The Role of NSF's Support of Engineering in Enabling Technological Innovation:CONCLUDING OBSERVATIONS
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The Role of NSF's Support of Engineering in Enabling Technological Innovation
V. CONCLUDING OBSERVATIONS
OBSERVATIONS ON THE RESULTS
We introduced four foci of analysis as a provisional set of categories
to use in examining each case and, in the future, in conducting
comparative, cross-case analyses:
Industry, government, and university roles and relationships.
Relationships between fundamental research and technology
development.
Intellectual property rights.
The NSF role.
These have been useful, at least on a case-by-case basis, but
the diversity of the first three cases and the relative weakness
of different kinds of data in each case (see below) mean that
cross-case analysis at this stage is premature. Still, reading
across the three cases in light of these categories, one is struck
by the tremendous variations in institutional relationships and
the relative timing and significance of different elements that
shape innovation. A second feature of the cases is the apparent
influence that interinstitutional networking had on the evolution
of these innovations. In some instances, this influence was manifested
historically in the career paths of key contributors to the innovation;
in others, knowledge and technology crossed multiple institutional
boundaries as the innovation evolved. Finally, NSF's role varied
widely across the three cases: in RIM, direct research support
appeared to be the primary influence; in MRI, it was through support
of research on NMR spectroscopy, the technical and analytical
core of the innovation, and education of graduate students who
built on their NMR experiences in subsequent MRI work; and in
the Internet, it was organizational leadership. Other modes of
support were important, yet often subtle or indirect, so that
assigning relative influence to each mode would be difficult.
The following tables present a possible structure in which such
support might be analyzed and described after more cases have
been completed. With more experience studying the results of
additional cases, it may be possible to complete the tables with
ratings of the relative importance of each mode of support in
each of the first three cases.
NSF ROLE: READING WITHIN THE CASES
NSF Support Mode
RIM
MRI
Internet
Education
Direct research support
Knowledge base
Research infrastructure
Supporting technology
Organizational leadership
NSF ROLE: READING ACROSS THE CASES
Case
Relative Influence
of NSF
Internet
RIM
MRI
OBSERVATIONS ABOUT METHODOLOGY
The cases were more diverse than we had anticipated. As a consequence,
the kinds of data that proved most useful and reliable varied
widely. This variety necessitated very different approaches to
the three cases, and sometimes required shifts in strategy later
in the study process than was desirable. Lessons were learned
about approaches to future cases, and this concluding section
is devoted to describing them.
We expected that defining the boundaries of each innovation would
be problematic, and it was. But it was problematic in some ways
we did not anticipate. The Internet, diffuse and global, was
supposed to be difficult to define and bound. Advanced polymer
matrix composites was a narrow and specific topic; it was supposed
to be easy to define. In each case, the opposite was true.
Once we began to explore the literature on the Internet, it quickly
became clear that the major contributions were well documented,
the contributors were well known, and their relative importance
noncontroversial. Further, the technologies that "defined"
the Internet-the unique, intrinsic elements, in contrast to supporting
technologies-were unambiguous and few in number. A similar situation
existed in the MRI case. In both the Internet and MRI cases,
the significance of the innovations was such that an extensive
historical literature already existed, a literature that described
the basic chronology and identified major contributors. Thus
a framework for our specific inquiry already existed. This was
not the case for RIM and, we suspect, would not have been the
case if we had studied, as originally intended, a product made
of an advanced polymer matrix composite. The problem may have
been exacerbated because RIM is a process technology. Not only
was it difficult to define the innovation, but almost no guidance
existed concerning the chronology or the relative significance
of human or organizational contributors. The structure for this
case, such as one emerged, had to be pieced together from diverse
and fragmented sources: patents, bibliographic databases, technical
summaries, trade literature, and NSF awards data. All of this
material came late in the study's timetable-too late for it to
guide the interviews. (In the other two cases, which were conducted
first, the interviews were more productive and enlightening because
they were conducted with a framework already in place.) We suspect
that future cases will be more like RIM than not, so we must begin
early to explore patent, bibliographic, and research support data,
and the trade literature.
For a number of different reasons, it proved difficult to apply
the interview protocol (see Appendix A) in many interviews. Strong-willed
individuals often have a story to tell, and they want to tell
it in their own way. In the Internet and MRI cases, substantial
consensus existed about who the key contributors were and what
they contributed. The interviews reinforced this consensus, so
the interviews could focus more specifically on possible influences
that NSF support might have had. In the RIM case, little prior
evidence about the relative importance of contributors (individual
and institutional) and their contributions was available, and,
for reasons that are unclear, our respondents were unable to provide
much insight on the question. This experience also led to the
same conclusion that interviews should be used to fill in gaps
in the main "story," provide nuances and insights, and
help resolve apparent contradictions-not, as was the situation
in RIM, to help lay out the structure of the case itself. Interviews
should come later in the course of each case and serve a less
demanding purpose than we had initially assumed.[78]
Another lesson learned relates to the value and limitations of
the NSF awards database. We had assumed, incorrectly, that the
database contained all major awards. But some center awards do
not appear (omissions seem idiosyncratic rather than systematic),
major facility awards sometimes do not appear (e.g., the National
Center for Supercomputer Applications), and key programs such
as NSFNET do not necessarily appear in a recognizable form. Award
titles do not always accurately describe the nature of the award
or can be misleading. Thus the awards data should be gathered
early in future cases and supplemented with internal NSF budget
documents and program review materials. These should be used
to prepare a preliminary record of NSF funding for the research
area to be studied and checked by knowledgeable program managers
at NSF.
Our study design called for interview material and more objective
data such as bibliometric and patent citations to complement each
other and, more importantly, to serve as independent sources that
could be used for mutual verification. As it turned out, the
quality of and ease of access to these two different types of
data varied widely and unpredictably in the pilot cases. Rather
than complementing each other, in each case one type of data proved
far more rich, reliable, and appropriate to the innovation than
the other. In RIM, interview data and the literature proved to
be weaker sources of information than we expected, compelling
us to rely more heavily on bibliometric and patent data for the
basic structure of the case than in the other two cases. In the
MRI and Internet cases, existing literature turned out to be a
significant and reliable source of information, leading to a lesser
role for bibliometric and patent data. Intellectual property
rights played a negligible role in the Internet case and a subtle
one in MRI, a role not easily revealed by standard patent analysis.
In sum, in future cases, we cannot expect several different sources
of data to be comparably available, relevant, and reliable. Early,
careful examination of future cases will be necessary to anticipate
the strengths and weaknesses of each type of data, perhaps leading
to revision of each case study strategy.
Our Technical Review Panel acted wisely when they advised us to
consider the first three cases as pilot studies. The experience
of this first year will greatly enhance our ability to approach
future cases in ways that will yield the kinds of results we all
seek.