Will Wartime Mobilisation Address Peak Oil?

I frequently hear it suggested that we need a wartime mobilisation to address the challenges we face. The most recent being in the synopsis for Lester R. Brown’s new book, Plan B 3.0: Mobilizing to Save Civilization:

The world faces many environmental trends of disruption and decline. The scale and complexity of issues facing our fast-forward world have no precedent. With "Plan A", business as usual, we have neglected these issues overly long. In "Plan B 3.0", Lester R. Brown warns that the only effective response now is a Second World War-type mobilisation like that in the United States after the attack on Pearl Harbor.

What is a wartime mobilisation, what triggers one and what relevance does such thinking have to today’s challenges?

In Brown’s first Plan B book he described the wartime mobilisation thus:

In his State of the Union address on January 6, 1942, one month after Pearl Harbor, President Roosevelt announced ambitious arms production goals. The United States, he said, was planning to produce 60,000 planes, 45,000 tanks, 20,000 anti-aircraft guns, and 6 million tons of merchant shipping. He added, "Let no man say it cannot be done."

Achieving these goals was possible only by converting existing industries and using materials that previously went into manufacturing civilian goods. Nowhere was this shift more dramatic than in the automobile industry, which was at that time the largest concentration of industrial power in the world, producing 3-4 million cars a year. Auto companies initially wanted to continue manufacturing cars and simply to add on production of armaments. They agreed only reluctantly—after pressure from President Roosevelt—to a wholesale conversion to war-support manufacturing.

Aircraft needs were enormous. They included not only fighters, bombers, and reconnaissance planes, but also the troop and cargo transports needed to fight a war on two fronts, each across an ocean. From the beginning of 1942 through 1944, the United States turned out 229,600 aircraft, a fleet so vast it is hard to visualize.

While the aircraft industry did nearly all the assembly, the auto industry supplied some 455,000 aircraft engines and 256,000 propellers. The aircraft industry was given the job of assembling all planes to ease its fears that the auto industry would become firmly entrenched in the manufacture of aircraft and would dominate the industry after the war.

The year 1942 witnessed the greatest expansion of industrial output in the nation's history—all for military use. Early in the year, the production and sale of cars and trucks for private use was banned, residential and highway construction was halted, and driving for pleasure was banned.

In her book No Ordinary Time, Doris Kearns Goodwin describes how various firms converted. A sparkplug factory was among the first to switch to the production of machine guns. Soon a manufacturer of stoves was producing lifeboats. A merry-go-round factory was making gun mounts; a toy company was turning out compasses; a corset manufacturer was producing grenade belts; and a pinball machine plant began to make armor-piercing shells.

In retrospect, the speed of the conversion from a peacetime to a wartime economy was stunning. The automobile industry went from producing nearly 4 million cars in 1941 to producing 24,000 tanks and 17,000 armored cars in 1942—but only 223,000 cars, and most of them were produced early in the year, before the conversion began. Essentially the auto industry was closed down from early 1942 through the end of 1944. In 1940, the United States produced some 4,000 aircraft. In 1942, it produced 48,000. By the end of the war, more than 5,000 ships were added to the 1,000 that made up the American Merchant Fleet in 1939.



Douglas A-26 Production Line During World War II.
The Boeing Company / Douglas Aircraft Historical Gallery

The description is undoubtedly a powerful indication of what can physically be done. How the resources of a nation can be rapidly switched from one application to another. From this, it is reasonable to propose that it is physically possible to mobilise today’s resources and focus them towards the looming energy crisis.

The US production and sale of cars and trucks for private use was banned in 1942, releasing tremendous productive capability for the manufacture of armaments. Today the production of internal combustion engine vehicles, of aeroplanes, of flat screen TVs, of Playstations and Xboxs, of tungsten filament light bulbs etc. could be banned in a similar move and in their place renewable energy generation, efficiency improvements and electrified transport infrastructure deployed. Globally, we have never had greater manufacturing capacity. The problem is that it isn’t allocated to the problem at hand.

Wartime mobilisation is a way to forcibly reallocate resources, away from the allocative efficiency achieved by Smith’s invisible hand of the market reflecting the optimal mix as determined by the consumers. When an economy is allocative efficient no individual can be made better off (according to their desires) without another being made at least as worse off.

Wartime mobilisation is called upon to shift resources towards a more immediate goal – preservation of the very nation state (or in the US WWII case, of European nation states with which America was aligned). Under this threat allocative efficiency is trumped, the market driven by consumer choice is replaced temporarily with a command economy until the threat is diminished. It could be argued that the market can respond to energy depletion in a way it can’t to an invading army. However, due to the time scales involved waiting for the market signal leaves the response too late.

So what of peak oil? We recognise that peak oil is a serious problem. It appears that mitigation is not possible from the allocation of resources arising from today’s consumer choice leading many, including Lester Brown, to suggest a wartime mobilisation. Wartime mobilisation is rare however, it only happens at times of war. The cold war’s space race could be considered a wartime mobilisation of sorts.

Is peak oil a war? Can it command the same resources that built a quarter of million aircraft, developed the atomic and hydrogen bombs and put a man on the moon?

I don’t think peak oil does look like a war, at least not to the people for whom it needs it to look like one to trigger mobilisation. Only the heads of states and their immediate circle, with support of their military, can mobilise a country for war and they are only likely to do so when immediately threatened by loss of their nation states. Herein lies the problem, maybe peak oil doesn’t represent the absolute loss of the nation state, just the degradation of it.

Wars are primarily targeted at the leaders of a country with collateral damage usually regarded as an unfortunate consequence. This is the exact opposite of peak oil, which through increased energy and resource costs, disproportionally affects the poorer people in society.

Imagine ranking all the countries in the world by some criteria of affluence, countries in Western Europe, North America etc. would be near the top and the countries of sub-Saharan Africa near the bottom. I suggest that the impact of peak oil on these affluent countries will be to slide them down this scale, closer to the less affluent countries. This continuum might not be a gentle side as the complex and fragile systems employed by affluent countries may not degrade gracefully. However, the critical point is that affluence is eroded from the bottom, not the top. The leaders of some of the poorest countries of the world still live in luxurious houses, ride in Mercedes cars and have their own private planes. Their ‘elite’ position is maintained so there is little incentive for ‘wartime’ mobilisation to address the problems in their countries. This has been painfully apparent in Zimbabwe recently, whilst the economy crumbles Zanu-PF, the military and the police seem to retain a degree of affluence.

The same could happen to affluent countries facing energy depletion – whilst the ruling elite’s position is maintained the majority population’s quality of life can deteriorate significantly without Lester Brown’s mobilisation being triggered. Remember we are already seeing the impact of peak oil today, expressed as $140+ per barrel and increased fuel poverty yet there is no sign of wartime mobilisation.

That’s my case for peak oil not triggering wartime mobilisation. But what could do it?

The majority population could become annoyed with their deteriorating situation to such an extent that the incumbent ruling class are ousted. The threat of such revolution could lead to mobilisation. However wartime mobilisation needs cooperation from the population and with revolution in the air this cooperation may not be available.

If some aspect of peak oil didn’t have the characteristic of ‘degradation from the bottom up’ but instead hit the potential instigators of wartime mobilisation as acuity as the lower classes we might have found a sufficient trigger.

Electricity’s binary nature, it’s either available for all or not available for anyone, could be such a trigger. If energy depletion renders a nation’s electricity provision unreliable everyone is affected and popular support would be forthcoming. Peak oil and electricity shortages are different. Scarcity, pricing out an increasing proportion of the population, creating demand destruction, is different to all-inclusive power cuts.

In the UK at least, electricity supply will be under serious pressure during the coming decade as legacy nuclear infrastructure is decommissioned, North Sea gas supplies deplete and environmental legislation threatens to close some coal-fired infrastructure.

South Africa is today experiencing such electricity problems, are they moving to a wartime footing to address it? Maybe even blackouts aren’t as threatening as an enemy at the gates.

A final thought, the command economy that wartime mobilisation represents is likely an inefficient way to doing things. An energy intensive approach historically only employed by energy rich nations. In the 1940s the US was awash with cheap energy. Since the nature of our problem is energy shortage, addressing it with an inefficient process has to be questionable!

Conclusion

Wartime mobilisation of available resources can go a long way towards mitigating the problem of peak oil. However, peak oil is unlikely to present itself in a way that triggers a national mobilisation on a wartime scale. The leaders will be somewhat isolated from the threat and the necessary popular support will be lacking. Peak oil erodes affluence from the bottom, not threatens the top like a war does. Nations just become poorer, affluent countries sliding down towards the less affluent countries of today.

Whilst this may be the case for peak oil, considering the wider energy depletion picture electricity provision stands out. It doesn’t have the ‘bottom up’ characteristic and as such could trigger an energy led wartime mobilisation of resources.

Electricity could be more problematic than liquid fuel supply in the UK, potentially a good thing if electricity shortage is more able to trigger the massive reallocation of resources our situation requires than peak oil itself.

Unfortunately, yes there will surely be some Manhattan type project here in the U.S., and probably in the U.K. too. The result will be capital expenditures on solar and wind, when the problem is that we need liquid fuels. And the development of solar and wind will consume oil, natural gas and coal.

The price of oil will skyrocket and a wartime mobilization will be bankrupt from the start.

There is little time left now to do much except focus on risk management.

Matthew Simmons indicated in the London Times a day or two ago that global oil production is now declining, from 85 million barrels per day to 60 million barrels per day by 2015, while at the same time demand will increase 14%. This is like a 45% drop in 7 years.

No one can reverse this trend, nor can we conserve our way out of this catastrophe. Because the demand is so high that it will always be higher than production; thus the depletion rate will continue until all recoverable oil is extracted.

We are facing the collapse of the highways, that depend on diesel trucks for maintenance of bridges, cleaning culverts to avoid road washouts, snow plowing, roadbed and surface repair. When the highways fail, so too does the power grid, as highways carry the parts, transformers, steel for pylons, and high tension cable, all from far away. With the highways out, there will be no food coming in from "outside," and without the power grid nothing works, including home heating.

Unfortunately, yes there will surely be some Manhattan type project here in the U.S., and probably in the U.K. too. The result will be capital expenditures on solar and wind, when the problem is that we need liquid fuels.

Many countries will take different routes, especially those which have virtually no solar and precious little wind -- and no fossil fuels either. Bulgaria, for example.

They have a choice:

(a) go nuclear or

(b) freeze in winter and starve all the year round.

I reckon they'll opt for the former.

At least one study has shown that insulation retrofits make more sense than nuclear, solar and/or wind (in relation to carbon output, but I think it makes sense for EROEI as well).

The other area to concentrate on would be retrofitting old tractors to biodiesel and a crash program in breeding draft animals.

Many renewable advocates make this argument for energy efficiency. Often, completely incorrectly, implying that it is sort of a 'better option' than nuclear power.

Energy efficiency is on the demand side. Creating government programs to get people to retrofit their insulation will make zilch - squat of a difference. There is one way to get people to make their homes and businesses more efficient and only one way; increase electricity prices.

The very fact that we don't currently see demand destruction in the electricity sector shows that we need more nuclear and renewable power. However, another way to view it is that the highly regulated energy market hasn't been able to increase prices in light of the increased cost of new generation, which obviously come from increasing commodities cost and the push for (more expensive) carbon neutral and more sustainable sources.

So allow the government to increase prices to what it would be for the expensive new nuclear builds and wind power. Demand will fall and you won't have to build but half as many as you planned anyway, and then China builds a new fleet of coal plants and more manufacturing is outsourced there. Problem solved. (?)

Theanphibian,

You mention expensive new nuclear builds and wind power.

Nuclear power plants are expensive partly because of ridiculously demanding safety requirements --- a response to anti-nuclear hysteria.

. In “The Nuclear Energy Option”, Bernard L. Cohen calculates that ever-escalating safety restrictions increase the cost of nuclear power plants by as much as four or five times…

More here:

http://www.acceleratingfuture.com/michael/blog/2006/10/a-nuclear-reactor...

and here:

http://www.phyast.pitt.edu/~blc/book/index.html

I'm not anti-nuke, but I am anti-poorly sited/built/maintained nukes. They are not something to mess around with, they absolutely, positively MUST be done right the first time. No exceptions, no excuses. If doing things right makes things more costly and takes longer than doing things wrong, IMHO that is a price worth paying. The ultimate cost of doing things wrong can be a hell of a price to pay.

I believe the problem is that a lot of the measures are mostly bureaucratic paper-filling, and often have a vast impact on cost, but little on safety.

mostly bureaucratic paper-filling

I won't comment directly on whether the paper work is useful or not because I don't have direct experience with it.

But it strikes me that complex technologies with extreme consequences should they fail probably require checks and rechecks then checks on the checks. Equipment must be within tolerances, backup systems must be equal to the job they will take over if the main systems fail, security must be tight, personnel training must be excellent, etc., etc.

I think people like to blame the "bureaucrats" or "the system" and fail to look at the root cause: nuclear energy is, as currently implemented, a complex, high-risk endeavor with catastrophic consequence if the system fails.

Very far from implementing a row of wind turbines, say.

-André

Even with the extra costs nuclear remains several times less expensive than off-shore wind.
The case is different in the US, where good resources on land make wind a good option.
There is no one 'right answer', and as long as appropriate safety concerns are answered but no useless padding included to pander to those who are in any case entirely ideologically opposed to nuclear energy and whom no conceivable safety measures would satisfy then a variety of resources should be employed.
In the West the safety record of the nuclear industry is second to none, and way better than the coal industry which has been the real beneficiary of opposition to nuclear power - that is where Germany in reality gets most of its energy, renewables so far have added greatly to bills without providing a very large contribution.

DaveMart, do you have a source for your assertion re: offshore wind vs. nuclear? I'm suspicious because Buffet walked away from building a nuclear plant despite $18B in government loan guarantees and extra perks because his people could not find a way to make it economically viable.

-André

The DOE in 2006 estimated the costs of wind power as around $1 million MW installed on land and $2 million for offshore:
http://www.renewables-advisory-board.org.uk/vBulletin/attachment.php?s=0...

Unfortunately since then costs of many inputs have risen drastically, with steel being notable.
Here are the latest estimates I have seen:
http://www.reuters.com/article/environmentNews/idUSL1483748320080514?fee...

These still do not take account of the latest round of steel price increases AFAIK

From the Government paper it can be seen that the estimated capacity factor for off-shore wind in the UK is around 0.30, so you get a cost per MW of average hourly power generation of around $20million, or £10 million MW.

This does not include many of the costs involved in connecting up the turbines, or back-up capacity.

You can get a very generalised corroboration of these figures from the £100bn bandied around in the press as the estimated cost of the renewables commitment, which is overwhelmingly wind, although it does not include the full projected 33GW installed capacity for off-shore as much of that would not happen until after the time horizon, but does include a lot on cheaper on-shore wind.

Wind is a better resource than is indicated here as it is strongest in the winter when most needed by a factor of two, which helps a lot.
Unfortunately though you can get cold, windless snaps in the winter for several days, which means that additional back-up or transmission is needed, and also relies on natural gas for this, supplies of which are increasingly problematic.

For nuclear costs the highest estimate I have been able to find to date is from EON, who give a figure of up to £4.8 bn for an Areva reactor of 1.6GW:
http://business.timesonline.co.uk/tol/business/industry_sectors/utilitie...
Nuclear reactors will cost twice estimate, says E.ON chief - Times Online

At a capacity figure of 90%, around current US practise that gives you average hourly output of just over 1.4GW (France gets lower capacity factors, but does not run its reactors for maximum output, as not all of it is always required) you come out with a maximum figure of under $7million MW average hourly production.

This would not include all connection figures, as the larger reactors would mean that that would need upgrading, but since they will be sited on existing sites that is by no means as challenging as connections for wind power..
No allowance is made either for cost reductions due to series build.

It is clear then that off-shore wind is around three times as expensive to build as nuclear.

Costings are very different for on-shore wind in the States, which has excellent wind resources, and things like speed of build and ease of finance help bridge any small gap in costings.
That gap is just too big in the case of off-shore wind in the UK for it to be bridged.

It would not be so bad if we were likely to retain our present earnings and ability to finance expensive projects.
As Euan has made clear with his articles, neither is likely to remain true, so in my view the projected build will simply not happen.

Does anyone have any info on how in(?)vulnerable nuke stations are to terrorist attacks of various sorts? One could imagine planes being flied into them like 9-11, or Jihadists getting critical jobs (due to need to avoid discrimination against Muslims), and thereby getting to do just about anything from inside.

We've only had one Chernobyl so far, and that was disastrous enough for Ukraine which was fortunately a rather spacious country. How about if six Chernobyls were simultaneously unleashed by anti-Western suicide terrorists? At an already power-critical moment of course.

This issue has been extensively discussed in the comments to this article on a grand solar plan for the US.
http://www.sciam.com/article.cfm?id=a-solar-grand-plan&page=1

It boils down to nuclear reactors being quite tough targets, and heavily protected.
The containment vessel at Three Mile Island for instance, did its job and prevented major releases - even with terrorist control, which would not last long as members of the special forces would be told to take the kid gloves off, it would be fairly difficult to breach the vessel.

Bowing up a natural gas tanker or poisoning a water supply is by comparison trivially easy, as would pathogen release.

Imagine the world's government's going onto War time footing to combat Peak Oil -- and going in the wrong direction!

The EU is already destroying rainforests and sucking up the cooking oil supplies from the world to power their transport; and the US is doing the same to grain crops.

Why should we imagine that governments will make intelligent choices? From the evidence, it would appear that they are far more likely to increase the damage, than to alleviate shortages.

Energy efficiency is on the demand side. Creating government programs to get people to retrofit their insulation will make zilch - squat of a difference. There is one way to get people to make their homes and businesses more efficient and only one way; increase electricity prices.

I disagree. A government mandated and subsidized program for upgrading insulation in houses makes perfect sense to me. It could be done along with a rise in energy prices. Simply allowing the market to raise prices will just mean that millions more people will 'freeze in the dark' because, with a collapsing economy, they will simply not be able to afford the upgrades.

Oh, yeah. This is called 'demand destruction' isn't it?

This is exactly the beef I have with those who proudly stick out their chests and proclaim energy efficiency. If you listen to industry, it's more often referred to as "demand side management" (ie maybe we don't have to build those plants after all).

These are depressing concepts. Even if we insulate homes better, then we accelerate rent and housing costs of low-income people who just suffered a subprime mortgage meltdown. It would be nice to have a beautiful democratic solution where the government pays for insulation in the exact amount needed to offset the corresponding rise in electricity prices. Now the middle class gets hit from both sides of the equation, but the likely reality is even worse. Such programs will get paid for by deficit spending, which I maintain (often against passionate rebuttals) is the most severe government redistribution of the wealth (but from the poor to the rich) in our society.

Not to mention that government involvement will in principle lead to less efficient allocation of resources. In fact, look no further than the government for an organization that already doesn't use energy efficiently. It's not a problem to leave lights on in all sorts of places at all hours of the night if done under a 'security' pretense. The fact is, the most effective form of demand destruction is done by calculated changes to lifestyle and ways of business - which is the exact thing government SUCKS at doing.

Hillary Clinton and her daughter on the campaign trail talked at length about reducing energy use of government. YES! This is what we need, the fact of the matter is that the government sector is one of the stiffest demand responses out there to energy prices and the rest of us pay dearly for that. Local governments can almost never afford to lessen air conditioning a degree or cut routes of a service, as simple complaints will set democracy in action to keep the status quo as the books fall further into the red, advancing the trends that got us into this situation. Look no further than Washington DC for an area with a nearly fixed energy usage weather it be at $4 or $10 per gallon.

Directly subsidizing insulation refitting means that those most guilty of a crime demand that everyone else fix it, while the guilty party breathes down our necks and makes the very act of efficientizing less efficient.

Discussion of the concrete meaning of 'wartime mobilization' is long overdue, and personally, I think that something of the sort is the only plausible alternative to real disaster. I've skimmed my way only a short way into the comments thus far, but let me just say that I am skeptical of your seeming belief that any kind of price mechanism would trigger the kinds of responses that are needed, whether in the form of subsidies for insulation which you think are a bad idea, or letting the market set the price. What wartime mobilization means, to my understanding, is deciding which activities are essential, and allocating resources to those activities. If one thinks of all the industries and individuals that depend on activities which are by any rational measure unsustainable (the great majority of us, I'm afraid), should we wish to see them all pursue these activities just as far as possible, up to the moment when they are attritioned - i.e. forced from the market? Let them all tread water as we gradually increase the weights around their ankles, and let the best 'unsustainable swimmers' stay in the cesspool the longest. And then what happens to those who are forced out? Do they all wake up the next day with Priuses in their driveways? In so far as the system does keep going, that would be good in comparison with an outright collapse, for those dwindling numbers who manage to stay attached to it. However, it seems to me that it would be far preferable - indeed much more efficient - to simply decide that activities X, Y and Z have no future. The only choice involves the path to their elimination. Rather than let them each just go on to their slow, painful demises, or worse, try to maintain them far past the stage where they are viable, why not stop them tomorrow? Give the people who lose those jobs a modest ration of basic goods (and the ability to provide those basic goods will depend on the ability to direct resources to activities that truly are essential) and tell them to stay home and propagate useful perennials and otherwise transform the places where they live into something much more sustainable - because they are patriotic, because they are excited about doing something truly important, and because they care about the survival of their grandkids, not to mention their own. Stopping the activities in which they were previously engaged, together with all the associated commuting to work, will save a lot of energy that is therefore left available for some essential purpose.

Similarly, activities P,Q, and R would be gradually phased out or reduced in scale, according to a deliberate schedule - because those activities provide goods which really are essential in the short-term, and which have no immediately available substitutes. Aspects of the currently unsustainable food production and distribution come to mind, as one example in this category.

Finally, activities A,B,C,D,E and F - the kind of skills, tools and infrastructure that will be needed if society is to be sustained, say, for another 500 years or so - will be ramped up with all deliberate speed. Much of the needed infrastructure and manufacturing will necessarily be of smaller scale than that connected with New Deal employment programs and the WWII mobilization. Government efforts to sustain demand will be counterproductive for similar reasons. Though absolute levels of energy available will be greater that what was available during WWII and the New Deal in the case of the U.S. - even assuming that supplies are quickly reduced to what can be obtained domestically - we will be rather limited in terms of what we can do on the large scales of the earlier programs, for two basic reasons: (1) at our current level of complexity, activities of type P,Q and R, will be consuming a great amount of the available energy, and (2) the mobilization activities of those earlier time periods were aimed at creating infrastructure for a civilization of increasing scale and complexity, whereas we will be aiming in the very opposite direction.

These things being said, there may indeed be a place for a few projects on a larger scale - whether these be functioning rail systems, or the F.H. King Canal Project in the southeastern U.S., modeled on the Grand Canal of China.

Finally, while there may be something to the economists' conception which links preferences to efficiency, that is now rather irrelevant to the predicament we face. One way of describing that predicament is that our preferences are those of Hydrocarbon Man. Regardless of our preferences, they have got to change.

Great points Steve about those ABC-XYZs. Can we get governments to apply them?

The price of power gives almost no signal to the rental sector to encourage better insulation.
Your proposals amount to allowing the poor to freeze.

"Unfortunately, yes there will surely be some Manhattan type project here in the U.S., and probably in the U.K. too. The result will be capital expenditures on solar and wind, when the problem is that we need liquid fuels."

I wonder if Boone Pickens would agree with that.
He is building a wind farm to address a liquid fuels shortage.

Is Boone Pickens stupid?
I think not.

He is taking advantage of a concept we in the peak oil community seem to have dismissed: economic substitution.

Given that in the last decade, the vast majority of new electricity generating infrastructure has been natural gas fired plant, then obviously the usage of natural gas can be decreased by substituting renewables in it's place. To be sure renewables are (currently) more expensive and there is the issue of intermittancy. I would argue, however, that intermittancy is a cost issue and not a technical barrier since energy storage solutions exist. With continued price rises of fossil fuels at some point it becomes cost effective to build renewables along with storage instead of renewables along with fossil fuel baseload.

But to return to the point: why does building renewables allow you to use less liquid fuels?

Natural Gas can be used in converted automobiles.

We need to come to accept that we simply aren't going to have liquid fuels available in the amounts and prices they historically have been. We need to shift personal transportation to a rail based system. Thats one thing a Manhattan project style project can definitely help with. I can imagine a three tiered system: High speed trunk lines between cities, light rail local lines between localities, and electric street cars to communities and residences.

Battery powered vehicles will be expensive in the future, and are also based on materials and components, which like oil, come largely from overseas. Once we start mass producing 100 million of these a year, the way we do with autos now, the price simply won't be affordable for the average person. Look at what's already happened to the price of lead, nickel, lithium, copper, etc. over the past 5 years, and we've only just started producing electric vehicles.

He's smart,laughing all the way to the bank, knows the masses and government will invest there next. The bubble goes up, and he get out. Most oilmen know that you can get piss out of solar, wind, and bovine gasses.

Well gee golly willakers, why don't you go down into the basement and jump out of the window and end your misery....

I find it interesting that you focused so much on the potential failure of highways.

I do not doubt that we will be stressed by diminishing crude oil production, but I do believe that we will adapt OK. Amory Lovins of the Rocky Mountain Institute says that we could get by with a LOT less oil consumption (less than 10% of what we use now), we just need to be a lot more efficient. That comment highlights just how inefficient we have been.

When I bought my house, I purchased it intentionally to be 1 1/2 miles from where I work. I ride by bike to work each day. My wife and I put in a ground-sourced heat pump to heat our house (which is 400% efficient). We use an electric lawn mower to cut our lawn.

With improved efficiency, oil will power our economy for a long, long time....

Our need to use highways will be dramatically reduced, so they will be a lot less to maintain (less wear, and they won't need to be as large).

What is needed, though, is leadership to guide us toward the changes we need to make. Thank heavens, George Bush will not be the person at the helm much longer....

Retsel

Well, don't know where you live, but highways where I come from are destroyed because of the weather as well as the heavy loads..
Cheers, Dom

And snow plows. Wonder how much longer the roads would last if we could just do without them, and stay put for much of the wintertime.

In some case, there are no doubt technologies - some of them low technologies - which can reduce fuel usage by a factor of ten. But reducing society-wide usage by a factor of ten is altogether another matter. Recall that Robert Hirsch - who in his "Impacts, Mitigation and Risk Management" report - was assuming a quick doubling of the fuel efficiency of new vehicles, basically changing out the manufacturing plants in accordance with the dictates of a wartime mobilization, conjoined with their introduction to the fleet in numbers similar to new car sales today, found that it would take twenty years to have much of an impact. I think he was working quite a bit too far inside the box in his basic assumption that we need to keep a fleet on the roads at all costs, and was totally unclear about the nature of the "more sustainable society" (or words to that effect) which he mentioned in his interview with David Room, which his crash program was supposed to be a step toward. There is another problem in that, on his premises, only the fuel economy, not the manufacturing process - which I understand accounts for something like half of the total energy used by each automobile - was doubled in efficiency. But I do think, however, that his assumption of car output at rates comparable to today was at least less absurd than the even more absurd proposition of scaling up car output to such an extent that the overall fleet efficiency would dramatically increased in a significantly shorter period of time.

But of course, if the few cars/homes that achieved a tenfold reduction continued to be driven/heated, while all the others stopped, the savings would be extraordinary!

Recall that Robert Hirsch - who in his "Impacts, Mitigation and Risk Management" report - was assuming a quick doubling of the fuel efficiency of new vehicles

Not true.

He assumed that after 3 years all new vehicles in the US would be hybrids, with a 40% efficiency gain. Total displaced oil is about 2-3Mb/d after 20 years, or about 1/4 of current US passenger vehicle consumption. You can see this for yourself in the scenarios part of his report. He also assumed the car fleet would age and change at its normal rate (~15-20 year lifespan).

By contrast, doubling efficiency - a 100% gain - in short order would lead to a 50% reduction in fuel used, or about 5Mb/d, twice the size he assumes. 50% of vehicle miles come from vehicles < 6 years old, meaning doubling efficiency of all new cars would lead to savings of the size he assumed would take 20 years occurring in only 5-6 years, even with no change in replacement patterns. Replacement patterns would be likely to change, however, with a significant number of cars subtracted from the number on US roads for (AFAIK) the first time since WWII.

I think he was working quite a bit too far inside the box

Quite.

He assumes no change in the size and type of vehicles being purchased, which we already know to be wrong. (He also assumes no effect from electric cars or PHEVs, but it's too soon to know how wrong he'll be about that.)

Basically, his report considers only (1) hybrid vehicles, and (2) ways to create more liquid fuel. He explicitly ignores all other conservation techniques, which means that his conclusions are virtually guaranteed to be overly pessimistic.

Alternatively, you could see his conclusions as "what is necessary to prevent a price increase?" Since we've already seen price increases, we're already outside the scope of his scenarios.

My neighbor has an electric mower. I get a laugh watching him splicing the wires back together every time he runs over the cord, which seems about every other week.

I think if we have to worry about a quart of gas for the mower then we really are in BIG trouble. Mine, by the way, holds two gallons (got a large yard which may be growing food soon).

lawns are an extravagance in the age of peak oil, especially if maintained by fossil-fuel powered mowers and fertilized with natural-gas derived fertilizers, and especially if they are only entered for the purpose of maintaining them, as most commercial property is. There are 30 million acres of them in the US, so if everyone eliminated half their lawn, it would make a huge difference. It would entail foregoing about 15 million gallons of gasoline or diesel a week during the growing season (it takes 1 gallon of fossil fuel to mow an acre of grass). Furthermore, an acre of well-maintained turf lawn emits a net 1/2 ton per year of CO2 due to the emissions of the activities required to maintain it, including the manufacture and depreciation of the mowing equipment. It gets worse if you hire a landscape contractor to mow/fertilize it, or have to water it regularly.

Reduce it down to the size of mowing it with a manual reel mower, and convert the rest to food production, native plants, xeriscaping (in arid areas), or beds of low-maintenance non-invasive trees, shrubs or perennials. All of these will reduce a C02-emitting landscape and convert it to one that sequesters carbon and reduces our carbon footprint. Native prairie and woodland, for example, can sequester between 0.5 to 1 ton of carbon dioxide per acre per year, facilitated by greater underground root mass and wood production.

Sow plenty of clover into your lawn. This fixes nitrogen. Mix all your lawn mowings into your compost heap, eventually to nourish your veg plot. No need to buy any fertilisers. Get a push mower to save having to go to the gym. Learn the skills of scythe-mowing.

Yeah, I'm thinking a scythe will be the way to go - you can use it for a lot more things than just mowing the grass. Unless you are going to be pasturing animals, most of the lawn will need to be transformed into garden anyway.

And yes, the amount of gasoline used to fuel a power mower each summer isn't very much. However, once motor fuel rationing is introduced (and it will be, it is just a matter of time), don't be surprised if dispensing fuel into anything other than a motor vehicle fuel tank is prohibited. Also, don't be surprised if you find that even that one or two gallons will be needed for more important things than mowing a lawn.

Our standby gasoline rationing plan has "white markets" for ration trading, so you can get as much gas as you want if you are willing to pay for other people's unused rations. http://www.osti.gov/energycitations/product.biblio.jsp?osti_id=6307185 The rationing ensures a certain amount of gasoline will be available at the market price but you would pay more above that amount. Kind of like tiered electricity rates. In order to be sure that the market price is not imporverishing, we could attempt domestic price controls again to dilute the price but I think it would be better to ration enough to be sure that the world price goes down. This avoids exploring for oil that will be expensive no matter what. http://mdsolar.blogspot.com/2008/06/oil-is-too-expensive.html

Chris