So, yesterday I saw there would be a talk at the university entitled “The Future of the Brain”. Being a brain, I was interested. Though most people take the brain’s future for granted, I’ve been wondering. I’m not so sure. You see, the more brains there are in the world, more than seven billion now, the more stupid our collective behavior seems to get. So, I’m thinking that, a lot of the time, maybe most of the time, brains are not additive. That’s the big mistake economists make. They think the more people there are, the more likely someone will come up with an invention that helps everyone. But really what happens is there’s just more chance for someone to invent something that screws things up even more. Roundup-Ready corn, anyone? Nuclear bombs?
What do you get when you put one brain together with another? You don’t necessarily end up with two brains. Sometimes there's a synergy and you end up with a sum greater than the parts, but other times you may end up with half a brain, or they could completely cancel each other out, given the tendency of brains to diverge in opinion. If one brain goes negative while the other brain is positive, the sum of all that nonsense is zero. Or else--and employers are familiar with this--the two brains get along so famously that they end up chatting and getting nothing done at all. Actually, one brain can do this pretty well on its own, thinking about all the things it needs to do until the day is comfortably over.
Sure, a brain is wonderful and all, a real miracle, but you’ve got to admit that it’s also the most dangerous organ to ever come into being. Okay, I’ll change that. It’s only dangerous when combined with hands. Dolphins and whales have really smart brains, but they haven’t screwed up the world because they don’t have hands. They can’t build what they dream up, they can only dream. I’ll bet you their imaginations are taking them places ten times better than anything we’ll ever find on the internet. They’re frolicking in one big womb out there. Doesn’t get any better than that. We’ve turned our homes into wombs--with those umbilical cords bringing in energy and water to maintain optimal temperature and fill the jacuzzy. But it’s not the same.
So let me take you on a brief history of the brain. In the beginning there was a brain. The brain fell in love with another brain, and they made more brains, who in turn made even more, until there were brains over here and over there, and all was love and spirituality until the brains grew hands, and started building stuff. Or maybe the hands came first, and the brain grew to better inform what the hands were doing. In any case, some brains over there decided they wanted what the brains over here had made, and vice versa, which hatched economies until one especially foolish brain decided war would get the job done faster. And the resentments hardened, and surviving brains made more brains that they in turn trained to keep hating the other brains, so it just kinda snowballed.
No other animal needs much stuff beyond a nest, but because we lack much in the way of teeth and speed and fur we needed lots of stuff, And when our brains needed more than what nature was giving them above ground, they started digging under her skin, digging all kinds of things up, stuff to make other stuff--enough stuff that they filled their homes with stuff until they needed other places to store still more. And as places got filled with stuff the brains needed to build superhighways to get away from it all. Which seemed okay, except for everything that had been living in their paths, until someone figured out that the superhighways were really superfactories for climate change. And meanwhile the whales are out there dreaming the finest dreams and leaving everyone and everything else alone.
So let that be a lesson to you. The next time you’re drifting through the galaxies and God comes along and deputizes you to start life on some lonely planet way out there, think twice about the brain-hand thing.
Tuesday, April 01, 2014
Sunday, December 15, 2013
Space Station Logic Applied to Spaceship Earth
The International Space Station, orbiting above earth, has a problem. One of its cooling systems has failed. The astronauts responded in a refreshingly rational way. According to the AP report, they "dimmed the lights, turned off unnecessary equipment", and will take action over the next couple weeks to repair the cooling system. Even in space, where the outside temperature is -454 degrees F, cooling is a big deal. Extremetech reported that "Fortunately, there is a
redundant cooling system, otherwise the six-person crew would be quickly
bailing out and heading back to Earth aboard a Soyuz capsule before
being cooked alive."
It's important to have a safe place in the universe to return to if the space station were to fail. Unfortunately, the earth has its own cooling problem. To keep its overall temperature steady, it needs to dissipate as much energy as continuously pours in from the sun. But the cooling mechanism has begun to malfunction, because we've altered the atmosphere with all the extra molecules we're pumping up into it from underground. Our neighboring planet, Venus, is 900 degrees F not so much because it's closer to the sun but because the atmosphere is so dense with heat trapping molecules--the same ones we're adding. That the molecules are invisible is part of their power. They seem harmless, but it is in their nature to let sunlight in while trapping heat headed out--the massive increase in their numbers is catching more and more of the earth's heat before it can dissipate out into space.
The heat buildup is not causing us to be baked alive, but it's enough to cause a gradual breakdown in the planet's critical systems. Unlike the cooling malfunction on the spaceship, which can be fixed by switching out some components, the earth's predicament has a momentum that builds with each passing day. Procrastination is the enemy; a last minute fix will be impossible. In addition, even if everyone on earth could jump in a billion Soyuz space capsules and abandon the planet, there's nowhere to go.
Space station logic dictates the obvious solution for earth--take immediate action to power down as much as possible so the problem doesn't get worse, all the while powering up with energy sources that won't harm the planet.
But earth logic doesn't work that way. If earth logic were applied onboard the space station, the astronauts would debate whether the warning signal on the dashboard was politically motivated. Or they might not talk about it at all because it's too depressing. They'd bridle at the inconvenience of reducing their power use, even temporarily. Instead of fixing the cooling mechanism, they might think the breakdown is too daunting to fix, or is God's will, and invest instead in dubious plans for somehow surviving the calamity when the other cooling mechanism also fails.
The space station has been controversial. Because it's so hard to keep people alive in the hostile environment of space, manned missions are far more expensive than using robots. The station's scientific value has been questioned, and it tends to transform astronauts from heroic adventurers into plumbers or, in this case, AC repairmen.
There is, however, one very important service the space station could provide humanity, as a demonstration of how to live within our means. While we on earth have seemingly unlimited supplies of energy and water streaming into our homes through wires and pipes, the astronauts must live within a strict energy and water budget. The station literally harvests today's energy--produced by the sun only eight minutes prior--to run its machines. Without the star-crossed option of raiding the earth's long buried stores of fossil carbon energy, the astronauts must make do with the 75-90 kilowatts of energy their one acre solar array captures. Rather than depending on nature to continually supply more water, most of which goes down the drain unused, the station is designed to use most of its water over and over again.
The astronauts, then, are directly responsible for harvesting the energy they use, and face immediate consequences if they misuse the energy and water available. We tend to think that the astronauts are living the fantasy life up in space, but they live in a world of responsibility and consequence that is far more reality-based that ours.
About the malfunctioning cooling system, a space station spokesman said, "the problem may eventually be serious, but is not an emergency at the moment." Out in space, a problem that "is not an emergency" gets immediate attention nonetheless. Worst case scenarios are taken seriously. The stakes are too high to procrastinate or hope for the best. We, too, live on a spaceship--the best ever fashioned. If we learn from the astronauts' example and adopt space logic in our own lives and policies, then what began as a fantasy of space travel will have paid unexpected dividends, by speeding our journey back to reality here on spaceship earth.
It's important to have a safe place in the universe to return to if the space station were to fail. Unfortunately, the earth has its own cooling problem. To keep its overall temperature steady, it needs to dissipate as much energy as continuously pours in from the sun. But the cooling mechanism has begun to malfunction, because we've altered the atmosphere with all the extra molecules we're pumping up into it from underground. Our neighboring planet, Venus, is 900 degrees F not so much because it's closer to the sun but because the atmosphere is so dense with heat trapping molecules--the same ones we're adding. That the molecules are invisible is part of their power. They seem harmless, but it is in their nature to let sunlight in while trapping heat headed out--the massive increase in their numbers is catching more and more of the earth's heat before it can dissipate out into space.
The heat buildup is not causing us to be baked alive, but it's enough to cause a gradual breakdown in the planet's critical systems. Unlike the cooling malfunction on the spaceship, which can be fixed by switching out some components, the earth's predicament has a momentum that builds with each passing day. Procrastination is the enemy; a last minute fix will be impossible. In addition, even if everyone on earth could jump in a billion Soyuz space capsules and abandon the planet, there's nowhere to go.
Space station logic dictates the obvious solution for earth--take immediate action to power down as much as possible so the problem doesn't get worse, all the while powering up with energy sources that won't harm the planet.
But earth logic doesn't work that way. If earth logic were applied onboard the space station, the astronauts would debate whether the warning signal on the dashboard was politically motivated. Or they might not talk about it at all because it's too depressing. They'd bridle at the inconvenience of reducing their power use, even temporarily. Instead of fixing the cooling mechanism, they might think the breakdown is too daunting to fix, or is God's will, and invest instead in dubious plans for somehow surviving the calamity when the other cooling mechanism also fails.
The space station has been controversial. Because it's so hard to keep people alive in the hostile environment of space, manned missions are far more expensive than using robots. The station's scientific value has been questioned, and it tends to transform astronauts from heroic adventurers into plumbers or, in this case, AC repairmen.
There is, however, one very important service the space station could provide humanity, as a demonstration of how to live within our means. While we on earth have seemingly unlimited supplies of energy and water streaming into our homes through wires and pipes, the astronauts must live within a strict energy and water budget. The station literally harvests today's energy--produced by the sun only eight minutes prior--to run its machines. Without the star-crossed option of raiding the earth's long buried stores of fossil carbon energy, the astronauts must make do with the 75-90 kilowatts of energy their one acre solar array captures. Rather than depending on nature to continually supply more water, most of which goes down the drain unused, the station is designed to use most of its water over and over again.
The astronauts, then, are directly responsible for harvesting the energy they use, and face immediate consequences if they misuse the energy and water available. We tend to think that the astronauts are living the fantasy life up in space, but they live in a world of responsibility and consequence that is far more reality-based that ours.
About the malfunctioning cooling system, a space station spokesman said, "the problem may eventually be serious, but is not an emergency at the moment." Out in space, a problem that "is not an emergency" gets immediate attention nonetheless. Worst case scenarios are taken seriously. The stakes are too high to procrastinate or hope for the best. We, too, live on a spaceship--the best ever fashioned. If we learn from the astronauts' example and adopt space logic in our own lives and policies, then what began as a fantasy of space travel will have paid unexpected dividends, by speeding our journey back to reality here on spaceship earth.
Friday, December 13, 2013
Nelson Mandela and What the World Demands of Its Leaders
With the passing of a leader who persevered beyond all measure, and finally triumphed to father a nation, a cluster of wishes:
- that a leader's job were easier, and a misleader's job much harder,
- that humanity's inner compass would lead more towards unity and compassion than division and resentment,
- that a nation's foundations were so strong and its trajectory so well considered that even a mediocre leader would do.
- that a leader's job were easier, and a misleader's job much harder,
- that humanity's inner compass would lead more towards unity and compassion than division and resentment,
- that a nation's foundations were so strong and its trajectory so well considered that even a mediocre leader would do.
Subscribe to:
Comments (Atom)