I'm purusing the content at the Brookings Institution's new Hamilton Project website, and these innovation bullet-points reminded me of a general gripe:
- make more workers literate in science and engineering
- adopt smarter incentives for private firms to undertake R&D and remove barriers to private-sector innovation
- increase the federal commitment to fundamental scientific research
- achieve energy independence
- improve our nation's physical infrastructure
This is a pretty standard 21st century progressive list, but the logic of point three always escapes me. The salient fact about basic scientific research, or so it seems to me, is that
anyone can use it. That Albert Einstein outlined his major contributions to physics while in Europe has in no way disadvantaged the United States vis-a-vis Europe. Similarly, that Charles Darwin was English hasn't given the English some insurmountable lead in biotechnology. As far as I know, no scientific discoveries of any consequence have ever been made in Canada or Iceland, but both are wealthy, technologically advanced societies. Knowledge diffuses. More basic science is good for everyone, but precisely
because it's good for
everyone the trick is to dupe some other country into funding it. Then we can spend our money and stuff only we can use like bridges or zoos or tanks. Or am I wrong? Lots of smart people seem to think otherwise.
The market tends to be too risk averse to fund a sufficient level of basic research. Most of the government sponsored basic research is done at major universities. The bulk of the positive results are then licensed through the university's technology transfer office, usually to U.S. companies. The remainder are developed by the university itself or entrepeneurial professors.
You are correct that the basic research itself is generally useful regardless of country of origin. The educational advantages, the resulting revenue streams for the universities and the wealth creation that follows commericialization all of have positive effects for the US.
April 11, 2006 10:35 AM | Reply | Permalink
This is pet peeve of mine. The high-energy physics community used arguments like "We're really smart and therefore deserve to be funded" and "We've thought up some unlikely reasons why this could be a good thing, but they're obviously bullshit; all we want is your money" in support of the Superconducting Supercollider-- and unsurprisingly, it was a debacle.
What's frustrating is that there actually is a good, non-elitist argument for basic research. Basic research brings a large number of very bright people into science, subjects them to the most rigorous possible training at the lowest possible salary, and then, since there are very few long-term jobs, sets them loose. Everybody, IMO, benefits.
April 11, 2006 10:59 AM | Reply | Permalink
There's some truth to your argument, but it ignores the human capital aspect. In principle a scientific paper includes enough information to replicate a result but in practice you need a huge amount of experience in related experiments to make use of it. A research group at a US university represents a huge amount of US human capital. Networking is also important. It helps to have large numbers of smart people nearby to ask questions of when you get stuck, and the closer the better. As an Australian who's now working at Caltech in the US, and collaborating with a group in Glasgow, I can assure you that email and the Web have made the world a lot smaller, but not _that_ small.
April 11, 2006 11:05 AM | Reply | Permalink
In the application of basic science, having the teams in place and working with the researchers is an enormous advantage.
Getting to market first is always a plus, and rarely do late-arrivers overtake the first-responders (Microsoft excluded).
So, yes, having the research done here, in our universities and corporate research facilities IS an advantage.
Once the technology is perfected, then replicating the products is relatively easy.
The real trick is being able to do the research, apply it to products, and maintain a lasting advantage in the manufacture, sale and distribution. That combo is very hard to do, but the US has historically done it very well, thank you.
And, BTW, the basic research is not THAT expensive, relative to the cost of applying the research to make products. Research is a very good investment, but often it is best done by government-funded entities, since a bottom line payout is often elusive.
April 11, 2006 11:09 AM | Reply | Permalink
A lot of support for scientific research is driven by a desire for the US to lead in military technology.
April 11, 2006 11:42 AM | Reply | Permalink
Do you think we might just be big enough that the widely-distributed benefits of basic science research make a net gain for us?
April 11, 2006 11:49 AM | Reply | Permalink
Yes Matt, you are exactly right. Oh! The money we have wasted poured into MIT has benefited Boston in no way in terms of jobs. And the money we have poured into Stanford and UC Berkeley have certainly not impacted the Silicon Valley (named because of the high quality oyster beds of the San Francisco Bay and the sands they rest on.)
Government funding of basic science has not helped Israel vis-à-vis it's neighbors and has not helped China either. It is wasteful and inefficient.
Yes, Federal Funding of Basic Science is silly and inefficient. In this way, it is true, Turkmenistan, Afghanistan, Pakistan, and Blogostan are way ahead of us.
April 11, 2006 11:52 AM | Reply | Permalink
Re: As far as I know, no scientific discoveries of any consequence have ever been made in Canada or Iceland ...
Ernest Rutherford, born in New Zealand, is best known for discovering the basic structure of atoms in England around 1911, but his earlier Canadian research wasn't chopped liver.
"Barred in the near term from advancement at Cambridge, Rutherford in 1898 accepted a professorship at McGill University in Montreal, Canada. (The following year Cambridge University changed its rules to allow earlier promotion to Fellowship.) The laboratories at McGill were very well equipped. As Rutherford wrote to his wife-to-be ``I am expected to do a lot of work and to form a research school in order to knock the shine out of the Yankees!''
Rutherford returned to New Zealand in 1900 to marry Mary Georgina Newton, the daughter of his landlady in Christchurch. They were to have one child, Eileen.
Canada
At McGill Rutherford promptly discovered radon, a chemically unreactive but radioactive gas. In this he was assisted by his first research student, Harriet Brookes. Rutherford, with the later help of a young chemist, Frederick Soddy, unravelled the mysteries of radioactivity, showing that some heavy atoms spontaneously decay into slightly lighter atoms. This was the work which first brought him to world attention. He was elected a Fellow of the Royal Society of Canada in 1900 and of London in 1903. His first book Radioactivity was published in 1904. In 1908 he was awarded the Nobel Prize in Chemistry `for his investigations into the disintegration of the elements and the chemistry of radioactive substances.' As a bemused Ern often told friends, the fastest transformation he knew of was his transformation from a physicist to a chemist.
On realising that lead was the final decay product of uranium, Rutherford proposed that a measure of their relative proportions and the rate of decay of uranium atoms would allow minerals to be dated and, subsequently, this technique placed a lower limit on the age of the formation of the Earth. Radioactive dating of geological samples underpins modern geology. Throughout his time in Canada Rutherford was regularly head-hunted by American universities and institutions, for example Yale and the Smithsonian Institute. The main result of these approaches was that McGill kept upping his salary. Rutherford always had a shift in mind, but only to Britain in order to be nearer the main centres of science, and to have access to more, and better, research students."
From http://www.rutherford.org.nz/biography.htm
April 11, 2006 12:32 PM | Reply | Permalink
I would question your natavism. This maybe true in a narrow realist sense, in the long term benefits that spread to the rest of the world ultimately end up benefitting us, but you are right to imply that we should set up more international funding bodies.
At the same time, there is no requirement to give up the technology.[see nuclear weapons and Iran].
April 11, 2006 12:45 PM | Reply | Permalink
One thing I've noticed in my travels overseas is that technological know-how is an important component of the U.S.'s image overseas, an image linked to news about new innovations and discoveries. This in turn makes us a favored destination among those interested in studying the sciences. Another factor is that research is often tied to patents, which if they're in the hands of U.S. companies theoretically benefit the U.S.
April 11, 2006 5:07 PM | Reply | Permalink
Fundamental research did provide a significant military advantage to the US in the atomic power. Berkeley was a physics hotbed in the 30s in part due to Lawrence skills at getting fundamental research funded.
Saying the Iceland or Canada are free-riding is not necessarily true. Is their commitment to fundamental research as % of GDP less? Some fundamental research is too expensive for smaller countries to participate other than in some common efforts like CERN or some orbital station or whatnot. Do Canada and Iceland not participate in those?
April 11, 2006 10:04 PM | Reply | Permalink
Wow, Matt. I mean, really. Wow.
Do you really think there's a fixed amount of scientific research that will be done, regardless of whether it is funded by the United States? Or do you think perhaps the funding of research in the United States either is or isn't, and if it is happening, the research will be done, and if it isn't, it's not going to be "taken up" by some mythical free market replacement entity.
Only a 20-something policy wonk could advance the idea of non-funding science as a good idea for a major nation. Do you think the "free market" is going to take care of the need for technological advances? I'd have to say the history of American corporate management would not support this argument. American corporations are only interested in profits and shareholder value. Very little basic research is done in the private sector.
Let's get down to brass tacks here. Are you suggesting that the NIH shut down operations? The NSF? Department of Energy research? Center for Disease Control?
What a phenomenally stupid idea this is.
April 12, 2006 12:45 AM | Reply | Permalink
Excuse me. Was taking my insulin. Nobel Prize in Physiology or Medicine, 1923, Banting & McLeod, University of Toronto. The two were actually rivals, and shared their prizes with their respective colleagues Best and Collip
Huggins, 1966 Nobel Prize in Physiology or Medicine, hormonal treatment of cancer.
Herzberg, 1971 Nobel Prize in Chemistry, citing world's greatest molecular spectroscopist.
Hubel, 1981 Nobel Prize in Physiology or Medicine, visual processing in the brain.
Polyani, 1986 Nobel Prize in Chemistry, chemical reaction dynamics.
Taylor, 1990 Nobel Prize in Physics, particle scattering useful in quark research.
Smith, 1993 Nobel Prize in Physiology or Medicine, methods of inducing mutation.
Brockhouse, 1994 Nobel Prize in Physics, neutron scattering
April 12, 2006 10:38 AM | Reply | Permalink
One of the unforeseen consequences of Judge Greene's breakup of AT&T was the effective destruction of Bell Labs as one of the leading basic research centers in the world. The fragment that went to AT&T, and then split further when AT&T split into three pieces, was no longer at critical mass to support major basic research programs. I forget the number of Nobel Prizes won by Bell Labs researchers, but it was comparable to any top research university in the US.
Even though the old Bell System seems to be reconstituting, much as did the little pieces of monster in the 1960s Japanese "blob" horror movies, the Labs is unlikely to come back.
Some companies do substantial amounts of basic research, such as IBM.
April 12, 2006 10:48 AM | Reply | Permalink
I think it may be escaping you becasue you are focused, perhaps, on the wrong objective, for the federal committment. It is not necesarily to beat other countries. Rather it is to have the ability to pursue innovative ideas, and to have them published independent of what the data shows.
Right now in this country well over 80% of research funding is by private industry. What that means is that the public often times does not know the results of data, the industry finds no benefit in publishing or even pursuing if it does nto increase their bottom line.
Industry often cuts funding for investigations which do not support their goals, regardless of how beneficial the data might be for society as a whole.
Do you honestly beleive that the auto industry was willing to fund alternative energy research in the 70s??? Who do you think funds alternative medicine research, i.e. from plant sources which need not be converted to a pill to make billions from?
Federal committment in funding means research that benefits society not reseach that has to demonstrate merit to a private entity to make capitalistic returns on their investment.
April 13, 2006 6:05 AM | Reply | Permalink