Bridging the Private -- Public Sector Gap in S&T
Practically all of the major S&T policy statements issued by both the federal and provincial governments over the past few years have identified a disconnect between publicly funded science and technology development and private sector innovation. The diagnosis is straight forward: the knowledge created by university and college researchers is not being used by companies to the degree that it could, or should, be. This compromises private sector innovation, and as a result, limits the wealth generation desired by Canadians and required by a publicly funded science system.
So, what is to be done? To my mind, the most useful outcome of this conference would be the beginning of a serious discussion on how to bridge the gap between the private sector and the public science community. Calling for yet another federal funding program, or exhorting universities to teach students about business and entrepreneurship (see the October issue of Research Money) will not produce, to quote STIC, a private sector that has science, technology and innovation strategies at its core.
Much more creative solutions are required, and the science policy community across Canada has before it a wonderful opportuntiy to make meaningful and long-lasting contributions to bridging this gap.

Agreed -- but why? I understand that private sector R&D investment in Canada is low compared to most other industrialized nations. What are they doing that we are not? How are they able to better play this "contact sport"?
Robert Mann writes: "David Moorman states "the knowledge created by university and college researchers is not being used by companies to the degree that it could, or should, be". Agreed -- but why?"
The precondition for industries using academic knowledge is that the industries should employ people who know how to obtain this knowledge. Some do and some do not employ such people.
The response to Moorman's challenge seems to be that particular firms seek to apply the knowledge that they judge relevant to the firms' plans (specific or general), and ignore the rest of academic knowledge as irrelevant. This is a norm obviously independent of any piece of knowledge's importance within its discipline (and independent of the cost of its creation.) Ignoring the irrelevant is normal even within the university. Researchers in biology ignore reaction chemistry most of the time because they believe they can recognize if and when they need it, and then proceed to acquire and employ such knowledge. Astronomers ignore most or all of biological knowledge, and may be expected to go on ignoring biology.
More fruitful for policy seem to be such case studies as UMIST specialized in, that seek to measure exactly what types of academic knowledge were either essential or useful to carry (selected, specially important) IRD or technology projects through to success. Empirical inquiries have not yet thrown up any "economics of knowledge," or measures of the utility of academic knowledge in commercial applications, or industry's cost to collect and apply it: so we do not know whether this can be accounted for like components in a factory or must be funded on the same basis as salesmen are stimulated or provided incentives. We can tell that some firms seem better at using knowledge than their competitors: but no one has yet reduced this to a replicable calculus, and only a very few firms demonstrate such excellence continuously for 20 years or more: so that we do not yet know that the primacy of Northern Electric or Research in Motion owed more to marketing or production economies or the application of academic knowledge or the managerial ability to co-ordinate such activities simultaneously.
The field remains difficult to study because non-users of academic knowledge cannot be analysed in the terms we find valuable to explain the uses of knowledge. It is certainly possible that there was or is a "gap" between the corporate users of S&T knowledge and the knowledge resources accumulated by governments and academe, as many investigators believe likely: but no one has yet succeeded in locating this gap or measuring its width in units used for any other purpose.
But such location or measure is not prerequisite for plausible action. C.J. Mackenzie and C.D. Howe knew much less in 1945 about the supposed gap than science policy knows today, but this did not inhibit their plans for a 250-man Technical Information Service to push public knowledge into the hands of private users. They scaled down these plans only when they agreed the manifest demand was much less than they expected. Attempts to bridge the gap have a continuous history of at least a century in Canada, from McGill's earliest relations with the chemicals industries to such institutions as the Alberta Research Council. These can advise from their long experience, provided only that it has not been forgotten or their archives scrapped.
Thank you for the interesting discussions on this site and to the CSPC for making them possible. My 2 cents:
a. High quality knowledge transfer is a reliable mechanism for closing the gap between S&T and its application in policy and practice. There is a great need for experts in knowledge transfer, scientists who understand first-hand both S&T and uptake and who know and can effectively link the players. Knowledge transfer is more than news releases, plain language summaries, and fact sheets. It is a contact sport where the ball is played between scientific and experiential (policy/practice) knowledge.
b. At the University of Waterloo we offer two interdisciplinary courses: “Knowledge Mobilisation to Serve Society” and “Building Community-University Research Alliances.” Our students include those who want to improve their academic research and funding opportunities, and those who want to pursue non-academic careers in knowledge transfer in settings of policy, industry, health, and so forth. MA, MSc, and PhD students from disciplines ranging from Anthropology Public Issues to Electrical Engineering and including health, neuroscience, environment, and so forth participate in the courses. Speakers from academia, policy, funding agencies (including David Moorman), and the press offer their insights. Students create knowledge products for health, industry, and community service. The demand for knowledge transfer training and services is great. As a result we have formed an EU-type Science Shop: www.scienceshop.ca
c. Here is Phil Davies 2004 presentation: Is Evidence Based Policy Possible? http://www.nationalschool.gov.uk/policyhub/downloads/JerryLeeLecture1202... Figure 2 and 3 are considered classics.
d. With respect to a comment in a later posting, below: “Moreover, social sciences have a singular agenda to create actionable theories that are "true", because so much public opinion and finances depend on their success. Any sign of refutability would be a gap, so theories (and policies that derive from them) are necessarily worded in ways that make them non-refutable.” This sentiment would not apply to most areas of behaviour sciences, including social psychology, a field that has developed classic experimental and statistical methods used generally in science. Behavioural sciences are founded on hypothesis testing. Wording a journal article submission in a way that makes one's theories “non-refutable” would earn a quick publication rejection. The agenda for the social sciences with which I am familiar is not “actionable theories” but rather “testable theories”.
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Just a quick comment on two earlier posts on this string.