Global Suicide Pact: The Efficiency Trap

by: Natasha Chart

Sat Mar 01, 2008 at 20:02


Suicide (n) - The most preventable type of death.

This is the origin story of a species whose leaders had a death wish, and whose members at large mostly didn't.

What exactly is efficiency? You probably think about it in terms of hours worked to work product generated. In any science class, it usually means how much energy as applied to a system does useful work, as opposed to what's lost as heat. In biology, that general science definition gets applied to living things and what powers them, their food.

In every stage of food consumption, called a trophic level, about 90 percent of the energy consumed is lost.

At the first level, there are organisms like plants, also called primary producers, which take energy from the sun as food and harness that power to transform carbon dioxide gas into energy-rich sugars; the carbohydrates that are the base fuel for all other organic reactions. Primary producers are chemical factories that supply the base total amount of energy available to all the other chemical reactions needed to sustain life. At every successive level, animals who eat plants, then animals who eat animals who eat plants, about 90% of the remaining energy is lost. This doubtless seems very inefficient.

Unfortunately, everything you know about efficiency is based on a lie. It's a long story. Maybe it will help if you think of living things for the duration as machines powered by volatile chemicals, but here's why what we think we understand about efficiency is wrong, and dangerously so.

Natasha Chart :: Global Suicide Pact: The Efficiency Trap
Rise of the Chemical Machines

In the beginning, Earth was a big ball of lifeless rock with a molten core, a poisonous atmosphere and a lot of nutrient saturated surface water. Every year, this ball of rock got light and heat from the sun and trapped some of it as kinetic energy. That energy did nothing more than keep the surface gases and liquids from freezing solid.

On the whole, it was a good system for keeping the planet from icing over completely. From my perspective though, and perhaps you'll agree, keeping planets from freezing when they're only 93 million miles away from a massive fusion reaction is kind of boring.

Something interesting was happening under all that water, though. Near the gas vents at the ocean floors and even within the warm, but not too hot, layers of rock, machines began assembling themselves. No, really! Somehow, chains of carbon, nitrogen and phosphorus compounds had gotten carried away with self-replicating chain reactions enclosed within soap bubble-like membranes, powered by chemical reactions and warmth.

[You've heard of them referred to as cells, and that's fine. Just don't allow your multi-cellular myopia prevent you from realizing that a free living single-celled organism is a complete example of its species every bit as much as your many cells together taken in totality. Even if they aren't conscious as we know it.]

The machines started concentrating the abundantly available nutrients into their bodies, but when food eventually became scarce in places like marginal, open water habitats (or perhaps before, and for fun, it isn't like they wrote any of this down,) they began at some point to consume each other to get those same stores of nutrients, dissolving a second machine into its base molecular components for their own sustenance.

Then something odd happened.

The light and heat from the big fusion pile in the sky had always bombarded the surface layers of the planet with ultraviolet radiation that introduced so many errors into the machines' processes that they were permanently stopped on exposure.

Astonishingly, some of the machines figured out a way to harness some of that sterilizing radiation and use it as a power source. The result created deadly oxygen gas that permeated the seas, pushing the other machines farther away from the surface, but also changing the atmosphere so that more UV radiation was reflected into space. The machines were able to creep closer and closer to the surface without breaking and permanently stopping, and more of them all the time, as other machines developed ways to deal with oxygen.

Then something even stranger happened. Some of the machines ate each other and, instead of the second membrane-enclosed, self-replicating machine being digested for scrap, it was incorporated into the body of the first as a working mini-organ, or organelle. Certain of these organelles produced energy for the host cell, more than it ever could have generated on its own.

The DNA, or operating instructions, for the organelles migrated slowly, though incompletely, towards the central DNA repository for the host. The two became one flesh.

At some point, these odd hybrids developed sex. Wahoo! Which meant that two replicating machines could mix up their operating instructions and produce another hybrid organism that resembled them both, but was unique. This was an energy-expensive process, but flush with the power boost provided by organelles that could harness oxygen-fueled reactions, they were able to take advantage of the way that sexual replication rapidly produced highly fit and complex iterations.

The iterations produced by sex replication could be made of many linked cells that would formerly have been out on their own. The many became one flesh.

The multicellular organisms proved very efficient at concentrating nutrients by consuming other chemical machines, though the descendants of the original self-replicators were still around. They still represent the greatest chemical diversity of any living things. There's always room at the bottom.

What The Machines Did

And so goes the story of the planet's earliest life forms, our ancestors, the bacteria and their immediate descendants. There are bacteria that can eat virtually anything and live under almost any conditions. Some have different DNA codes, or run entirely on RNA, which is a single strand complement of DNA in cells, one that evolved first and gave rise to the double strand DNA molecule. They generated a wide variety of novel, self- and sex replicating life forms.

Together, they and their descendants turned a bare, boring rock into a planet covered with life, which is way more interesting than rocks. For one thing, life tends not to stay where it's been put, moving around willy nilly under its own power. Hours of entertainment!

Yet in all those billions of years, summed up here so brusquely, the Earth continued to get the same amount of energy just about every year. Give or take a few asteroid collisions, it had about the same amount of raw materials available to us, today. In fact, considering that UV radiation began to be reflected away, less heat and light now makes it down to the surface.

All these tiers of living things, feeding on each other in life and death, use no more energy than was available to their ancestors. What they do is keep more of it and use it more creatively.

They hold carbon that used to be in the atmosphere, where it trapped in too much heat and created too much pressure for comfort as gaseous carbon dioxide, in their living tissues. They power exotic chemical reactions in response to each other, and far more complex living conditions. The energy of that fusion pile in the sky can be used to power several cycles of living things before being dispersed again, slowly and in stages, as waste heat.

Inefficient, Bloody Machines

And all of this is, in a way, very inefficient. It relies on maximum energy being trapped at each step along the way. It allows entirely unnecessary things like sex, multicellular organisms, colorful appearances and delicious food. It allows over-sized nervous systems and millions of varieties of chemical machines to compete at performing a basic task like converting light and heat, or light and heat stored as sugar, fat and protein, into chemical reactions.

I mean, why not have just one kind of machine, or just enough to fill the basic ecosystem niches?

The way life operates in systems is different from a modern capitalist conception of efficiency, not in terms of wanting to get more out of the same or less, but what gets done with the 'more.'

Energy, fuel and materials, often symbolized by money, but always coming back to a basic capacity to do work, is supposed to flow towards fewer and fewer hands to be efficient in the modern capitalist sense. In living systems, it's supposed to flow through ever more hands, getting trapped and held at every level for the work of powering all sorts of life processes, but never held permanently.

A lion, for example, concentrates a lot of energy and nutrients, but at some point it releases them back down the chain, which allows living things other than lions, and less efficient at trapping energy, to flourish. That's good for the lions, because otherwise they'd eventually run out of food. You see how it is.

Modern economies are structured with the goal of efficiently reducing the energy stored at every stage to produce large concentrations of wealth that are not released for other processes. Ecosystems are structured with the goal of storing energy (i.e., wealth) across as many structures and in as many hands as possible in case ... well, there's always an 'in case.'

There are climate changes, disease epidemics, natural disasters, damaging mutations, droughts, famines, all kinds of problems that are unpredictable but come around over and over again with a certainty. Living systems that are diverse and superficially inefficient, where at every stage there's enough energy to maintain a flourishing bounty of living beings, ensure the greatest chance of survival of at least some of them. On the other hand, in ecosystems where one species has over-concentrated energy to the detriment of all the others, a change in circumstance can be far more destructive than it might have been otherwise.

It's actively inimical to life. Also, an indication of a floundering economy, as Adam Smith himself noted in Wealth of Nations:

The liberal reward of labour, therefore, ... is the natural symptom of increasing national wealth. The scanty maintenance of the labouring poor, on the other hand, is the natural symptom that things are at a stand, and their starving condition that they are going fast backwards.

And that makes sense. We're living things, too, complex and self-directed; not simple clockwork parts. Even as we're like machines in some ways, we require a considerable portion of our energy for our own purposes -- and this is not waste, but the preservation of life in its rich elaboration.

"The Original Purchase-Money"

From the beginning of industrialization, when it became possible to super-concentrate more wealth than ever before, humans have been rapidly displacing other chemical machines. We consume nearly 40% of the primary productivity, (that energy captured into living things and stored as carbon compounds,) of the entire planet.

There are now fewer kinds of things that don't stay where they're put. Fewer kinds of things that can take energy and make something more fun happen with it than the production of waste heat. Again, that sounds like an increase in the boredom quotient to me. And I so hate that!

We've increased the efficiency of the process of nutrient and energy flow on the planet. It goes from the sun, to a plant, maybe to an animal that eats that plant, and onto our dinner tables or into our consumer goods chain, then ... waste heat. Then, the loss of the nutrients fixed by that energy to the ocean, or a waste dump, or the atmosphere.

We're starving our fellow species out and impoverishing ourselves in the process.

Because there's always as much dead matter as there ever was. Matter, the base chemical components of the universe, can neither be created nor destroyed. There aren't always more living, chemical machines; with their quirky operating instructions, engineering creativity, inefficiency, and autonomous motion. Machines that can do truly interesting work and ... remember that we're talking about the capacity to do work, right? Adam Smith, once more from Wealth of Nations:

Labour was the first price, the original purchase-money that was paid for all things. It was not by gold or by silver, but by labour, that all the wealth of the world was originally purchased; and its value, to those who posses it, and who want to exchange it for some new productions, is precisely equal to the quantity of labour which it can enable them to purchase or command.

There is nothing that so distinguishes the Earth from sweltering Venus, or from the frigid mineral opulence of the asteroid belt, as the laboring life that it harbors.

That life which has spent patient aeons complicating things. Lurching between equilibrium and catastrophe, being culled thin and very slowly rebuilding, creating and solving fascinating problems, it has bequeathed to us a masterwork of chemical and mechanical wealth. Then we decided it'd be better to make all of that a little simpler.

Simple enough, it seems the goal is, that an illiterate child working for $0.25 an hour could run it from a sweatshop, with the sole intent of her employers being to afford another dead yacht.

Simplify, simplify, simplify. This is the call of the clockwork culture. Simplifying everything, not to free energy to sustain a greater wealth of life. No. To put everything within reach of ever simpler processes, and then use those processes to support ever fewer beings with ever greater energy.

Simplify, simplify, simplify. It is an order of destruction. A death march.

There's a lot more to understand about life on Earth and our place within it. Yet without these realizations, our resource and energy use policies will continue to be harmful. They will continue to miss the point.

And we all, tragically, will continue to pursue the most efficient possible path towards self-destruction.


In gratitude: I owe many of these overall concepts to John Ikerd's Sustainable Capitalism and James Howard Kunstler's The Long Emergency.

Other GSP installments:

Transnational Maoism - All hail our corporate mercantilist overlords.
Darfur Engine, Pt 2 - The long burn.
Darfur Engine, Pt 1 - You didn't think the Chinese had no precedent, did you?
Amish Takeover - Apocalyptic dystopia? No thanks, I'd rather have a civilization.
The Efficiency Trap - Energy flow in living systems and their origins.
The End of Cheap - Political reality, meet physical reality.


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Cancer can be seen as another metaphor (4.00 / 1)
Cancer can be seen as another metaphor, for the same process inside a single life form. Unable to stop growing the cancer cells do not run through their life cycle, but continue to grow -pushing out, damaging nearby cellular structures, accumulating energy and oxygen, and destroying the systems stability and eventually is ability to function. The normal cells around grow and die as they cycle through their stages, and the cancer continues growing, refusing to give up its place and eventually in its 'greed' ends the the life of the host it was once part of.

I am grateful for this overarching life based integration of information and viewpoint. What we need to do, as humans, as a life form, as citizens, is not rocket science or radical or different from anything we humans have ever done before. We need to nurture and promote the variety of life that is humanity, and prevent cancer from killing its host.

Thank you for the diary, thank you for promoting it, and thank you for the place to host it and find it.

--

The government has a defect: it's potentially democratic. Corporations have no defect: they're pure tyrannies. -Chomsky


environmentalism and industrialization of poor countries (0.00 / 0)
Here is my trouble with universalizing environmental arguments as someone who studies South Asia:

There is an immense amount of poverty in poor countries, and thus far, economically, industrialization seems to be the only way to allow enough wealth to effectively provide for everyone's welfare.  In  addition to the moral argument for welfare, there is the argument that in states with less power that whether they choose to or not, they have been conscripted into the global economic system so legitimate alternatives may be politically impossible even if they're hypothetically plausible (which remains to be established).

So, my challenge, in the spirit of granting the basic point you make, which I think is extremely valuable, is to ask how you promote environmentalism in a world divided into nation-states of varying wealth, the difference for which can be accounted for in large part by a history of domination, racism, and resistance.  How do you make the forms of organizing sensitive to local needs, how do you evaluate results differentially in different places so as not to condemn large numbers of people to perennial poverty, etc.

I'm asking this with a spirit of open inquiry, so I hope it will be received in this vein.  Thanks for this post!


Same end, different path (0.00 / 0)
Perhaps if the countries already industrialized developed technologies that were less destructive to the environment then rapid industrialization will not be so harmful when other countries get to that point.  At least great ideas can be infinitely replicated and used without cost as long as so-called intellectual property rights don't get in the way.

I you want health care, work hard. If you want universal health care, vote for liberals.

[ Parent ]
question about feasibility and about what political structure would make this happen (0.00 / 0)
Off the top of my head, I'd guess around 3/5 of the world's population (if not more) live in states that are non-industrialized or partly along the way.  So you're talking about an enormous amount of environmental destruction that would be pursued.

More to the point, the rich countries of the world, and particularly the United States, have shown zero interest in global perspectives on these issues.  From labor rights to environmentalism to women's rights to nuclear proliferation, they frequently bring these issues out to bash the developing world with in order to gain other concessions (mostly related to money).  So it's hard for me not to be cynical about the idea that the United States or other rich countries in an international nation-state system with an international division of labor are going to unilaterally set themselves to developing cleaner technologies for industrialization (if that's even possible).

Of course there's always the other side of that argument, which is that a strong progressive environmental movement in the United States would be more likely to grant concessions to countries like Bangladesh and Pakistan purely on the basis of a truly enlightened self-interest--but that's a level of international inequality that's still a bit hard to swallow as a goal.


[ Parent ]
where to begin? (0.00 / 0)
A big step would be the willing transfer and provision of small-scale sustainable technologies like solar cookers. Now, you could look at that as solving the problem with gadgets, but that's as off-base as deciding that the problem can't be solved without polluting.

There are goods and services people need. How should they be provided? We all need food, and a good portion of that food needs to be cooked. The whole world doesn't need for the solution to these needs to be a full-service supermarket that's restocked several times weekly and a gas or electric range in every kitchen. In fact, that can't be the solution.

You hear people say that there aren't physically enough raw materials on the planet to give everyone the same standard of living we have. The egalitarian impulse rebels at the thought. But consider what's meant by that: there aren't enough materials to give everyone an American-style house, car, full complement of appliances, etc.

If we were to reconsider the goal, to make sure everyone has adequate housing, sufficient access to transportation, etc., that could probably be managed. Our construction technologies are enormously wasteful of material, as is the infrastructure supporting the finished products. There's no need to use the raw tonnage of resources we do, or to waste and discard so much in the processing.

And look at another source of poverty in the developing world: shifts in food production. People get pushed off their land because subsidized agribusiness products are sold below cost or because their government gives away their land from under them, they wind up in the slums of cities that don't have enough work for them and they probably don't have many non-farm skills to start with, their diets lose variety, and they become more vulnerable to food price shocks such as we're having right now.

The way they were producing food before, though, was great. With a little technical assistance where certain skills had died out or conditions degraded, diversely cropped, small acreage production geared towards local food needs is about the perfect model for food production. People who are poor in terms of money are better off when they have access to food than not, because a person can survive and be healthy without money in ways they can't be without good food.

Again, what's the goal? Is it to have them all owning a car and working an office or factory job, or is it to make sure people's needs are met and then looking for ways in which technology and research can help them improve their lives? In fact, if we're going to maintain access to a good, well-varied food supply in the US, our farming is going to have to look a lot more like theirs used to and still does sometimes. (And I have it on good authority that some people really enjoy raising animals and tending plants. This is neither a cruel, nor a universal, prescription.)

Prosperity is no more strictly tied to export production than it is to efficiency or to some GDP dollar value. In particular, the prosperity of a given individual. Compare China's phenomenal growth with the sad effect of its pollution, which is causing cancer, birth defects, asthma, etc. How prosperous are you, really, if you can barely breathe or drink the local water?

Anyway, framing prosperity as at loggerheads with sustainability misses the point. And I don't in any way mean that in a hostile fashion. For too long, people have talked about environmental protection as though it were synonymous with being cold, hungry and perpetually inconvenienced, which nobody wants. No one wants to tell the developing world that no matter how hard they try, that's all they can look forward to because we f***ed it all up.

So, with that preamble, here are the things to think about wrt to this issue, according to me:

  • Runaway global warming would destroy developing economies.
  • Peak oil, grain price shocks, financial market meltdowns, falling agricultural yields and droughts are already hurting them.
  • The way to go isn't to give everybody what we've got, which not everyone wants anyway, but to figure out how to provide equivalent services with far fewer raw materials.

But answering that question would be a whole book unto itself.


[ Parent ]
Guess I've two more books to read... (0.00 / 0)
....although I might be skipping Kunstler's. A lot is happening which calls into question some of his assumptions. Still the immediate questions are two:

What is 'prosperity' if it must be sustainable?

Can we avoid...The Road to Olduvai Gorge.... and create a sustainable future. I believe there is reason for optimism but only if we in the still powerful U.S. realize that the for-profit 'free market' delusions of Traditional Economics are seen for what they are:

Delusional theories of how the world works which can only result in the worst of Kunstler's theories outcomes.

...and abandon same replacing them with 'markets' which work to promote the total welfare of us, all humanity, and the ecosphere we depend on for life itself.

The future must be a place where exploiting the commons or your fellow man for personal or institutional gain is....

Proscribed.

Peace, Health and Prosperity for Everyone.


Kunstler is very pessimistic (4.00 / 1)
... but don't let that stop you from reading him. He really goes into the nuts and bolts of the ways our infrastructure could fail, which is to say, the nuts and bolts of what might be necessary to preserve civilization should we get hit with a convergence of unfortunate events.

Lovelock is even grimmer, though. Key to avoiding turning the both of them into prophets is to figure out how to shift things before we're forced to it. Certainly, I'd like that. Sort of enjoy having a civilization, hot and cold running water, broadband internet, etc. If we plan a transition, we could conceivably keep all that and even continue to progress technologically.


[ Parent ]
Me also and..... (0.00 / 0)

......as my link shows it can be done.

Peace, Health and Prosperity for Everyone.

[ Parent ]
Well said. (4.00 / 1)
So I am a lover of enviromentalism and economics. Efficiency.... is an interesting challenge. It does make sense if you are structuring a manufacturing process to pay attention to efficiency, but to make it a goal unto itself often makes a mess of the people who work for you and the environment you get your raw materials from. But it should not be ignored, either.

A friend of mine likes to opine that efficiency is a neurosis. And often times it is. Or at least is taken to that point.

We often worship efficiency in our work-ethic-driven culture, and it is so critical to remember that art and philosophy and love and beauty are not efficiency based processes. And it's a sad day that people leave behind these things. Too many will end on their death beds wondering if it was all worth it precisely because they maximized efficiency.

But what are we to do with efficiency? Clearly, short of abandoning a competitive marketplace (which has very strong advantages in terms of productivity) we will have to have a role for efficiency, too.

There is an answer for this, and it's called internalizing costs. Right now there are so many "externalities" to productive processes. Among them are environmental damage and the social cost of displaced labor.

Right now we are beginning to see a shift in demand in terms of organic foods and fair trade goods that represent more realistic accounting of costs. As we continue to internalize costs and create more livable systems of cost accounting, then there is still a role for modelling efficiency in production. For example, it is better for the environment to produce things efficiently when it means we get more finished goods from fewer raw materials and with less waste. Right now we are starting (and only starting) to internalize the environmental costs of waste, which is a steep and historic struggle against the mindset of exploitation and manifest destiny.

Also we are beginning to see movement in terms of translation of more of the value of finished goods to the craftspeople, and hopefully someday to the primary producers of raw materials as well. This is an argument that has historically been confused with efficiency but in fact has nothing to do with it. Efficiency of production from a management perspective is "great" but maximization of profits has long been a mania that masks rampant exploitation and a modern aristocracy.

Part of our challenge then is to see the issue clearly enough that we can identify the real value of efficiency and differentiate the areas where the concept is appropriately applied from where it is taken too far, and from those areas where it is simply mis-applied.

For my part, Natasha, I've enjoyed your writings here and at the BooTrib. And I think it hugely important that we continue to explore the philosophical foundations of the issues we deal with in politics and culture. Power on.


90% inefficiency (4.00 / 1)
The "90% inefficiency" number is incorrect, at least in many aquatic systems, as shown by Larry Pomeroy thirty years ago. I believe it is based on the uppermost terrestrial trophic levels (vertebrate herbivores and carnivores, etc.), but less derived ectothermic organisms, especially in marine environments, are much more efficient. Do a wikipedia search for "microbial loop".  

Cool! (4.00 / 1)
Turned up some very nifty things re dissolved organic carbon off that google, and though I don't have the patience at this hour to look for precise figures, I did run across an educational page that said the DOC made energy transfer across ocean trophic levels more efficient.

The 90% figure is what I remember from all my classes, but I'd never taken one specifically in marine biology and all the accompanying illustrations I've seen showed terrestrial ecosystems. Guess as far as dry land biology is concerned, that information sleeps with the fishes.


[ Parent ]
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