Identifying Opportunities for Innovation
One fundamental reason companies struggle to figure out how to
identify opportunities for innovation is because they lack a clear
definition of just what an opportunity is. “Opportunity,” has been
defined and redefined in so many ways that it does not have a clear
meaning. Often, when managers talk about uncovering areas of
opportunity, for example, they are referring to identifying new
ideas, technologies, or solutions that customers may want. A razor
manufacturer, for example, may believe that adding a fifth blade is
a great opportunity. (When will they stop!) Companies believe such
solutions offer opportunities for growth, but that thinking is
backwards.
Innovation is the process of devising a solution that addresses unmet
customer needs. It follows then that to successfully execute this
process, a company must be able to identify all the customer’s needs
and determine which, among all these needs, are poorly satisfied or
unmet. These underserved needs are the real opportunities for value
creation. In the outcome-driven paradigm, opportunities for
innovation are defined as jobs or desired outcomes that are
underserved.
The discovery of underserved jobs reveals opportunities for new market
creation and ancillary market growth. They are jobs that customers
are trying to get done but cannot do so satisfactorily because
products or services designed to get those jobs done do not exist.
If it were determined that people want to wake up with fresh breath
after sleeping all night, then that job would represent an
opportunity for a brand new market. If it turns out that preventing
skin dryness is an important and unsatisfied job when shaving, for
example, then customers would value a product that would help them
get that job done.
The discovery of underserved outcomes reveals opportunities for core
market growth and sustaining innovation, as they pinpoint what
aspect of a specific job needs to be improved in order to get the
job done better. These underserved outcomes point to where customers
want to see improvements made—and where they would recognize the
delivery of additional value. If circular saw users, for example,
feel that minimizing the likelihood of the cut going off track is an
important and unsatisfied outcome, then that would represent an
opportunity for improvement among the 50 to 150 outcomes related to
getting that job done.
Opportunity Algorithm
The opportunity algorithm, shown below, is a simple mathematical
formula that makes it possible to identify and prioritize the most
promising opportunities for value creation and innovation. An
opportunity for innovation exists when a job or an outcome is
important and not well satisfied. The more important the job or
outcome is, and the less satisfied customers are, the greater the
opportunity is for value creation. As shown in Figure 1 below, the
desired outcomes that are most important and least satisfied receive
the highest priority:
|
Importance +
max(Importance – Satisfaction, 0) = Opportunity |
The
opportunity algorithm
states that opportunity equals importance plus the
difference between importance and satisfaction, where that
difference is not allowed to go below zero. The importance and
satisfaction ratings for each job or outcome are entered into the
equation to determine the level of opportunity.
To see how this
opportunity
algorithm works, take a look at Figure 1, which
lists some of the many outcomes Bosch culled from carpenters,
roofers, electricians, and others who use circular saws in their
work and mock data for importance and satisfaction. In outcome 1,
users gave a very high rating (9.5) to “Minimize the likelihood of
going off track when approaching the end of the cut.” This rating
means 95 percent of those interviewed rated the outcome a 4 or a 5
for importance. They gave a much lower score (3.2) when asked to
rate the degree to which this outcome was currently being satisfied.
This rating means that only 32 percent of the interviewees rated
this outcome a 4 or a 5 for satisfaction. Those two scores were
inserted into the formula, [(9.5 + (9.5 – 3.2)], yielding an
opportunity score of 15.8.
Outcome 2, “Minimize the amount of splintering that occurs when
making a cut,” was rated as important as outcome 1, but was
satisfied to a much greater degree (7.5 versus 3.2). As a result,
outcome 3 represents a much lesser opportunity for innovation, as
indicated by its opportunity score of 11.5.
A visual opportunity landscape can be created to see the degree to
which all the jobs or outcomes are under or overserved.
Click here to see the opportunity
landscape model.
|
Desired Outcomes on Cutting Wood |
Importance |
Satisfaction |
Opportunity |
| 1.
Minimize the likelihood of going off track when approaching
the end of the cut |
9.5 |
3.2 |
15.8 |
| 2.
Minimize the amount of splintering that occurs when making a
cut |
9.5 |
7.5 |
11.5 |
| 3.
Minimize the likelihood of debris blowing up in the user’s
eyes, e.g., dust, wood, etc. |
9.1 |
8.4 |
9.8 |
| 4.
Minimize the time it takes to make bevel adjustments |
5.1 |
1.0 |
9.1 |
| 5.
Minimize the likelihood of getting injured when making a
cut, e.g., scraped, cut, etc. |
9.0 |
9.2 |
9.0 |
Figure 1: Opportunity Scores Reveal Underserved Outcomes
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