1 / 33

EEP 143 Lecture 22 Institutions and Innovations

EEP 143 Lecture 22 Institutions and Innovations. Outline: First: a note on quiz Q4 Linear model of innovation Federal R&D University R&D EBI Initiative Benefits of the “Industry-University Complex”. Quiz Q4: Drastic process Innovation. What are increases profits due to process innovation?

lawson
Download Presentation

EEP 143 Lecture 22 Institutions and Innovations

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. EEP 143 Lecture 22Institutions and Innovations • Outline: • First: a note on quiz Q4 • Linear model of innovation • Federal R&D • University R&D • EBI Initiative • Benefits of the “Industry-University Complex”

  2. Quiz Q4: Drastic process Innovation • What are increases profits due to process innovation? • If inventor monopolized the production process? • If the pre-invention process is available at marginal cost c? P pm Π c p'm Π' c' D Q MR

  3. Quiz Q4: Drastic process Innovation P pm Π c p'm Π' c' D Q MR • What are increases profits due to process innovation? • If inventor monopolized the production process? Π' – Π • If the pre-invention process is available at marginal cost c? Π'

  4. Innovation:The traditional Linear Model Simple Version • Basic research • Applied research • Invention • Development • Commercialization

  5. Innovation:The traditional Linear Model: More detail • Science and technology base • Basic research • Applied research • Invention • Prototype • Development • Commercialization • Diffusion

  6. Example of traditional Linear Model: New Drug • Science base: state of the art in chemistry, biology, etc. • Basic research: • chemistry, microbiology, genetics • Applied research: • synthesize and screen compounds • Invention • Identify compound with desired effect in lab • Prototype • Compound formulated for lab testing • Development • Phase I clinical trials • Phase II clinical trials • Phase III clinical trials • Commercialization • Formulation, dosage choices, packaging, marketing • Diffusion • Sponsor trials, conferences, detailing MDs, consumer advertising

  7. Example of traditional Linear Model: New Drug • Science base: state of the art in chemistry, biology, etc. • Basic research: • chemistry, microbiology, genetics • Applied research: • synthesize and screen compounds • Invention • Identify compound with desired effect in lab • Prototype • Compound formulated for lab testing

  8. Example of traditional Linear Model: New Drug 6. Development • Phase I clinical trials • Phase II clinical trials • Phase III clinical trials 7. Commercialization • Formulation, dosage choices, packaging, marketing 8. Diffusion • Sponsor trials, conferences, detailing MDs, consumer advertising Where are the largest expenses?

  9. Example of traditional Linear Model: new software • Basic research • mathematics, queuing theory • Applied research • Cryptography, data storage methods, sorting algorithms • Invention • Idea of program, design, basic features • Development • Programming, alpha testing • Commercialization • Beta testing, marketing • Diffusion • Advertising, other communication

  10. Caution: Traditional Linear Model does not necessarily hold! • Can you think of exceptions?

  11. Caution: Traditional Linear Model does not necessarily hold! Look up backward links to science progress from these applied technologies:: • Pumping water from mines • Steam engines • Improved yeast for beer making • Search for a synthetic version of malarial drug quinine (careful, 2 steps here!) • Radio reception and radio noise (2 here too) • Transistor/semiconductor

  12. Caution: Traditional Linear Model does not necessarily hold! But for now we assume it holds Where does government get involved, and why?

  13. Why government funding of R&D?Economic arguments • Pure public goods: • Standards, national defense, national (global?) environment • Externalities beyond scope of firm or consumer • Public health, vaccinations • Agriculture (consumers gain from cheaper food, farmers too diffuse to fund research) • Local environmental externalities • Education (including mothers’ education) • Encourage “strategic industries” (?)

  14. For industry: Why gap between private and social return at given level of R&D? • Knowledge spillovers • Public goods: remember 2 characteristics? • Market (“pecuniary”) spillovers • Drastic innovations benefit users beyond cost • Network spillovers • Tech. or consumption externalities

  15. Why government funding of R&D?Economic arguments $ Social return Private return Marginal cost M. Soc Retn. M. Priv Retn. Rc R s R&D spending How can government move research to the optimal level?

  16. Industry spillovers: Nature of gap between private and social return • Less leakage in larger economies • Singapore v. China • Differs by industry • Car parts v. telecoms • Differs by technology • Basic v. applied research • Vaccines v. heart surgery • Network spillovers • Tech. or consumption externalities

  17. Why government funding of R&D?Economic arguments $ Social return Private return Marginal cost M. Soc Retn. M. Priv Retn. Rc R s R&D spending How can government move research to the optimal level?

  18. How can government move research to the optimal level? • There are several ways: • What are they?

  19. How can government move research to the optimal level? • There are several ways: • Internalize externality • Merge firms • Patent system, other IPRs • Farmer co-ops for research (Hawaii pineapples, South American rice research) • Subsidize research • Australian market assessments for ag. research, matched by govt. • Tax deduction • Tax credit • Public funding of research • Public provision of research Can you see any problems with these solutions?

  20. Federal R&D • In this case we should examine through the lens of political economy • Government is interested more in R&D that is • directly beneficial to voters, and • attracts the imagination or attention of voters • For instance after Sputnik, the R&D was directed in aeronautics • For the same reason as above the government doesn’t want to take projects that are risky and lengthy • Also, there is a knowledge gap between policy makers and universities • In addition, government is more likely to favor projects that are classic public goods • e.g. military projects • Health research • Basic research

  21. Source: National Science Board 2006

  22. Private R&D • Private sector accounts for most of the R&D: • spends 63% of total R&D expenditures • Some of this is Federal tax credits and expenses • produces 72% of total R&D

  23. University R&D • In contrast to the private sector universities have been relying more and more on federal funds

  24. Source: National Science Board 2006

  25. Source: National Science Board 2006

  26. University R&D • Faculty are encouraged to engage in R&D and publish the results (tenure-track appointments) • Since 1980 (Bayh-Dole Act) the motives for for-profit R&D increased dramatically: • The act allows universities to patent and license innovations produced with Federal funding • Even innovations that have been funded by the government

  27. University R&D • An important effect of the act is that it led universities to pursue industry funds with the commitment that any potential innovation could be licensed exclusively by the sponsor • Federal government keeps free option for license

  28. University R&D • Start-up companies are the major means of technology transfer from universities to private sector • The university licensing offices don’t assign IPRs but they receive a royalty, or an equity share (MIT) • The main asset of the companies is the knowledge they have created • only 7% of university R&D is privately sponsored • National Labs (such as Lawrence Berkeley Lab) • 50% of projects have private partner • Royalties only 1%of ?

  29. Federal R&D • federal government • accounts for 30% of total funds that go to R&D • produces only 8% of R&D. • So it funds almost four times more R&D than it actually does • Of course, private sector accounts for most of the R&D: • It spends 63% of total R&D expenditures and engages in 72% of total R&D • In contrast with the private sector universities have been relying more and more on federal funds

  30. Problem with collaborative R&D • Privately-funded research may bias the research process in favor of the sponsor • For instance tobacco industry sponsors pressed scientists not to publish results that were against the tobacco industry • Canadian brewing industry capture government barley research by sharing 11% of the cost • Diverted focus from feeding animals to beer production • RA Fisher, statistics pioneer, claimed there was no proven link of smoking to cancer • Evidence on pharma-sponsored research

  31. Happy Thanksgiving!

  32. Benefits of the “Industry-University Complex” • So far we have focused on the dangers of the university-industry cooperation • However, it takes place because there are benefits for agents in both sides • Faculty: • Funds for research is the primary benefit obviously which can be used for future agenda, support more students etc. • Also they are exposed in new areas of research and increase their human capital (they are in the cutting edge) • Industry: • They obtain access to new research • They have the opportunity to patent new research • They can maintain good relationships with universities • They can acquire knowledge to solve technical problems

More Related