Landing a man on the moon was an astounding American success and a triumphant demonstration of American ingenuity and innovation. But the man on the moon analogy just doesn’t hold up when discussing our efforts to develop renewable, sustainable, and carbon-free sources of energy.
For lots of reasons—including the burdensome regulatory environment that exists now but that didn’t exist in 1961—I doubt that we could accomplish the Apollo program today with the same expediency that the program enjoyed in the 1960’s. But beyond that, we must remember that the goal of the Apollo program was not to turn us all into the Jetsons by developing a safe, reliable, and affordable system of space travel for all Americans, but instead to send one mission to the moon, at pretty much any cost, as long as we planted our flag before the Russians planted theirs. Doing something once is quite a different proposition than is developing a sustainable and affordable long-term solution to any problem.
Sure there are some parallels between the Apollo program and our current efforts to switch to renewable, carbon-free energy solutions. Both require significant investment of government resources, and both require the collaborative efforts of our smartest scientists and engineers. But the parallels end there because it isn’t like we will build one solar farm or one wind farm, plant our flag, and call it a success.
In reality, our best hope for a carbon-reduced future lies in the U.S. fusion energy science program and the ITER experiment in Cardarache, France. The experiment met a significant milestone last week when the preparation of the site was completed and the property turned over to the ITER Organization, which will build the buildings, construct the tokamak reactor, and conduct the various experiments necessary to put us on the pathway to a demonstration fusion power plant.
Sure, fusion has its skeptics, but so did the early Apollo program—and both have been considered long shots, even in scientific circles. But while solar and wind might nibble around the energy consumption edges, fusion is the only alternative energy source that could ever produce enough power to realistically compete with coal or nuclear power plants as a primary source of electricity for the grid (and at that, only if the price of building a fusion reactor can be substantially reduced). Fusion is the only source of alternative energy that is not dependent upon climate or geography, does not require limited resources to be harvested from the earth, doesn’t emit carbon gas, poses no threat of a runaway reaction, and does not produce waste that has proliferative capabilities. So while fusion power plants won’t provide a near-term solution to our energy dilemma, they are our best hope for the future, and worthy of the sort of investment we made in a space program that piqued our imagination and bolstered our national pride, but generated relatively few societal benefits.
We can continue to pretend that somehow wind and solar will replace coal as our primary source of electricity in the same way that, as children, so many of us dreamed of flying an aerocar to work or asking Rosie the Robot to clean our rooms. Or, we can get serious about alternative energy and invest in the only viable solution for non-proliferative, carbon-free, and highly-producing renewable energy with the hope that someday fusion power plants will provide reliable, clean and affordable energy to every American and to all of the world.


9 Responses to If We Can Put a Man on the Moon….
trendisnotdestiny - July 13, 2010 at 5:21 am
Maybe, we should clean up our messes before starting new ones
goxewu - July 13, 2010 at 8:14 am
What will we do with the radioactive waste?
trendisnotdestiny - July 13, 2010 at 5:11 pm
package it as apart of next subprime loan boom… with your next home buying experience you will get a free can of Quaker State Extra Toxic to go with your 15% 30 year mortgage…..
dajones - July 14, 2010 at 6:49 am
Goxewu, perhaps you should review your physics. There is no radioactive “waste” from the fusion reaction. Fusion is not fission. What does come from the reaction is high energy neutrons and when these interact with the vessel walls, they induce radioactivity in the container materials (this is called activation). Research is being done to develop new materials that can resist heat and that exhibit low activation potential.Yes, when reactors are disassembled, the vessels walls will need to be treated as radioactive waste, but the radioactive half life of these materials is short and in no way comparable to the half-life of spent fission rods (we’re talking about a hundred years rather than millions of years). In other words, we can safely store these materials until the radioactive decay is complete, in a time frame that is on the order of a lifetime. Also, since this is solid material, it is visable and containable in a way that liquid waste is not.As for trendisnotdestiny’s comment, there is a group in Texas that is looking for ways to combine fission and fusion such that the fusion reaction will utlized the radioactive waste from fission, thus eliminating the fission waste. This is very preliminary research, but interesting none the less. Who knows…fusion could end up being one way to clean up the messes we made in the past. There is no perfect alternative energy solution except in the minds of some “advocates” who don’t know much about science. In the quest for the perfect solution, we are losing precious time.
goxewu - July 14, 2010 at 8:28 am
Re #4:Thanks for the correction. Although fusion reactors do not in themselves produced long-half-lived radioactive waste, what I’ve read in popular science articles (obviously, I’m not a scientist), the neutron bombardment will–or maybe just might–turn the reactor itself radioactive, albeit not of the same intensity as spent fuel rods in fission reactors. Whether or not dealing with this radioactivity not just in decommisioning the plant, but in simply maintaining it, will prove to be as big a problem as…let’s call it the Yucca Mountain predicament…I certainly don’t know. And from what I gather, nor do most scientists.In terms of eventual return on public research dollars (and as a big-Government liberal, I’m all in favor of public research dollars), this is a tough call. But from a man-in-the-street viewpoint, I’d much rather have them spent on fusion reactors than on sending people to Mars.
trendisnotdestiny - July 14, 2010 at 10:39 am
dajones,That was one impressive post… Thanks for taking the time to contribute to my poorly educated experience with fission and fusion.I’ll check out that group in Texas… Spot on!
sciencelibrarian - July 14, 2010 at 12:15 pm
If the problems in making fusion power practical can be overcome, it will indeed be wonderful. However, it should be noted that many, many experts doubt that this will happen any time soon. There are enormous engineering difficulties. I suggest reading an article about fusion that appeared in the March 2010 issue of Scientific American (“Fusion’s False Dawn,” by Michael Moyer, pp. 50-57). The article concludes, “Fusion is just one more option and one that will take decades of work to bear fruit. Ignition may be close, but the age of unlimited energy is not.”It is important to continue devoting money and other resources to fusion research, but we can’t bank on fusion rescuing us from our serious energy predicament any time soon.
goxewu - July 14, 2010 at 2:24 pm
Comment #6 prompted to re-read the OP. Since Ms. Auer Jones so kindly answered my first question (#2), I’m hoping she might be willing to answer a couple more:1. The Government financed putting a man on the moon and, since its point was geopolitical (i.e., beat the USSR), appropriate. But fusion plants, if and when they’re ever operable, will be in the energy business. So, what’s the appropriate way to go: * a) Public research funding >> private enterprise fusion plants? * b) Private research funding >> private enterprise fusion plants? * c) Public research funding >> public utility fusion plants?2. Is “the burdensome regulatory environment that exists now” a possible/probable hindrance to a fusion energy program, and what particular aspects of it would need to be rolled back in order for a fusion energy program to move ahead?Note: “Few societal benefits” from the Apollo program? The Air & Space Museum is the best museum in the country, and I still kind of like Tang.
performance_expert2 - July 15, 2010 at 12:19 am
Thank you for advocating new methods of making energy for consumers. Re: the Apollo mode, I fervently believed in Apollo. Later, along with a long long litany of things that did not quite add up, I gained the question, “How does an astronaut in a moon suit, wearing a helmet that can not bend down, focus or otherwise frame-the-photo with a Hasselblad camera that is rigidly mounted on a frame on the chest of the space suit and take a quantity of absolutely gorgeous and glamorous photographs evidencing the skills associated with the top fashion photographers?” Redux: Yes, filmed at the fenced off Area 51 in Nevada and broadcast while the guys circled the earth.Please note, 2010, today with the powerful computers, the “Space Shuttle” and the “International Space Station” do their business at about 250 miles above the terra firma of the earth. Basically, they’re not even in space, they’re just above the Earth’s atmosphere. The moon is more like 244,000 thousand miles away. Let me say that again 250 miles, 244,000 miles. There are man-placed reflectors up there on the moon from the USA. The Russians also put reflectors on the moon but no humans. In 1968 people were using dial telephones and paper punch cards for their computing. The whole claim seems a little technologically inverted, does it not? Images and media are powerful strategic propaganda tools. And there is nothing more beautiful than the Apollo images. A job well done.