Alain Sepeda <[email protected]> wrote:

I've rethough about my simple rough analysis of Energy being 10% of all
> cost in economy.
>

I have talked about the potential economic effects with many experts. I
conclude that it is darn near impossible to estimate the impact or likely
course of development because --

1. Much of the outcome will depend on politics and what people chose to do.
In the past, we have often failed to use a technology effectively. We have
let many problems fester that could easily be fixed. We fail to take
advantage of technical opportunities. That is why, for example, pollution
was not reduced in Japan until after the disasters at Minamata and
Yokkaichi. They might have done it earlier. It would have saved lots of
money and thousands of lives. But they didn't. We might not make effective
use of cold fusion. Capitalism is not perfect. People are not perfect. They
are often irrational and self-destructive.

2. At the level of energy, the economy and technology are so complex no
expert can sort out the inputs and outputs, or the effect of change. You
might estimate the impact of an improved washing machine. You might even
predict the impact of an effective vaccine for AIDS. But when you get to
something as big as cold fusion, the effect is too big to predict.

3. In the past, experts have often examined nascent technology and guessed
wrong about what will have an impact, and to what extent. I mean real
experts, not self-appointed ones. A classic example was in the late 1940s
when people looked at two products from WWII: nuclear power and computers.
They guessed that nuclear power would have a wide-ranging, profound, and
direct effect on people's lives, whereas computers were likely to remain
laboratory curiosities for a long time. They imagined isolated, giant
computers, like the ones in the sci. fi. stories by Asimov. Computers
seemed fragile and useless for the ordinary tasks of daily life, whereas
everyone needs electricity. By 1985 it was clear that computers would be in
everyone's house and car, but nuclear power is a distant and not
particularly important technology.

Granted, it is easier to see how cold fusion can play a direct role in
daily life, by powering automobiles, home generators and the like. It is
much more viable than fission nuclear power. It is cheaper, and safer. For
many reasons described in my book I expect it will have a profound effect,
both direct, and indirectly by reshaping other technology. But the full
extent of those changes and the course of events are impossible to predict
in detail, or even imagine.

Quoting a top expert (myself):

"I doubt that anyone now living can grasp all the ramifications of cold
fusion, or imagine more than a small number of ways it will be used. We
have no experience working with it, and no feel for it. Someday, product
engineers who have dealt with cold fusion all their lives will take its
capabilities for granted, and they will instinctively know how to apply it
in ways that would never occur to us. In 1970, the most forward thinking
computer engineer or futurist probably did not imagine that people in 1990
would be stuffing microscopic computers into automobile fuel injection
systems, kitchen blenders, hotel guest room door locks, Jacuzzi bathtubs,
cameras, “fuzzy logic” rice cookers, handheld radio-telephones (cell
phones), and thousands of other machines. Computer experts were masters of
arcane hardware and software, but they knew nothing about cooking rice.
They thought of computers as accounting machines, or handy tools in the
laboratory, not as gadgets to cook rice with. When microprocessors came
along, the people who make rice cookers saw how to use them. Product
engineers everywhere went to work, putting computers in new places and
using them in new ways. In retrospect, most of these improvements were
predictable. Any hotel manager or guest can see the advantages of
computerized doors and access cards. What makes the future difficult to
imagine is not any particular incremental improvement, but rather what
happens when all sorts of different machines are improved simultaneously.
When cold fusion power supplies become available in every size from a
hearing aid battery to an aerospace engine, product designers everywhere
will find novel ways to use them, and the cumulative changes will affect
our lives and societies more profoundly than the microcomputer revolution
did."

As I said elsewhere, imagine telling a typical computer expert in 1960 that
by the year 2000, a Jacuzzi bathtub would have computer control more
sophisticated than a Vanguard Rocket computer. He would probably be more
baffled than astounded. I imagine him asking: "Why the hell does a bathtub
need a control?!? What is there to control in a bathtub??? You turn the
water on; you turn it off. A sophisticated, electronic control? For what?"

I would not even want to try to explain to our time-travelling engineer why
some 21st century Japanese flush toilets have ultra-sophisticated
computerized electronic controls, easily capable of guiding an Apollo
Rocket. See:

http://www.hutchinsonline.net/japan/toilets/japan%20toilet.html

Regarding the overall subject of progress . . . many people fail to
appreciate that it never ends. We are aware of that, but we fail to grasp
the ramifications. We have the illusion that we live at the end of
history. As Jefferson said, progress will continue not *infinitely*, but *
indefinitely*, "to a term which no one can fix and foresee." This is not
the end of the development electronically controlled Japanese toilets. They
will grow ever more sophisticated in the future. Today, the manufacturers
are talking about adding equipment to do on-the-fly (on-the-flush) health
analyses for various diseases. In the distant future, I predict the toilets
will instantly process the sewage, recycle the water, and prepare the
sludge for robot collection and recycling in sealed plastic containers,
eliminating the need for sewer pipes.

As a rule, technology develops and changes throughout the entire time it is
used. Fire is our oldest technology, but combustion engineering is a vital
field. Research into fire, and improvements in combustion heat engines,
space heaters and fireplaces will continue until the last fire has burned
out. In the book "Collapse" J. Diamond described how stone age tools
evolved and became far more sophisticated as the eons passed. Needless to
say, we are still using obsidian, granite and other stone age materials and
techniques. We are still getting better at it. In 5,000 years, when people
look at the remains of buildings constructed from stone, I expect they will
say that 24th century stone buildings are lot better than 21st century ones.

Even simple things such as spoons, which have not changed much in
appearance for around 200 years, have changed profoundly in ways we cannot
see, in the manufacturing phase. They will soon change again, with the
introduction of 3-D replicator bot machines.

- Jed

Reply via email to