Libertopia Approaches?

The big news in physics yesterday was the announcement that a private donation has been made to support experiments at the Relativistic Heavy Ion Collider on Long Island. This is the accelerator that’s slamming gold nuclei into each other to create a quark-gluon plasma, along with a million dippy stories about how it might make a black hole that will eat the whole New York metro area. This isn’t my field (not by a long shot), but I think this is terrifically exciting work, not least because the observations that they’ve made confound existing theories– the “plasma” acts more like a liquid than a gas, which was completely unexpected.

The news of the donation has been met with much rejoicing in the high-energy community, with JoAnne Hewett and Peter Steinberg doing the Happy Dance, and even the curmudgeonly Peter Woit saying that “it’s wonderful that the worst immediate effect of the budget cuts for 2006 has been avoided due to the generosity of Simons and others.”

He goes on to qualify that statement by saying “this doesn’t materially change the long-term problems,” namely the extremely high cost of high-energy experiments, and the shortage of government funding. While I hate to bring people down at a happy moment, I have to agree with that, and also with Sean’s comment that:


I’m less convinced of the impact on long-term funding. Nobody is going to donate $5 billion dollars to build a linear collider. But the government might get the idea that they should– a worry familiar from high-school bake sales is that every time you collect $x of external funding, your conventional funding is decreased by $2x to compensate. And of course, our beloved comment section will now be overrun by Ayn Rand acolytes who think that all science should be funded by private donations.

I think this is probably the most significant down side of this situation. Unforntuately, this can and will be taken as support for the conservatarian idea that if we would just cut taxes and shrink the government down to its core functions of providing for the national defense and legislating the private sexual behavior of its citizens, private charity will pick up all those other functions of government, and the Libertoonian Utopia will arrive at last. We’ll have low taxes, all the supercolliders we want, and a super-techno-nano-pony in every pot.

It just won’t work that way. Modern science, particularly physics, has advanced to the point where progress can no longer be made on the Victorian model of the landed gentry tinkering around in their spare time in their home laboratories. The funding for my own experiments is smaller than the round-off error in most accelerator lab budgets, but when my NSF grant runs out, I’ll have spent something on the high side of a quarter million dollars building my lab (including salary for myself and my students). And I’m small fry even by AMO physics standards– a colleague who took a research university job at the same time I was hired here said that he needs to find something like $1 million in external grants per year just to keep his research group operating. And that’s one group out of a community of hundreds.

Science is an expensive business these days, and there’s just no way you’re going to be able to fund it all out of private donations. Relying on philanthropy is not a sound basis for a national science policy.

Now, I’m not saying that I think the donation was a Bad Thing. I think RHIC is doing fantastic science, and I’m glad to see that they’ll be able to continue operating. At the same time, though, I wouldn’t want to see private funding of major research become a trend, for fear of what that will mean for science down the road. At this point, it’s still a minor concern compared to the excellent news that RHIC will keep running, but there is a potential dark cloud lurking inside the silver lining.

(OK, I was wrong when I said I wouldn’t post anything substantive over the weekend…)

4 comments

  1. Modern science, particularly physics, has advanced to the point where progress can no longer be made on the Victorian model of the landed gentry tinkering around in their spare time in their home laboratories.

    I’m not sure I agree with this. HEP, yes, obviously, but these days any would be scientist can get a computer for $500 that will do pretty much all the computation 99% of science needs, you can buy off-the-shelf biotech equipment (or services) of amazing versatility, engineering components can be made to order, access to the scientific literature via the Net is much more convenient, etc. etc. I think there’s a heap more science that can – or could – be done by amateurs now than was possible 50, 100, or 150 years ago.

    Though of course the cultural underpinnings of amateur science are arguably as important as the technological ones…

  2. I’m not sure I agree with this. HEP, yes, obviously, but these days any would be scientist can get a computer for $500 that will do pretty much all the computation 99% of science needs, you can buy off-the-shelf biotech equipment (or services) of amazing versatility, engineering components can be made to order, access to the scientific literature via the Net is much more convenient, etc. etc. I think there’s a heap more science that can – or could – be done by amateurs now than was possible 50, 100, or 150 years ago.

    Yes, the components have gotten cheaper, but at the same time, the experiments have gotten more complex. In 1800, you could become an immortal figure by cutting a couple of slits in a card and looking at the diffraction pattern that resulted, but a couple of centuries later, it’s gotten a lot harder to make an impact.

    The effect of technological improvements– particularly in the computing realm– has been huge, but it’s also forced a dramatic increase in the sophistication of experiments. When the power of a desktop computer doubles, the calculations required for original research doubles almost immediately. When the cost of lasers drops by half, the number of lasers required to do an interesting research project doubles a short time later.

  3. Progress in science now comes mostly from new capabilities, because there are so many people doing science. If something can be done with easily available equipment, it probably has already been done.

    I did a neutrino oscillation experiment for my thesis 20 yearsa ago. We used an existing detector and an improvised neutrino beam. We didn’t find any oscillations.

    People have now found them, although the exact type we were looking for. People are planning on looking again using a new $100 million neutrino beam.

    I knew people who use to do condensed matter experiments using x-ray tubes to do x-ray scattering. Now they go to synchrotron light sources so they can get more powerful and precise x-rays.

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