


The nuclear industry has hitched a ride on the climate change bandwagon, proclaiming that nuclear power will solve the world’s global warming and energy problems in one sweeping "nuclear renaissance."
As you might expect, there’s a catch.

Nuclear energy faces escalating capital costs, a radioactive waste backlog, security and insurance gaps, nuclear weapons proliferation, and expensive reactor decommissioning that will magnify the waste problem.
The contention that nuclear energy is "carbon free" and therefore a global warming solution, fails to account for the nuclear fuel cycle – mining, milling, enriching, and transporting uranium; forging steel for pressurised vessels; building massive, complex plants; and handling, shipping, reprocessing, and storing waste – requiring substantial fossil fuel supplies. Nuclear fuel processing also employs halogenated compounds that both erode the ozone and simultaneously produce more global warming impact per volume than carbon dioxide.
This fall, at Stanford University, Dr. Mark Z. Jacobson published a "Review of Global Warming Solutions," comparing the lifetime CO2-equivalent emissions of energy sources. Wind and concentrated solar emit between about 3 to 11 grams of CO2 per kilowatt-hour (kWh) of electricity. Geothermal and conventional solar emit between 16 and 64 grams; wave, tidal and hydro power emit 34 to 71 grams. Nuclear electricity emits between 68 and 180 grams per kWh. Jacobson concludes that "Coal … and nuclear offer less benefit [and] represent an opportunity cost loss."
A dollar invested in nuclear power increases global warming because it consumes scarce resources required by real solutions.
Nuclear economics
This year, billionaire investment wizard Warren Buffett withdrew financial support for a US nuclear reactor in Idaho, killing the project. Why? Nuclear power is not economical.
A full accounting of nuclear power remains obscured by billions in public subsidy and still-uncertain costs of processing waste and decommissioning plants. Nevertheless, Amory Lovins and Imran Sheikh calculate a kilowatt-hour of electricity from a new nuclear power plant averages about 14 cents compared to a wind farm at 7 cents. Even this calculation does not account for capital financing, security, waste disposal, insurance, or public health impacts. No nuclear plant is insured, even with public guarantees, to the full cost of a Chernobyl scale accident, which becomes an unbudgeted liability on the public’s balance sheet.
Nuclear power plants have a dismal safety record, featuring thousands of private, public, and military accidents up to the present day. Chernobyl, Three Mile Island, Kyshtym in Russia (1958), and Idaho Falls in the US (1955) were not anomalies, but simply the most dramatic accidents. The US Davis-Besse Reactor in Ohio has suffered four serious accidents since 1977. The latest, in 2002, followed George Bush era deregulation, allowing a delay in safety inspections. While the Bush team slept, boric acid ate six inches through a 6-1/2 inch pressure vessel head. A full breach could have caused core damage and full meltdown. The plant closed for two years to repair the damage, spending $600 million. Such costs plague the nuclear industry.
Some 439 nuclear plants now operate worldwide. To replace even 25 percent of the world’s current oil and coal energy would require over 1000 new reactors, plus replacement of existing plants as they expire. Decommissioning 400 plants and building 1400 new ones would cost $10-20 trillion, at least, and would triple the world’s unresolved nuclear waste problem. Such a plan would also exhaust global uranium supplies long before the 1400 plants could be built.
Of 36 current nuclear construction projects, 14 remain stalled and most of the surviving projects are state-owned in Russia, China, and India. There is no business case for nuclear power except to socialise costs, privatise profits, and leave the garbage for future generations. In the US alone, 104 "private" nuclear power projects have received over $130 billion in taxpayer subsidies, over $1 billion per reactor. Billions more will be needed to solve the nuclear waste backlog.
Waiting for waste solutions
Nuclear waste remains the untamed demon of nuclear power. After 40 years of research, not a single kilogram of high-level spent-fuel waste has been stored in a permanent repository. Deadly, radioactive plutonium has a half-life of 24,000 years. Some fuel has been reprocessed, itself a polluting industry, but three-quarters of the waste ever produced remains in temporary storage in 50 countries.
According to Dr Mohamed El Baradei, Director of the UN International Atomic Energy Agency (IAEA), most countries have no geologically appropriate disposal sites, and many lack the expertise or will to deal with the waste that remains vulnerable to leaks and attack.
In the UK, a 2002 Royal Society report reprimanded the nuclear industry for "neglecting … the serious and urgent … problem of nuclear waste disposal." The report estimated proper UK waste storage would cost £ 85 billion (€108 billion, US$139 billion). At that rate, to store the world’s entire nuclear waste backlog would require some $3 trillion, far in excess of the 2008 global bank bailout, equalling more than $6 billion per reactor, a hidden liability not found on any company balance sheet.
No one – corporations, politicians, or public – wants nuclear waste in their environment. In the 1980s, the US Nuclear Regulatory Commission (NRC) announced it would store waste in a cavern at Yucca Mountain, Nevada by 1998. This year, NRC spokesman Edward McGaffigan told the New York Times that the Nevada repository may not open for 20 years, if ever, due to technical problems, including allegedly fraudulent geological reports. Today, seven years after projecting a $58 billion cost, the NRC estimates a $96 billion cost, paid for by the public.
Over budget and two decades behind schedule, the US industry now finds itself with nuclear waste in storage in 121 temporary facilities, leaking and corroding, and presenting vulnerable targets and security risks.
Garbage dump
The allegedly safe French nuclear industry faces critical pollution and waste problems. The French reprocessing plant at La Hague retains most of its high-level spent fuel in temporary storage. The plant releases radioactive krypton, tritium, iodine, and carbon-14 into the environment of surrounding villages and some million litres of radioactive effluent into the English Channel every day. French health scientists warn of local leukemia risks, and since 1997, Greenpeace has campaigned to close the site.
After a 1972 London Dumping Convention ban, the UK, France, and others nations turned to secretly dumping radioactive waste into the Sea of Biscay from ships MV Topaz and Gem. In 1979, the first voyage of Greenpeace ship Rainbow Warrior confronted and exposed this illegal dumping, winning the new ban in the 1980s.
However, after the 2004 Tsunami, massive drums of toxic and radioactive waste washed up from the Indian Ocean onto 15 beaches in Somalia. Villagers, who attempted to open the containers, were killed, burned, and contaminated by the waste. We don’t yet know if these drums came from France, the UK, the US, or elsewhere, but they represent the hidden cost of nuclear power dumped into the sea, a cost paid by the marine environment and the public.
With radioactive waste accumulating in 50 countries, the Somalia evidence demonstrates that clandestine dumping continues. Professor Geoffrey Boulton of the Royal Society in London has warned that UK waste will soon "multiply by 50 times" as existing power stations are decommissioned. Most plants worldwide, built in the 1970s and 1980s, are nearing the end of their life cycle, and no plan yet exists for processing the massive decommissioning wastes.
Chainsaws and butter
The assertion that nuclear power will solve, or even help, the global warming challenge is a hoax. Nuclear power is a carbon hog compared to wind, solar, geothermal, and hydropower. Purely on economics, nuclear power fails. The waste backlog, risk of accident or sabotage, and weapons proliferation are added burdens on society.
Remember, all this risk and pollution comes from an attempt to boil water. In the 1970s, Amory Lovins pointed out "using nuclear fission to boil water is like using a chainsaw to cut butter."
Human society must now face the inevitable decline in energy use. The oil era was a one-off energy bonanza and there exists no credible alternative that will replace the sheer volume of oil energy. The most important source of clean power in the world is conservation, at zero cost and zero carbon emissions.
The next most effective new power sources include efficiencies such as cogeneration, recovering waste heat that is now sent up smokestacks. Finally, we can build capacity with renewables – wind, solar, hydro, and geothermal – built to appropriate local scale, while creating more jobs and better return on investment than nuclear power plants.
The secret yet to be realised by industrial civilisation is that we can improve real quality of life with less energy and less commodity throughput. We can achieve a richer life without mining the planet to death and strapping future generations with our toxic garbage.
Useful nuclear links:
Greenpeace study: The economics of nuclear power:
Lester Brown: Earth Policy Institute on nuclear economics
Dr. Mark Z. Jacobson, Stanford University, “Review of Global Warming Solutions”
Tags: energy alternatives, Lester Brown, Mark Jacobson, nuclear, nuclear power, nuclear power costs, nuclear waste
This was posted on Tuesday, December 2nd, 2008 at 2:33 pm and is filed under Ecology . Feel free to respond, or trackback.
It is astonishing for you to state that nuclear power is a carbon hog. Numerous assessments have shown that this is not the case; and if there is a difference between the emissions of wind vs nuclear then they are so slight compared to the emissions of fossil fuel it is not worth arguing over.
The Jacobson study that you cite is skewed against nuclear because it adds a significant extra carbon emission to account for the extra time it takes to build nuclear plant. This is not entirely fair. For example it assumes there are no planning delays for wind power and that any amount of wind power can be built without delay. This is not true (certainly not in the UK anyway). You can get small-scale wind installations on-stream quickly, but if you want to deploy the equivalent of twenty nuclear powerstations it will take just about as long with wind as with nuclear. The first nuclear plant takes a long time, subsequent copies can be built quickly in parallel.
More to the point, virtually all the emissions relating to wind power are emitted up-front before a single watt of electricity is generated. With nuclear, the emissions are spread through the lifetime operation of the plant and beyond into decommissioning, possibly 80 years hence. In terms of immediate effect, wind produces far more emissions in the short term (which is the vital period when we need to act).
You have even been economical with the figures in Jacobson’s study. He actually includes a figure as low as 9g/kWh for nuclear. And even he does not cover the full range of low-carbon nuclear operations:
Vattenfall, the Swedish power company, produces Environmental Product Declarations for all its powerstations. It uses nuclear, hydro, wind, biomass and coal (in Germany). Its figures show nuclear is 3g/kWh, hydro is 5g/kWh, wind is 10g/kWh, biomass CHP is 15g/kWh, coal is 700g/kWh+.
See Vattenfall p22:
I am not arguing that nuclear is a complete solution – obviously there is a case for wind power and it can make a difference in the short term – but equally you must see that there is a place for nuclear power, especially when multi-gigawatts of steady generation is required. History has shown that abstaining from nuclear almost invariably results in higher consumption of fossil fuels. Countries with significant nuclear capacity, such as France and Sweden, have amongst the lowest CO2 emissions per capita in the developed world.
“Human society must now face the inevitable decline in energy use.”
That is your assertion. I don’t agree with it. There is plenty of energy available and our use will inevitably increase. If your solution to climate change relies on reduced energy consumption forever, then it is not a viable plan. Such a plan courts disaster because the world will always fall-back on fossil fuel if the other energy options are not developed.
Rex Weyler:
Thank you Colin. You make some good points. The problems with nuclear, however, go far beyond its carbon emissions and include the unresolved waste problem, uranium depletion, and the expectation of public subsidy for capital and dealing with accidents. All of this points to the really fundamental problem that the earth is not an infinite source of new stuff and an infinite sink for our garbage. This erroneous assumption of classical economics is what got us into this mess, and it is time to abandon it. As inconvenient as it is, we must now realize, the human economy has reached the order-of-magnitude scale of the planet, and the limits to growth — including energy use — are real, and we’ve met them.
“Always fall back on fossil fuel” is only correct as long as it is easy and cheap to retrieve. “Always” is a big word. Fossil fuel, uranium, copper, rich soil — these are all limited resources. Fossil fuel production is peaking this decade and will decline hereafter. Even the International Energy Agency now agrees with that assessement, which they long denied. We squandered the oil because it was cheap, easy, and offered an extremely high net energy output vs. energy required to retrieve it. Nothing — not wind, nuclear, hydro, or anything — offers the 100:1 or even 30:1 net energy of oil in its heyday, which is already behind us.
See: “World Oil Crunch Looming?” Science magazine
Energy Collective: “Can we find six Saudi Arabias?”
IEA 2008 Executive Summary: “World energy supply … patently unsustainable.”
Every major oil field on the planet is in decline. Are there really 90 billion barrels in the Arctic seabed? Maybe. Can we actually get it out? Maybe 40 or 50%. At What cost? How many supertankers or oil spills? And in the end, the recoverable Arctic oil represents one or two years global supply.
The limits to energy throughput are real. I’m not saying this because I want it to be that way. I’m saying it because it is true, and if we’re going to plan for our children and grandchildren, we need absolute truth, not just big dreams. Human energy use has peaked, pure and simple. Yes, there is “lots of energy,” but nothing like the big pool we just squandered in the last five decades.
rw.
You really are a nuisance, Mr Weyler. I pinch bits of articles (with full acknowledgement)for my website – I get the important bits, and leave the rest.
Now you write an article in which every paragraph carries a punch, and every important aspect is dealt with. What can I do?
My readership is, I believe – people of short attention span, (like myself). Now you make me read the whole damn thing, because it is clearly written and riveting. I shall have to pinch it in several bits, because all of them should be read, widely.
December 10th, 2008 at 2:47 pm
On the surface, it seems so reasonable. Nuclear doesn’t burn anything, so it doesn’t emit carbon dioxide. It produces lots of energy for a very small amount of fuel. What more could we ask? Well, quite a bit, actually…
It’s time for the debate about climate change to move beyond the quest for the next technological saviour. It used to be that nuclear fusion was going to be the answer to all our energy problems. … now, with fifty years of research behind it, we’re in an energy crisis and fusion is nowhere to be found.
See Meander
December 11th, 2008 at 11:40 am
And from a completely non-science background, my general feeling is this:
If it looks too good to be true, or that it will make things simple – it is too good to be true.
Whiteout would be a good, toxic metaphor… just cross your mistake out and reveal the flaw…
Cell phones and Ipods? … War in the Congo
Cosmetics to make perfect faces? … Massive water pollution and sex change in fish
Nuclear? … toxic garbage.
Electric cars? Dams that destroy farmland…
So, dusty way is best…
Sticking with simple, low energy solutions — instead of attempting to solve complex problems without detriment to ourselves — is the way. … Return to your landline, wait for a recycled cell…
See beauty for what it is… Use less energy, way less…
Ride a Clidesdale… or less awesome form of low energy transport…
Always look for chipped and imperfect – perfectly human ways…
December 18th, 2008 at 6:41 am
I always wonder, after reading these types of articles, why nuclear power still exists given the myriad of show-stopping problems with it. If one assertion can be shown to be false, another can always be put forward to replace it.
I can only come up with one answer: The people writing these articles are out of touch with reality.
That is to say that maybe, just maybe, the people planning China’s 100+ reactor fleet know a thing or two more about energy economics and uranium supply than bloggers. But it’s just a guess.
Rex Weyler:
Here’s another guess: The thugs in China are just as arrogant and stupid as the industrialists who destroyed half the forests on the planet, destroyed the fisheries, laced the seas with toxins and acid, lopped off the mountain tops to retrieve coal, built Bophal chemical plants and the Chernoble reactor, and are now heating the planet’s atmosphere. Just because someone has the power to do something doesn’t mean they’re smart or that their enterprise is going to benefit future humankind. China is draining and poisoning its rivers and turning farmland into desert, just like the many other areas of the world. The “100+ reactor fleet” in fifty years will be a 100+ decommissioning nightmare. Even by International Atomic Energy Association estimates, as explained in my original article, the uranium supplies won’t support a global fleet of nuclear plants that could make a significant contribution. And in the end, it is still all waste, including the plants themselves, to be disposed of. No, I don’t think the geniuses in China have a clue what they’re doing in any measure of long-term sustainable culture.
rw.
December 18th, 2008 at 11:33 am
My reading of your article couldn’t be more timely, as the headline of my local paper reads “Tremendous Opportunity with Nuclear: Politicians (say)”.
I live in a city on the northern Alberta/Saskatchewan border, Lloydminster, and the talk around town is all about bringing a nuclear reactor to our region. To add insult to injury, a bulk of the power produced would be slated to future tar sands projects in the area!!!
This area is notoriously conservative and is already supported by the oil industry, so I think the politicians probably think they will be able to railroad this right through, but believe me, I’ll have a printout of this article and lots of throat lozenges at the ready, for rebutting and shouting down any politician that thinks they are going to make this happen without a fight!!!
Anyone care to join me???
December 20th, 2008 at 1:05 pm
Rex, thanks for your reply. I agree the oil is running out, but my point is that there is still sufficient fossil fuel (particularly coal) to cause us severe problems before it runs out. If we don’t deploy alternatives, people will keep burning fossil fuel. One of the alternatives – the one that scales-up best at the moment – is nuclear power.
The problem of nuclear waste disposal is essentially solved, and the “problems” of subsidy and uranium supply are essentially non-problems.
Deep geological disposal is a perfectly adequate method of dealing with nuclear waste. The reasons for not implementing it sooner are more political than technical. It is safe enough. The proposal in the UK is for a design that ensures the risk to individuals is less than 1 in a million per year for all time. I believe the Yucca plan for the US is a little less stringent, but it at least ensures a risk lower than background radiation for all time.
Given that the most radioactive isotopes will decay the quickest, after 600 years or so (once the Caesium-137 and Strontium-90 have decayed) the waste is relatively safe to handle. My expectation is that future generations will probably re-excavate the site as a source of valuable minerals.
The quantities of waste are small – they don’t require us to use the earth as an “infinite sink for our garbage”. A lifetime’s supply of electricity produces a volume of high level waste about the size of a cigarette packet. This is much easier to manage than the thousands of tonnes of pollution caused by fossil fuel.
Regarding subsidy, nuclear power has received significant support in the past, but so has every other form of energy production. All forms of energy need subsidy. Nuclear power needs relatively little considering the amount of energy it produces.
See the numbers here: http://www.issues.org/22.3/realnumbers.html
You say that nothing can provide the ratio of energy output/input provided by fossil fuel. But as far as I am aware there are many options that provide 30:1 return or better. Nuclear power is just one of them. Hydro and wind are fine too.
See table 2:
http://www.world-nuclear.org/info/inf11.html
I profoundly disagree with your statement that human energy use has peaked. The solar energy resource is huge. Coverage of 1% of the world’s deserts could provide all our electricity. The uranium resource is fairly vast particularly if you consider extraction from seawater and breeder reactors; enough to last for millennia. Thorium is three times as abundant as Uranium and offers many advantages, including less waste. Finally, there is great hope for nuclear fusion which offers almost unlimited energy from hydrogen.
Given our history, it seems preposterous to state that humankind will never utilise more energy than it currently does. Increased energy efficiency should be promoted by all means, but this inevitably leads to greater energy use, not less.
The notion of low energy living can only be entertained now as a lifestyle choice because our high-energy infrastructure provides the security to permit such dreams. The reality of low-energy living outside of modern developed nations is one of abject poverty, from which all participants would be happy to escape.
Rex Weyler:
Colin: Thank you for your comments. I enjoy the discussion, and you make some good points. I question a few of your assumptions.
nuclear waste problem: As far as I know, this is not remotely ’solved.’ You’ll need to supply a reference. The problems are not just political, but technical, and as the plants come up for decommissioning, the volume of waste is enormous, not “small.” The “political” problems arise because no one wants these toxic dumps in their local environment. The nuclear industry track record is just not comforting. And if the problem was solved, why are they dumping unmarked drums off the coast of Somalia?
Energy return: No, there are not many sources with 30:1 net energy, only oil and some natural gas. Oil itself was once 100:1, now down to about 20:1 or less on average, new fields are more like 15:1, and the industry is now digging into the 4:1 and 3:1 tar sands in Canada. If there were lots of 30:1 net energy sources around, we’d be tapping them. Even wind and solar come in at less than 10:1. See Charles A. Hall on “Net Energy” and “EROI.” He provides a chart.
Energy Peak: You may be correct that we’ll find some way to use more energy, but I still doubt it. I believe the oil era was a one-off because of the high net energy and ease of retrieving 500-million years worth of stored energy. The best of that store is long gone. Net oil energy per capita peaked in 1979. All the other sources we now contemplate, including nuclear, are oil intensive. Our agriculture is oil intensive. It is a mistake to assume that just because humanity grew exponentially in the past we can project that growth into the future. Big mistake. There are no cases in nature of exponential growth continuing forever. None. Human enterprise has reached the scale of the planet. The big bonfire of the oil era is over, and we will be going down the back side of the energy throughput curve.
Let’s imagine decommissioning 400 nuclear plants and building 1400 more to achieve 25% of the current oil energy. What is the EROI, net energy return, on that plan? Can the industry tell us? When can we expect those 1400 new plants to come on line and produce net positive energy? 2030? 2050? by then, the oil production will likely be about 50% of what it is today, or less, and the EROI will have plummeted, so we would still be at less energy, and we’d have spent some $20 trillion building these monsters that will have to be decommissioned, and the uranium will be depleted down to the least viable ores. I have never seen a feasible plan or even a hint of a scheme for extracting uranium from the oceans. I don’t think this is a tenable nuclear plan that will allow us to bash forward, business as ususal. Someone, please, show me the business plan for this. Show me the numbers, so we can go out and sell this to an investor. I don’t believe a viable plan exists.
This is why I promote conservation and learning to live simpler lives. We cannot keep cranking human industry as if there are no limits.
Low energy living: This does not not have to be in poverty. There exist many examples in history, and today, of people living quite pleasant, productive lives with modest energy throughput. Billions of people are in poverty today because we’ve grown beyond the carrying capacity of the planet, which can no longer support us all, and the rich countries have plundered the poor for resources. As a species, we’re into about 30% overshoot already. So yes, much of the planet lives in absolute poverty. We’ve poisoned the seas, turned fertile land into desert, and destroyed half the world’s peak forests to achieve the wealthy consumer lifestyle for about 15% of humanity. How many planets do we need to do this for the other 85%. Do the math. Nuclear plants are not free energy. They are oil intensive, mining intensive, cement intensive, massive industrial projects. The notion that we’re going to replace the rich world’s energy with nuclear plants, and then build 6-times that capacity to convert the poor into wealthy consumers is delusional as far as I can see. You need to run the supply chain numbers on that and figure out where all the cement and steel and uranium is coming from.
No, I think this is a Faustian bargain. Low-energy living, relocalization, returning to basics of healthy survival, I believe, represents a much smarter path.
Yes, the poor of the world would be happy to improve their situation. One of the best ways is to get the rich off their backs, and give them back the resources we’ve plundered. Let them make the most of their remaining soils, fish, and forests, before it is ALL gone.
rw.
December 21st, 2008 at 12:47 pm
Rex, I guess we can agree to disagree on the energy payback available from current low carbon solutions. Even Charles Hall notes that the information he needs to do an accurate EROI on nuclear power is just not available. There is tremendous bias on both sides.
http://www.theoildrum.com/node/3877
Regarding uranium extraction from seawater, Japanese industry is actively pursuing this because they have no native supplies of ore. Here is a sample link of a trial system, I’m sure you can google more:
http://jolisfukyu.tokai-sc.jaea.go.jp/fukyu/mirai-en/2006/4_5.html
This suggests they can extract uranium from seawater at 25,000 yen per kg, which is about $127 per lb. The price for uranium ore did get close to this level in the last couple of years, though granted at the moment it is currently much cheaper to simply mine Uranium. It would still be economical to produce nuclear electricity at $127 per lb of Uranium. So whenever the peak of mined uranium is reached there is an almost boundless supply available from seawater.
A few studies from the 1970’s tried to prove that seawater extraction could never have a positive energy balance – but the method used by the Japanese involves a passive adsorbent which is anchored in an ocean current. The ocean current does all the work. (Strictly thermodynamically speaking it has a large energy input from the ocean current, but that is essentially free renewable energy.)
The point though is that the reason this is not being exploited more is because there is a huge reserve of easily extractable uranium in the ground. When the price of Uranium spiked due to resurgent interest a couple of years ago they promptly increased exploration and expanded the known reserve by an impressive 17% in just two years. The likelihood is that there is very much more uranium available before we even have to consider seawater extraction.
And of course the energy value of any Uranium that we do extract can be multiplied 60-fold if we start using breeder reactors. Again, this has not been commercialised on a large scale because it is not needed yet, but Mitsubishi Heavy Industries have plans to commercialise fast breeder reactors by 2050.
Regarding waste disposal, there is a fair amount of information regarding deep geological disposal available. In the UK the Committee on Radioactive Waste Management recommended geological disposal as the preferred solution. Here is a document that covers the risk profile:
http://www.nda.gov.uk/documents/loader.cfm?url=/commonspot/security/getfile.cfm&pageid=12038
This says that sites meeting the necessary hydrological profile are fairly common in the UK. As you will see from the graphs, the risk to individuals living close to the site is below the 1-in-a-million target for all time and substantially less than 1-in-a-trillion in the short term. (For comparison the risk from background radiation everywhere is at least 1-in-ten-thousand.) In my opinion, if sites meeting this specification are relatively common then the waste problem is technically solved. Done properly, it is essentially perfectly safe.
Sweden is implementing a deep geological solution like this. They plan to vitrify the waste, package it in steel and copper, embed it in bentonite clay and deposit it in a rock repository hundreds of metres below ground. The point of the bentonite clay makes the philosophy clear – water permeates saturated clay at a rate of about 1 metre per million years. Hence even when the engineered flask fails, water cannot physically carry any waste away before it has decayed to harmless levels.
In contrast the average US coal powerstation is killing people at a rate of about 15 deaths per TWh. The “waste” air pollution from coal kills 30,000 in the US each year. In comparison any nuclear waste solution would be less harmful than this – even dumping nuclear waste in an unprotected heap in the middle of the desert would probably cause fewer deaths.
Casting aspersions at the track record of the nuclear industry is a rather cheap shot. Nobody has ever been killed by a radiation accident at a civil nuclear powerstation in the UK or the US. Nobody has ever been killed by civil nuclear waste. As the risk profile shows, the proposed geological disposal system is several orders of magnitude safer than it really needs to be. It is absurdly over-engineered. Yet it is affordable and can easily be accommodated within the current price of grid electricity. Those who still insist that the problem is not solved are simply making political capital IMO.
I’m not suggesting that nuclear would provide the whole answer, but it is a substantial technological solution. You are probably familiar with the IEA’s projections:
(See the exec summary)
http://www.iea.org/Textbase/techno/etp/index.asp
They are proposing up to 32GW of new nuclear per year. This is challenging, but there is a lot more experience of building nuclear on that scale (e.g. in France) than there is of building the renewables that are also necessary. 50GW+ of wind per year is a pretty phenomenal aim.
Maybe it won’t happen. But what I am sure of is that if it does not happen then the gap will be filled by burning more fossil fuel.
Regarding low energy living – I think the historical precedents suggest that the first move should be to live nearer the equator. It is relatively easy to live sustainably in the tropics. It is hard in a mid-European/north american climate. Medieval society virtually deforested Europe before they discovered coal. I’m not saying you can’t be happy in a low-energy existence, but what I would say is that it is human nature to increase energy usage (as well as energy efficiency) where possible. That is one of the “basics of healthy survival”.
Rex Weyler:
Thanks Colin. This is an interesting discussion. I am not a-priori against any energy technology. Yes, there exists a lot of bias on all sides of this, and too few actually seeking the truth. All the more important to have these discussions. Yes the EROI data for nuclear is incomplete. You can see the carbon footprint data in the Jacobson study, referenced in the article. Where there is carbon footprint, there is energy use. The EROI perspective is one of the most important in assessing energy options. My reference to the nuclear industry’s “track” record” is the sad state of the waste disposal plans, the Yucca Mountain fiasco, the backlog of waste even in France’s recycling industry, the mysterious drums of waste that washed up in Somalia, and so forth. Until the industry can clean up this backlog, it appears foolhardy to push ahead and scale this up with more unproven technologies. In any case, thank you for your well referenced thoughts on this. I’ll review all of these references, and hope other readers will educate themselves. Our energy decisions will matter in the future, and these decisions should be based on solid evidence … and that even more elusive quality, wisdom.
Rex.
December 29th, 2008 at 8:31 pm
It is arguable that exponential growth in energy use for human beings is not even healthy for culture or people.
The amount of sheer waste in North America is well beyond need or even pleasure – whatever stats you use about what works now and later. It is simply leakage, thoughtlessness, and waste.
Thoughtlessness – the desire not to have to think – comes from deep fatigue. It is not a luxury to be able to rely on the world in this wasteful manner – but rather a sign of deep depletion and fatigue. The inability to think and pay attention even at our own expense.
This reflects a lack of healthy intelligence with regards to our participation in nature, and our own sense of limits both materially and perhaps even psychologically. It lacks any personal awareness or recognition that we have an obligation to restrain and give back to the planet and others living on it.
Is an evolved and rich society one in which people show no regard for how their use affects the greater world? No understanding of their connection to something greater?
To my mind it shows a lack of basic attention skills. A lack of participation in the real world. I don’t mean this as a negative judgment – I think people exhaust themselves within this high energy system and then need to lean upon it uncritically.
Before people hope that our energy use can continue as normal, indefinitely into the future… perhaps increase… and about the massive energy that will go into whatever that expansion entails, we might do well to at least consider our own consumption first.
Is this even making our lives rich? Or are we burning ourselves out as we burn the world? Are we numbing our senses, our deeper intelligence, and consideration for others?
Scientifically we are so connected to the planet, I would argue that our own health and ability to pay attention has been radically compromised by our current dynamic of energy use.
As an example – traditionally when the sun goes down, our own system kicks in with chemicals to help us sleep deeply and heal. Electric light late at night blocks chemicals our body creates to fight cancer… one reason for a rise in certain cancers…
Simplicity might indeed help to show us what real wealth is. Help to illuminate health and basic patterns of giving, and taking.
December 30th, 2008 at 10:09 am
Rex, do you have any favorite examples of societies that live simply and richly?
Rex Weyler:
Most modest rural communities that don’t have imperial armies or world bank hitsquads attacking them live fairly simple and rich lives. But such lives are not likely easy. Living simply and richly almost always requires consistent, hands-on work. Those who want simple, rich lives forego “easy” living. I’ve been in Tibetan communities in the Himalayas, where people lived simple lives, worked hard, milked goats, made noodles, ate well, educated apparently happy kids, and lived low-stress lives. I’ve seen fishing communities in Canada and Mexico, farmers in Argentina and Catalan, people all over the world living simple, rich lives.
Left alone, in bountiful environments, simple people have a chance to create rich lives. Richness of life is about culture, teaching, celebrating, creating. Simple, rich communities work hard, share things, help neighbours, learn the cycles of nature that keep them alive, sing and dance. Modern people in high-speed western urban culture may think this sounds quaint, or wistful, or perhaps just no fun at all, but most humans for most of human history have probably lived fairly simple rich lives.
Historically, people who were satisfied with simple lives could live well from the fruits of nature. The civilizations bent on empire and wealth created chaos in their wake, while providing opulant pleasures for a privileged few.
High-tech, modern consumer society — which still only represents about 15% of humanity — operates on the premise of converting nature’s bounty into cash and then turning cash into something better than life with nature and hard work. Indeed, on occasion, for a few, wealth creates opportunitites for peace, leisure, memorable experiences, great theatre, music, plays, celebrations, but always at a cost, usually at the borders of the empire, consuming resources, enslaving the poor and dispossessed, leaving behind a trail of toxins and depleted resources.
The problem with modern industrial society for those who would be happy to live simply is that industrial society forecloses simple options by degrading the environment so severely that multitudes are driven from forests and rural environments into urban slums or refugee camps. I’ve seen this in Argentina, South Dakota, and Tibet, and it happens throughout the developing world. Simple communities are dispossessed of land and resources devoured for consumption by the citizens of industrial empires.
Simple, rich lives are not rare on earth, nor have they ever been. I imagine the people at Laussel and Altamira led fairly rich lives 20,000 years ago, also featuring steady work. I imagine many communities who made terracotta figurines and copper jewelry in the Taurus and Zagros mountains 12,000 years ago, led fairly rich lives.
Arne Naess’ vision of “simpler means, richer ends,” was not a fantasy, but rather a description of the rural life he witnessed in Norway. In my experience, hard-working rural communities all over the world can achieve such a balanced, rewarding life if the bounty of their environment is preserved.
rw.
January 15th, 2009 at 12:39 pm
Hello Rex
Thank you for a very interesting and true article. I am a simple person and do not understand most of the the high brow stuff. I do understand however, that humans cannot continue using more than the world can provide (we can’t go and live on Mars). The biggest problem is the number of humans, taking all the space and there is no room for other creatures and therefore they become extinct. I remember being worried by an environmental campaigner with 6 children, and I thought that his descendants would do more damage than a wasteful family with 2 children.
Dave Wylie
I note with some satisfaction that Sweden has reversed its anti-nuclear policy and plans to keep nuclear power for half their electricity. Having looked at all the options for the last thirty years, they have decided nuclear power is part of the clean energy solution.
http://www.guardian.co.uk/environment/2009/feb/05/sweden-nuclear-power
In my view, Sweden is model example of how to run a high-energy society with low environmental impact. Per capita, they use more energy than most people in Europe, yet their individual carbon emissions are 40% lower than the UK or Germany, and 70% lower than the US.
Energy use per capita:
http://en.wikipedia.org/wiki/List_of_countries_by_energy_consumption_per_capita
CO2 per capita:
http://en.wikipedia.org/wiki/List_of_countries_by_carbon_dioxide_emissions_per_capita
And they intend to go a lot lower. They aim to completely replace fossil fuel, and produce zero net emissions, by 2050.
It is clear for anyone wishing to do a bit of research that we are running out of oil [see: http://www.theoildrum.com]. Replacement energy for oil is going to cost substantially more in both monetary and pollution terms.
Two quick examples: The fracking of gas wells in the last 6 years in the US has been so successful it has brought the price of natural gas down. The pollution of our water supplies from this relatively new and improved process is shocking and largely unopposed thanks to the lack of regulations during the Bush years. The BC gov’t is now allowing the same fracking that took place in the US with the same polluting effects on the local water supplies.
The second example is the use of coal for electricity, which, in the US, supplies 50% of the grid, while destroying water supplies. My sister-in-law in South Carolina and her husband now have arsenic poisoning from massive quantities of coal ash. Coal ash, now being dumped throughout the US, is an admitted source of arsenic that has largely been kept off our radar.
And now we have the resurgence of advocates of nuclear power.
Before we take on anymore heavily polluting forms of energy, it should be obvious to any intelligent individuals that we must deal with the messes we have already made. Any other approach is simply irresponsible, as the past has shown us.