
Remember, the objective is to take action before 
these failures reach the customer. 
Column 11, action taken, describes what was 
actually done to mitigate the effect or reduce the 
impact of the failure on the customer. Columns 12 
through 15 are used to recalculate the RPN by mul-tiplying 
severity by occurrence by detection. If the 
RPN is still too high, the project team needs to 
return to column nine and identify additional 
action to be taken until the RPN is reduced to a 
level below 150. 
FMEA Example 
Let’s look at an example in 
which a project team was develop-ing 
a service delivery process to 
provide contract employees for 
assignments at external customer 
locations. At Compuware, even 
though we use the service, product 
or process features listed on the 
customer needs clarification 
spreadsheet to conduct the FMEA, 
we also could use the steps of a 
high level process flow diagram. 
The example shown in Figure 6 
begins with the process feature 
“implement and manage on-site 
recruiting process” from the cus-tomer 
needs clarification spread- 
sheet illustrated in Figure 2 (p. 29). 
The potential failure mode (how the feature 
might fail) was determined to be “on-site recruit-ing 
process not implemented,” and the potential 
effect (negative consequences) was identified as 
“insufficient numbers of employees available.” 
The project team assigned a severity rating of 
eight, meaning an insufficient number of employ-ees 
available for assignment would have a major 
effect on the customer. The potential cause of the 
failure (why this might happen) was determined to 
be “no one available to conduct on-site recruiting,” 
with an OCC of 8 (high), and a DET of 3 (high). 
Multiply severity, by occurrence by detection to 
calculate the RPN: 
SEV x OCC x DET = RPN 
8 x 8 x 3 = 192 
Remember, an RPN of 150 or higher needs to be 
investigated and the process improved until the 
RPN is reduced successfully . 
The recommended action was for branch man-agers 
to cross train recruiters on the on-site recruit-ing 
process by Nov. 15, 2006. The process owner 
was responsible for ensuring the branch managers 
completed the cross training and for notifying the 
project team when training was completed. 
Once the actions were completed, the project 
team’s next step was to determine whether the 
actions successfully reduced the RPN of 192. The 
FIGURE 4 Occurrence Rating Table for FMEA 
Occurrence Rating Failure Rate Criteria 
Almost never 1 1 in 30,000 Process inefficiency very unlikely. 
Remote 2 1 in 10,000 Remote number of process inefficiencies. 
Very slight 3 1 in 4,000 Very few process inefficiencies. 
Slight 4 1 in 2,000 Few process inefficiencies. 
Low 5 1 in 400 Occasional number of process inefficiencies. 
Medium 6 1 in 80 Moderate number of process inefficiencies. 
Moderately high 7 1 in 20 Frequent process inefficiencies. 
High 8 1 in 10 High number of process inefficiencies. 
Very high 9 1 in 5 Very high number of process inefficiencies. 
Almost certain 10 1 in 3 Process inefficiencies almost certain to occur. 
History shows many process inefficiencies. 
QUALITY PROGRESS I SEPTEMBER 2006 I 27
BASIC QUALITY 
project team determined the actions taken did 
reduce the OCC from an eight (high) to two 
(remote). In other words, the action taken reduced 
the likelihood the cause will occur by increasing 
the pool of trained recruiters. 
The project team also determined the action 
taken improved the DET from a rating of high 
(three), to a rating of very high (two), by improving 
the likelihood it could detect the cause before the 
customer could be impacted. Note that the SEV of 
eight did not change, because the effect of failure 
on the customer did not change. The new RPN was 
calculated as follows: 
SEV x OCC x DET = RPN 
28 I SEPTEMBER 2006 I www.asq.org 
8 x 2 x 2 = 32 
Once the actions were completed and the new 
RPN calculated, the revision date was entered into 
the header section of the FMEA. 
These steps were repeated until all the features 
from the customer needs clarification spreadsheet 
were included on the FMEA. Process flow diagrams 
also were revised as needed to reflect the actions 
taken as the project team works through the FMEA. 
To maintain the FMEA, the process owner needs 
to review and revise it anytime a change is made to 
the process. Also, as processes are reviewed, which 
should be at least annually, the FMEA should be 
reviewed to ensure nothing has changed that 
would impact the RPN of any of the features. 
FMEA and Continuous Improvement 
An FMEA also can be a useful tool to help ser-vice 
organizations identify improvement opportu-nities. 
Look at the service related processes within your 
own company and determine which processes 
have the biggest impact on your external cus-tomers. 
Conduct an FMEA to identify features of 
the process with the highest RPNs, create a Pareto 
analysis to rank the features by RPN and initiate 
quality improvement projects. 
A good candidate for improvement in most com-panies 
is the invoicing process. Improving invoic-ing 
not only benefits the customer by increasing 
such things as the quality, accuracy and timeliness 
of invoices but also benefits the company by com-pressing 
payment turnaround time and accelerat-ing 
cash flow. 
For example, let’s say one step or process feature 
in the invoicing process is to enter information into 
the billing system. To complete the FMEA, the next 
step is to determine how this feature might fail 
(potential failure mode), such as inaccurate data 
entered into the system. 
What is the potential effect of the failure? The 
customer would receive an incorrect invoice, to 
which an SEV of four (moderate effect) is assigned. 
The rating of four is appropriate because the defin-ition 
of this rating is, “Failure results in confronta- 
FIGURE 5 Detection Rating Table for FMEA 
Effect Rating Criteria 
Almost certain 1 Controls are in place and almost certain to detect the failure mode. 
Very high 2 Very high likelihood current controls will detect the failure mode. 
High 3 High likelihood current controls will detect the failure mode. 
Moderately high 4 Moderately high likelihood current controls will detect the failure mode. 
Medium 5 Medium likelihood current controls will detect the failure mode. 
Low 6 Low likelihood current controls will detect the failure mode. 
Slight 7 Slight likelihood current controls will detect the failure mode. 
Very slight 8 Very slight likelihood current controls will detect the failure mode. 
Remote 9 Remote likelihood current controls will detect the failure mode. 
Almost impossible 10 No controls in place to detect the failure mode.
allowed Compuware to meet the ISO 9001 require-ment 
for preventive action. The tool allows for 
determining action to eliminate the causes of poten-tial 
nonconformities to prevent their occurrence. 
FMEAs provide records of preventive action and 
demonstrate a preventive action is appropriate to 
eliminate the effects of a potential problem. They 
also identify the potential causes of problems and 
elimination of those causes—even in a service com-pany. 
CECELIA MCCAIN is the director of quality program man-agement 
at Compuware Corp. in Detroit and an ASQ 
member. She has numerous certifications, including ASQ’s 
Six Sigma Black Belt and the Software Engineering Insti-tute’s 
QUALITY PROGRESS I SEPTEMBER 2006 I 29 
tion with the customer, and additional cost is in-curred.” 
The customer would confront the company to 
resolve the incorrect invoice (especially if the error 
is not in the customer’s favor), and the company 
would incur additional cost by creating a revised 
invoice. 
A project team should brainstorm to determine 
potential cause of the failure. One cause could be 
that the data source (for example, the order form) 
itself is inaccurate, making it impossible for the 
billing clerk to enter the right information into the 
system. Another cause could be human error—the 
billing clerk entering the wrong data into the system. 
For each potential cause identified, the team 
then should brainstorm to determine the OCC and 
the likelihood current controls will detect the fail-ure 
before it occurs. 
For each potential failure the project team then 
should calculate the RPN by multiplying severity by 
occurrence by detection and take necessary steps to 
reduce ratings above 150. A simple improvement a 
company could implement to improve the data 
source might be to find ways to foolproof its order 
form, perhaps through the use of drop-down boxes. 
The use of FMEA as a preventive tool easily 
capability maturity model. 
Please 
comment 
If you would like to comment on this article, 
please post your remarks on the Quality Progress 
Discussion Board at www.asq.org, or e-mail 
them to editor@asq.org. 
Prepared by: 
Project team: 
Owner: 
Responsibility: 
FEMA date: Original: 
Revision: 
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 
Service or 
process 
feature 
Potential 
failure mode 
Potential 
effects of 
failure 
SEV 
Potential 
cause of 
failure 
OCC DET RPN Recommended 
action 
Who acts 
and target 
completion 
date 
Action 
taken SEV OCC DET RPN 
Implement 
and 
manage 
on-site 
recruiting 
process 
On-site 
recruiting 
process not 
implemented 
Insufficient 
number of 
employees 
available 
8 
No one 
available 
to 
conduct 
on-site 
recruiting 
8 3 192 
Cross train all 
recruiters on 
the on-site 
recruiting 
process 
Branch 
managers 
11/15/2006 
Recruiters 
cross 
trained 
8 2 2 32 
FIGURE 6 FMEA Template for Compuware Contract Employee Process 
SEV = severity rating DET = detection rating 
OCC = occurrence rating RPN = rating priority number

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FMEA in a Service Setting

  • 1. BASIC QUALITY Using an FMEA In a Service Setting by Cecelia McCain he use of corrective action—being reactive to quality performance problems by iden-tifying and eliminating the root cause of nonconformities—is very common. Getting ahead of potential problems and designing them out of processes or preventing them from occurring is a different challenge. ISO 9001 includes item 8.5.3, which requires pre-ventive action to eliminate occurrence and recur-rence of nonconformities. Compuware Corp. recently underwent an audit conducted by a third-party ISO 9001 registrar and 24 I SEPTEMBER 2006 I www.asq.org received certification for its product, support and selected services delivery groups. During the audit the auditor said, “Of course you don’t use failure mode and effects analysis [FMEA]” and then asked, “So, how do you address the preventive action requirement?” She was quite surprised to learn the process design activities for Compuware’s nonmanufacturing SOPs did include the use of an FMEA. FMEA Components At Compuware, project teams use an FMEA to test a process design—or solution—during quality planning and quality improvement projects to ensure the process is capable of meeting features and goals. The teams have found an FMEA addres-ses the root causes of a problem, meets the desired outcomes and deliverables and can be implement-ed effectively. An FMEA is a quality tool that allows the user to examine the process from the viewpoint of its potential for failure (what could go wrong in the process) and plan for its control through service, product or process design requirements. The potential for failure is designed out of the process before it reaches the customer. If you have documented processes, regardless of whether you are in a manufacturing or service environment, an FMEA easily can be applied to the steps of those processes. T In 50 Words Or Less • ISO 9001 requires preventive action to eliminate occurrence and recurrence of nonconformities. • Compuware uses failure mode effects analysis (FMEA) to ensure its service designs and processes meet desired outcomes and can be implemented effectively. • FMEA also can help service companies continually improve.
  • 2. Take a closer look at the tool itself, starting with Figure 1. When completing an FMEA, begin by complet-ing the header section, which includes the name of the individual preparing the FMEA, the project team responsible for designing the process and the individual who owns the process that is being designed. Because working with an FMEA is an ongoing task, not a one-time event, also assign responsibili-ty and document the name of the individual who will be charged with maintaining the FMEA after its original creation. Finally, document the original date on which the FMEA was created. As the FMEA is revisited, reviewed and revised throughout the life of the process, the revi-sion date portion of the header section is updated accordingly. Column one of an FMEA is the service feature, which is something you anticipate doing or creating to meet customer needs, or process feature, the steps necessary to deliver the feature. At Compuware, project teams transfer the features from a customer needs clarification spreadsheet. The customer needs clarification spreadsheet is used to express customer needs in precise (measur-able) terms. The spreadsheet breaks down each pri-mary need so specific service or product and process features and goals (responses to need) can be developed. In the example shown in Figure 2, a quality QUALITY PROGRESS I SEPTEMBER 2006 I 25 Prepared by: Project team: Owner: Responsibility: FEMA date: Original: Revision: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Service or process feature Potential failure mode Potential effects of failure SEV Potential cause of failure OCC DET RPN Recommended action Who Acts and target completion date Action taken SEV OCC DET RPN FIGURE 1 FMEA Template SEV = severity rating OCC = occurrence rating DET = detection rating RPN = rating priority number FIGURE 2 Customer Needs Clarification Spreadsheet Project: service delivery process Customer needs Response to need Primary needs Clarified needs Service or product feature (what) Process feature (how) Process feature goal Establish and maintain a core group of contract employees Sufficient numbers of employees available for long-term assignments On-site recruiting On-site hiring Preassignment screening process Develop process flow Implement and manage on-site recruiting process Implement and manage on-site hiring process Manage hiring and preassignment screening process Long-term orders filled 100% of the time 100% on-time fill of long-term orders Improved ratio of employees available vs. assigned
  • 3. BASIC QUALITY Effect Severity Rating Criteria No effect 1 Failure would have no effect on the customer. Slight effect 2 Customer is dissatisfied but still uses our products and services. Moderate effect 4 Failure results in confrontation with customer, and additional cost is incurred. Significant effect 6 Failure is significant, and customer rejects service. Major effect 8 Customer experiences downtime or excessive failure rates, and large costs are incurred. Extreme effect 10 Products or services do not comply with government regulations. planning project team was assigned the task of developing a service delivery process to ensure a steady pipeline of contract employees would be available to meet short- and long-term assignment needs. The team used the customer needs clarifica-tion spreadsheet to break down each primary cus-tomer need requiring further clarification. Brainstorming, a group technique for generating new, useful ideas, is used to complete the next two columns of an FMEA. Because project teams are identifying potential failures, brainstorming is very important to the successful completion of an FMEA. Brainstorming gives each person on the project team the opportunity to express his or her ideas without being interrupted or criticized. It allows more creative ideas to be generated quickly than does an unstructured discussion, which often focuses on who rather than what is right. Column two in the FMEA template (Figure 1, p. 25), potential failure mode, is about problems that can result while designing the feature or imple-menting the process—how the feature might fail. Column three, potential effect of failures, is a state-ment of the negative consequences of a failure. Column four is used to determine the severity rating (SEV) for each potential effect listed in col-umn three. Using a scale (see Figure 3) of one (no effect) to 10 (extreme effect), project teams brain-storm to determine how severely the effect of the failure impacts the customer. When possible, it also is quite helpful to include customers in the FMEA process, especially when determining severity. Failure Mode Detection and Rating Next, for each of the potential failure modes list-ed in column two (Figure 1), the team brainstorms 26 I SEPTEMBER 2006 I www.asq.org to identify potential causes and list them in column five. Column six allows the project team to assign an occurrence rating (OCC), which scores the likeli-hood the cause documented in column five will occur. Again, a rating scale from one (almost never) to 10 (almost certain) is used to assign the rating. If a process is performing very efficiently, the likelihood the cause of the failure will occur is very small—thus a low rating. If a process is performing very inefficiently, with a high number of errors, the likelihood that the cause of the failure will occur is very high—thus a high rating. A typical occurrence rating table for an FMEA in a manufacturing facility would begin with one in 1.5 million occurrences, which is not realistic for service companies. As you develop an occurrence rating table for your own service setting, examine the processes with the highest productivity, such as paycheck processing, invoice processing, order taking and call handling. Determine which of those processes have the highest level of productivity, such as number of paychecks processed each month, and set the failure rates accordingly. In the Compuware example shown in Figure 4, there are no processes with productivity more than 30,000 occurrences each month, so that is the num-ber we chose to start with before moving down the scale accordingly. Column seven (Figure 1) is the detection rating (DET). Project teams determine how likely it is cur-rent process controls will detect the cause of the failure listed in column five. As with the previous columns, a rating (see Figure 5, p. 28) from one (almost certain) to 10 (almost never) is used. If cur- FIGURE 3 Severity Rating Table for FMEA
  • 4. rent controls are almost certain to detect the cause of the failure, a low rating is assigned. If there is a remote likelihood current controls will detect the cause or there are no controls in place to detect the cause, a high rating is assigned. Column eight (Figure 1, p. 25) is the rating prior-ity number (RPN), which helps project teams de-termine which issues need the most attention. The RPN is calculated as: SEV x OCC x DET = RPN The remaining columns of Figure 1, nine through 15, are used to lower the RPN on potential failures with an RPN of 150 or higher. Column nine, recommended actions, describes activities to be taken or what can be done to prevent the poten-tial failure. Column 10 identifies who is assigned to complete the recommended actions and the time-frame the actions are targeted to be completed. Remember, the objective is to take action before these failures reach the customer. Column 11, action taken, describes what was actually done to mitigate the effect or reduce the impact of the failure on the customer. Columns 12 through 15 are used to recalculate the RPN by mul-tiplying severity by occurrence by detection. If the RPN is still too high, the project team needs to return to column nine and identify additional action to be taken until the RPN is reduced to a level below 150. FMEA Example Let’s look at an example in which a project team was develop-ing a service delivery process to provide contract employees for assignments at external customer locations. At Compuware, even though we use the service, product or process features listed on the customer needs clarification spreadsheet to conduct the FMEA, we also could use the steps of a high level process flow diagram. The example shown in Figure 6 begins with the process feature “implement and manage on-site recruiting process” from the cus-tomer needs clarification spread- sheet illustrated in Figure 2 (p. 29). The potential failure mode (how the feature might fail) was determined to be “on-site recruit-ing process not implemented,” and the potential effect (negative consequences) was identified as “insufficient numbers of employees available.” The project team assigned a severity rating of eight, meaning an insufficient number of employ-ees available for assignment would have a major effect on the customer. The potential cause of the failure (why this might happen) was determined to be “no one available to conduct on-site recruiting,” with an OCC of 8 (high), and a DET of 3 (high). Multiply severity, by occurrence by detection to calculate the RPN: SEV x OCC x DET = RPN 8 x 8 x 3 = 192 Remember, an RPN of 150 or higher needs to be investigated and the process improved until the RPN is reduced successfully . The recommended action was for branch man-agers to cross train recruiters on the on-site recruit-ing process by Nov. 15, 2006. The process owner was responsible for ensuring the branch managers completed the cross training and for notifying the project team when training was completed. Once the actions were completed, the project team’s next step was to determine whether the actions successfully reduced the RPN of 192. The FIGURE 4 Occurrence Rating Table for FMEA Occurrence Rating Failure Rate Criteria Almost never 1 1 in 30,000 Process inefficiency very unlikely. Remote 2 1 in 10,000 Remote number of process inefficiencies. Very slight 3 1 in 4,000 Very few process inefficiencies. Slight 4 1 in 2,000 Few process inefficiencies. Low 5 1 in 400 Occasional number of process inefficiencies. Medium 6 1 in 80 Moderate number of process inefficiencies. Moderately high 7 1 in 20 Frequent process inefficiencies. High 8 1 in 10 High number of process inefficiencies. Very high 9 1 in 5 Very high number of process inefficiencies. Almost certain 10 1 in 3 Process inefficiencies almost certain to occur. History shows many process inefficiencies. QUALITY PROGRESS I SEPTEMBER 2006 I 27
  • 5. BASIC QUALITY project team determined the actions taken did reduce the OCC from an eight (high) to two (remote). In other words, the action taken reduced the likelihood the cause will occur by increasing the pool of trained recruiters. The project team also determined the action taken improved the DET from a rating of high (three), to a rating of very high (two), by improving the likelihood it could detect the cause before the customer could be impacted. Note that the SEV of eight did not change, because the effect of failure on the customer did not change. The new RPN was calculated as follows: SEV x OCC x DET = RPN 28 I SEPTEMBER 2006 I www.asq.org 8 x 2 x 2 = 32 Once the actions were completed and the new RPN calculated, the revision date was entered into the header section of the FMEA. These steps were repeated until all the features from the customer needs clarification spreadsheet were included on the FMEA. Process flow diagrams also were revised as needed to reflect the actions taken as the project team works through the FMEA. To maintain the FMEA, the process owner needs to review and revise it anytime a change is made to the process. Also, as processes are reviewed, which should be at least annually, the FMEA should be reviewed to ensure nothing has changed that would impact the RPN of any of the features. FMEA and Continuous Improvement An FMEA also can be a useful tool to help ser-vice organizations identify improvement opportu-nities. Look at the service related processes within your own company and determine which processes have the biggest impact on your external cus-tomers. Conduct an FMEA to identify features of the process with the highest RPNs, create a Pareto analysis to rank the features by RPN and initiate quality improvement projects. A good candidate for improvement in most com-panies is the invoicing process. Improving invoic-ing not only benefits the customer by increasing such things as the quality, accuracy and timeliness of invoices but also benefits the company by com-pressing payment turnaround time and accelerat-ing cash flow. For example, let’s say one step or process feature in the invoicing process is to enter information into the billing system. To complete the FMEA, the next step is to determine how this feature might fail (potential failure mode), such as inaccurate data entered into the system. What is the potential effect of the failure? The customer would receive an incorrect invoice, to which an SEV of four (moderate effect) is assigned. The rating of four is appropriate because the defin-ition of this rating is, “Failure results in confronta- FIGURE 5 Detection Rating Table for FMEA Effect Rating Criteria Almost certain 1 Controls are in place and almost certain to detect the failure mode. Very high 2 Very high likelihood current controls will detect the failure mode. High 3 High likelihood current controls will detect the failure mode. Moderately high 4 Moderately high likelihood current controls will detect the failure mode. Medium 5 Medium likelihood current controls will detect the failure mode. Low 6 Low likelihood current controls will detect the failure mode. Slight 7 Slight likelihood current controls will detect the failure mode. Very slight 8 Very slight likelihood current controls will detect the failure mode. Remote 9 Remote likelihood current controls will detect the failure mode. Almost impossible 10 No controls in place to detect the failure mode.
  • 6. allowed Compuware to meet the ISO 9001 require-ment for preventive action. The tool allows for determining action to eliminate the causes of poten-tial nonconformities to prevent their occurrence. FMEAs provide records of preventive action and demonstrate a preventive action is appropriate to eliminate the effects of a potential problem. They also identify the potential causes of problems and elimination of those causes—even in a service com-pany. CECELIA MCCAIN is the director of quality program man-agement at Compuware Corp. in Detroit and an ASQ member. She has numerous certifications, including ASQ’s Six Sigma Black Belt and the Software Engineering Insti-tute’s QUALITY PROGRESS I SEPTEMBER 2006 I 29 tion with the customer, and additional cost is in-curred.” The customer would confront the company to resolve the incorrect invoice (especially if the error is not in the customer’s favor), and the company would incur additional cost by creating a revised invoice. A project team should brainstorm to determine potential cause of the failure. One cause could be that the data source (for example, the order form) itself is inaccurate, making it impossible for the billing clerk to enter the right information into the system. Another cause could be human error—the billing clerk entering the wrong data into the system. For each potential cause identified, the team then should brainstorm to determine the OCC and the likelihood current controls will detect the fail-ure before it occurs. For each potential failure the project team then should calculate the RPN by multiplying severity by occurrence by detection and take necessary steps to reduce ratings above 150. A simple improvement a company could implement to improve the data source might be to find ways to foolproof its order form, perhaps through the use of drop-down boxes. The use of FMEA as a preventive tool easily capability maturity model. Please comment If you would like to comment on this article, please post your remarks on the Quality Progress Discussion Board at www.asq.org, or e-mail them to editor@asq.org. Prepared by: Project team: Owner: Responsibility: FEMA date: Original: Revision: 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 Service or process feature Potential failure mode Potential effects of failure SEV Potential cause of failure OCC DET RPN Recommended action Who acts and target completion date Action taken SEV OCC DET RPN Implement and manage on-site recruiting process On-site recruiting process not implemented Insufficient number of employees available 8 No one available to conduct on-site recruiting 8 3 192 Cross train all recruiters on the on-site recruiting process Branch managers 11/15/2006 Recruiters cross trained 8 2 2 32 FIGURE 6 FMEA Template for Compuware Contract Employee Process SEV = severity rating DET = detection rating OCC = occurrence rating RPN = rating priority number