Adrian
Wagner
The
Interface
In February of 2000, I spent a week
in the snow-covered woods of the Anderondack Mountains. As each day passed, I found myself spending
the last moments of each, huddled around the warmth of a campfire. I would circle my entire body around it for
hours on end, trying to extract every morsel of warmth radiating
from its embers. And as
I lay there, watching the flames dance among the burning wood,
I thought about the tremendous amount of energy being released
before me.
When
the fire had finally finished, it was much changed. What was once a mass of rich texture and vitality had become a pile
of ash and a rising channel of smoke. The complex cellular structure of the wood, a structure
engineered over millions of years by the process of evolution,
had given way to a mass of powdery white carbon. This deterioration of structure did not happen in vain,
as my body was well aware. The
structure of the wood was converted into heat via chemical reaction.
I
built a fire, intentionally destroying the wood that I placed
upon it, so that I could enjoy the warmth that it had to offer. The energy released came at the cost of destroying the
order contained in the wood, a movement over time, from order
to disorder. Even if I had not burnt the wood and had let
it rot in the ground, the result would have been the same. Once separated from its parent tree, wood looses
its structural integrity over time; it looses the very structure
that defines it. There
is a natural progression from a state of structure to a lack of
structure, from a state of order to one of chaos. The only way that this progression can be overcome is at
the expense of energy.
The
theory of entropy states that in a given closed system, there
is an increase in the amount of disorder over time. Take a box
filled with an equal number of black and white marbles, such arranged
that all the white marbles are on the bottom and the black ones
on top, and begin to shake it. Over time the marbles will be in increasingly
random positions, until their distribution will look like pure
noise. The only way to
get the marbles back to their original state of order is by rearranging
them. This can be done, but only at the expense of
energy from an outside source.
The
earth is a closed system just like the box, and as such, it seemingly
defies the theory of entropy. Evolution on our planet has led to a tremendous amount
of order and complexity. However, it has done so only at the expense
of the vast amount of energy our planet has received from the
sun. Life can only exist where there is a source
of energy, for only with a source of energy can such complex systems
arise. This fundamental requirement guides scientists' search for life on
other planets. For example,
the possibility of life existing on Jupiter's moon Europa has
been recently considered. The
moon may well contain a vast ocean under its icy surface, which
if heated by the gravitational pull of its parent planet, may
be able to sustain organisms that feed off the heat generated
by the gravitational interaction. Without this source of heat, there could be no life. Similarly, without the sun, life on our planet
could not exist as it does today.
Plants
receive their energy from the sun, and convert that energy into
chemical form through the process of photosynthesis. In the example of the firewood, the structure of the wood
arose while part of a living organism that consumed energy through
such means. The energy from the sun gave rise to a physical
state of order in the wood. The
energy stored in the order of the wood was released before me
as I sat in front of the fire on that February night. There is a correlation between order and energy. Energy is needed for order to arise; and order
has a chemical ability to release energy. Order can be seen as a universal battery, a medium of storage through
which energy can be passed. This
phenomenon has allowed for such a complex diversity of life to
evolve on our planet.
Plants
gain their energy from the sun. Animals consume the order of plants. Other animals consume the order of smaller animals. Therefore, the key to life and the proliferation of a species
is its ability to consume order from the surrounding world, without
exhausting the source.
The
progression from plants to large animals depicted above, the 'food
chain,' ultimately has, as its base, life forms that convert visible
sun light into chemical energy through the process of photosynthesis. Every other species on the planet is thus dependent
upon the ability of plants to transform sunlight into usable energy. Furthermore, the sum of energy consumed by every other
species must not exceed that generated by plants. The base of the food chain, would thus not
be able to sustain all other life forms. Every species must be in balance within the progression
of energy from species to species, not only for the good of all
species, but also to secure its own food supply.
The
progression within a system, from order to chaos, is the basis
of the idea of destruction. If
I tear up a painting, I am destroying the painting. I am adding chaos to what was a unified piece of art. It would take the energy of a skilled restorer to bring
the painting back into its original state of order. Therefore, the key to life is the ability to destroy order,
and in doing so, use the energy released to create and maintain
one's own state of order. Life
would not be possible without destruction, just as it would not
be possible without order.
Many
see human-made technologies as being inherently destructive. I think that this statement is quite accurate. However, I will argue that the fundamental purpose of our
technology, a purpose endowed to our species by Mother Nature
herself, is to destroy. This
must be expected, as any form of life cannot exist without destruction. There are however fundamental differences between the nature
of our destructive methods, and those employed by other species. Through the rest of this paper, I will look at the effects
of human technologies, and why they fundamentally separate us
from every other species on the planet. I will look at the ramifications of this separation, and
what it means to the future of humans as a species. I will also offer some ideas as to how we can keep our
unique characteristics from killing us.
As
I have already mentioned, life must be able to consume the order
around it in order to survive. Therefore, each and every form of life must have some type
of interface through which it can consume this order. I use the term interface because the process of consumption
is more complex than just a physical input device. All mammals, for example, have some form of mouth. A bear, more specifically, has a fairly powerful jaw. Yet, his jaw would be useless if it was not for the raw power of
his claws and the intelligence required to use them. It is the entire system, fine-tuned by thousands of years of evolutionary
trial and error, which forms the bears interface. Every species, therefore, has a unique interface
that allows it to consume order from the rest of the world. It is altered over time by evolution, and is
molded by the gradual progression of genetic lineage that carries
the information required to manifest it. The interface is in a constant state of evolutionary change,
moving through generations like a glacier carving its way across
the landscape. It seeks to find a gradual yet dynamic balance
within the web of life.
The
idea of natural selection is based on the notion that a species
with the greatest ability to obtain food has the greatest ability
to survive. Yet, if a bear is able to consume all of his
food supply, he will perish. The web of life is dependent upon the balance of supply
and demand. I have stated already that the key to life
is consumption. No animal
can survive without consuming energy. However, no species can survive if there is no more order
left to consume.
Because
the process of DNA replication guarantees that any changes to
a species' interface take place over the span of multiple generations,
these changes have time to be thoroughly evaluated, their benefits
and costs integrated into their progression over time. If over-consumption
leads to food scarcity, the interface of the consuming species
will be either altered or driven to extinction. Thus, the balance
is maintained. If a beaver
was to evolve with a small nuclear bomb with which he could magnificently
knock down all the trees in a 3-mile radius and thus build the
most divine of all dams ever built... he, in the process would either destroy himself or the
habitat upon which he was dependent. His genes would thus never be passed; no more nuclear bombs
would be conceived. Thus, the evolutionary relationship between
cause and effect is maintained, such that the two are integrated
through the balance of supply and demand.
There
is a property of mans interface that distinguishes him from any
other form of life on earth; our interface has escaped from the
bounds of physical evolution, and thus the balance itself.
Evolution
has given man a powerful brain and hands that can manipulate the
world around him with fantastic precision. While almost all other species effect change on the world
around them through an interface that is a product of evolution,
humans have the mental capability to create and discover interfaces
that extend beyond our own bodies. We can manipulate the world on a physical level,
using the objects and tools that we find to aid in our consumption
of order, as if they were a natural part of our species. These self created interfaces are the technologies that we have
developed and expanded upon over thousands of years. Initially they took the form of clubs, fire, and the plow. They now take form as entire industrial plants,
themselves built by other machines. All forms of our technology share the fundamental purpose
of aiding us in the manipulation of order and chaos in the world
around us.
Evolution
has given humans the ability to evolve our own species far beyond
the rate achievable by DNA replication and mutation. "It took billions of years for the first cells of
life to form on earth, and then in the Cambrian explosion, paradigm
shifts only took a few tens of millions of years. Then later, we went from primates to humanoids in only
millions of years. And then Homo sapiens emerged in only hundreds
of thousands of years. [i] " Finally, evolutionary progress became too rapid
to be held within the bounds of DNA guided protein synthesis. Technology was born. Our own evolution is no longer physical in
nature. The slow but brilliant
process of genetic mutation and replication has been replaced
with the lineage of human knowledge. No longer, do our claws evolve. It is our knowledge of using long, sharp sticks to create
massive projectile spears that is passed from generation to generation
by oral and written means. DNA has been replaced with language, evolution with knowledge, and
genetic mutation with creative thought.
We
are tapping into the resource that Mother Nature has given us,
exploring our world and recording our findings so that those who
precede us can build upon our own intellectual evolution. In doing so, our evolutionary-technological powers have
brought us so far beyond the capabilities of other species that
we have lost track of our fundamental relationship with them. We are no longer connected to the feedback system that
once guided us. Our rapidly expanding arsenal of interfaces
is no longer dependent upon the balance within the web. We are not flowing as glaciers, but tearing
across the evolutionary landscape as Id-driven tornadoes.
The
division between physical and mental evolution is of enormous
consequence. If we develop a technology such as a nuclear
bomb, it can be implemented in a mater of decades. It must no longer pass a thorough evolutionary evaluation over the
span of hundreds of generations. So while the beaver's genetic sequence may never stumble
upon the physics of fission, our creative minds can. Furthermore, we can implement any given technology before
its consequences are fully known. We thus have a moral obligation to evaluate the effects
of our technologies, as no one else is.
The
nuclear arms race of the late 20th century was the
product of political war and scientific ingenuity. In its wake, we are left with over 34,000 nuclear warheads,
capable of destroying the planet 4 times over [ii] . While it can be argued that there is a vague
line between a given technology's risk, and the value that it
may have in terms of intellectual progress, nuclear weapons are
clearly not worth their risk. Nuclear warfare is a technology that was developed and
implemented long before its consequences were fully understood. In fact, the consequences of nuclear technology by its
very nature will never be known until it is too late.
In
1995, the world came 4 minutes away from nuclear holocaust. On April 5th, Soviet nuclear weapons
systems armed themselves for retaliation against the United States,
after being falsely triggered by a sea launched television satellite. In the final four minuets before launch, the
system was disarmed from its final state of alert. The entire incident was the result of a mishandled paperwork [iii] .
The
episode raises the question of whether or not we as human beings
have the capability to fully understand the consequences of our
actions. Furthermore, upon a theoretical understanding
of consequence, have we evolved enough as a species as to not
be driven by such basic evolutionary artifacts as greed, lust,
and hatred, even if the consequences lead to our own destruction. As we push the technological envelope into new territory,
this question gains fundamental importance.
Since
the discovery of molecular chemistry in the early 1900's, scientists
around the globe have invented over one hundred thousand synthetic
chemicals. Every year, a thousand new substances are introduced
out of which, at best, 40% are tested before being put into production [iv] . Technology has moved beyond the manipulation
of the macroscopic world... beyond the building of shelters, the
creation of spears, and the discovery of fire. Technology has begun to alter the very building blocks
that form our planets biological systems. New chemicals are being invented that have never before
existed in the natural world; we are using our earth as a global
laboratory to slowly discover their consequences.
In
1929, a group of scientist invented a series of 209 compounds
collectively named polychlorinated biphenyl's, or PCBs. The invention of PCBs was heralded as a scientific breakthrough. The compounds were nonflammable and very stable. They soon found use as cooling compounds, lubricants, hydraulic
fluids, cutting oils, and liquid seals. "These chemicals also found their way
into a host of consumer products and thus into the home. [v] "
In
1976, almost 50 years after their introduction into the environment,
the United States Government banned the production of PCBs.
PCBs
have since been linked to such health problems as mental retardation,
cancer, endometriosis, infertility, thyroid dysfunction, and permanent
skin damage. The exact
scope of the damage caused by PCBs may never be known. High levels of the chemical have been found as far as the
arctic, and as close as in human breast milk. "As other scientists began to look for PCBs, they,
too, found them everywhere - in soil, air, water; in the mud of
lakes, rivers, and estuaries; in the ocean; in fish, birds, and
other animals. [vi] " By the time the US banned their production,
an estimated 3.4 billion pounds of PCBs had been produced.
PCBs
were introduced into the environment in the name of innovation,
without thorough understanding of their consequence. As early as 1937, the toxic effects of the chemical began
to appear, yet it took 39 years for these effects to be officially
recognized. PCBs are only 209 out of 100,000 new synthetic
compounds constructed in the past century. If it took the US Government 50 years to react accordingly, what
kind of resources and time will it take for us to gain an understanding
of the effects of the other 9,791 synthetic chemicals in production? The scale at which these chemicals effect our
environment in any manner is drastic.
"U.S.
production of carbon-based synthetic chemicals, which represent
the lion's share of synthetic chemicals, topped 435 billion pounds
in 1992... Global production is believed to be four times
greater. [vii] " The question must thus be raised, where do
the trillion plus pounds of synthetic chemicals end up?
In
1998, the culmination of 25 years of EPA testing showed that 75%
of people tested contained chemical toxins in their bodies. While it is impossible to determine with scientific certainty what
effect each of the 9,791 synthetic chemicals has on our bodies,
it is easy to see their cumulative effects. In 1994, the Office of Technology Assessment released a
report estimating that 90% of all cancers are environmentally induced, such that they
are theoretically avoidable. Between 25% to 35% of all Americans will die of cancer. This means that out of 250 million Americans, 56 million
will die of cancer caused by chemical intoxication, radiation,
and environmental poisoning.
Is
this the murder of 56 million people, or is environmental poisoning
simply a devastating, but unavoidable consequence of the same
technological innovations that have increased life expectancy
three folds since the signing of the declaration of independence [viii] ?
There
is a delicate balance between the good of innovation, and the
possibility of harmful long-term consequences caused by new technologies. An increase in life span is useless if there
is no world left for future generations to live in. If the human species remains on the current path of rampant population
growth and the misuse of our very interface, we may well be on
the path to extinction. Our
evolution, our technology, our interface, is no longer kept in
check by Mother Nature. Yet, our survival is still dependent upon the
systems that she provides. We
are destroying these systems; we are thus destroying ourselves.
Human
action has transformed between one-third to one-half of the earth's
landmass. Over the last
50 years, 17% of the planet's soils have been severely degraded,
nearly 2 billion hectares, the size of China and India combined [ix] . Since 1970, the world's forests have shrunk
from 11.4 to 7.3 square kilometers per 1,000 people since 1970. We are slowly altering the landscape of the
entire planet, and thus the systems upon which our population
depends. Every 20 minutes, the world adds another 3,500
human lives but loses one or more entire species of animal or
plant life - at least 27,000 species per year. This is a rate and scale of extinction that has not occurred
in 65 million years.
As
we destroy the web of life, we destroy the balance of systems
that sustain us. Virtually
all of our food is derived from agriculture. Our vegetables, fruits, wheat, meat, and dairy are dependent
upon a stabile environment in which plants can grow. Natural systems are able to adapt to long term change,
but if their environment is altered at a rate at which DNA based
evolution can not keep up, the systems will collapse. By drastically altering our environment, we are running
the risk of destroying the very systems that sustain our population.
The
global emission of carbon dioxide, a "greenhouse gas" that most researchers say causes global warming and disruption
in weather patterns, has quadrupled since 1950, largely from deforestation
and the burning of fossil fuels. The atmosphere now contains 30%
more CO2 then at the beginning of the industrial revolution [x] . As a result, the planet has seen a rise in
global surface temperature of 1 degree Celsius in the past century. "Scientists expect that the average global
surface temperature could rise 1.6-6.3°F by 2100, with significant
regional variation. Evaporation will increase as the climate warms,
which will increase average global precipitation. Soil moisture
is likely to decline in many regions, and intense rainstorms are
likely to become more frequent. Sea level is likely to rise two
feet along most of the U.S. coast."
Our
effects upon the system are beginning to appear. As I write this paper, I sit in my New York apartment, in 90-degree
heat. These are the first
days of April. To the
north of me, the Great Lakes face the "most drastic decline
in water levels in over a century." In some parts of the Lakes, the largest body of freshwater
in the world, water levels are already 3-4 feet below normal. Across the globe, Australia is bombarded by 100 billion
crop eating locusts, "triggered by unusually heavy summer
rainfall brought on by a series of tropical cyclones." Another unusual series of cyclones has left
350,000 homeless in the aftermath of the worst flooding in Mozambique's
history. Meanwhile, the wells and cisterns of the people
of India’s Orissa State have run dry as the result of two weeks
of severe drought and temperatures hovering above 118 degrees. "The situation has been made more dire in the aftermath of a
super cyclone that struck last year, leaving many people living
in makeshift shelters that provide inadequate protection against
the heat. [xi] "
The
current rate of environmental intoxication that our human interface
has given us the ability to effect, is not sustainable. The human population is consuming the order of the planet,
without giving it time to be replenished through photosynthesis. We are thus destroying the order of a system
that is dependent upon itself to exist... It is like using the energy contained within a battery
at such a rate, that the battery looses the ability to recharge.
The
worlds human population consumed 350 exajoules of energy in 1998. The entire array of plant species produced
roughly 170 exajoules of energy in the form of biomass. The worlds population is thus consuming energy
at over twice the rate than it is currently being replenished. We are destroying our natural resources, and
the consequences on our own population are already beginning to
show. Out of the 6 billion people currently alive,
an estimated 800 million are malnourished. Yet, our population is somehow continuing to expand. It is estimated that by the year 2050 it will
reach 10 billion.
The
technologies that we have created are allowing us to milk the
planet of its order at phenomenal rates and from sources that
we would otherwise not have. We are able to sustain our population through the use of
oil. Our consumption of
100 billion gallons of oil every year allows us to boost plant
production by the order of a magnitude. We are using the order in the oil, to sustain our consumption
of order, which would otherwise not be possible. The problem is, oil, like our forests, our fish supplies,
our natural gas, our fresh water, is not a instantly renewable
resource. We are draining
the ecological battery, and it soon may run dry.
"The Newtonian idea here is that the population
follows the geometric pathway of its own inertia in the absence
of intervening forces - that is, a population will follow its
inertial trajectory until food scarcity acts in the guise of a
force to brake that increase. [xii] "
A
change is desperately needed before the order runs out. A rapid decline in the rate of energy consumption
coupled with a decrease in the global population must be effected,
yet, by who?
The
greatest problem in implementing such global action is that the
'developed' nations who hold the greatest political power are,
as of now, the most unaffected by consequences of our destruction
of order. The richest 20% of the worlds population consumes
86% of all goods and services and produces 53% of all carbon dioxide
emissions, while the poorest fifth consumes 1.3% of goods and
services and accounts for 3% of C02 output. An average American's environmental impact is 30 to 50
times that of the average citizen of a developing country such
as India [xiii] . Yet
the effects of global climate change do not devastate the American
population; they are felt by the 3 billion people who still rely
on subsistence farming and who are thus delicately dependent upon
their environment. No
American is going to give up his plush technological pillow, to
return to subsistence agriculture.
A
comprehensive solution to the problem that threatens our entire
species is beyond the scope of this paper. I believe the solution is beyond the scope of any paper. It would have to be, at the very least a global understanding
of the consequences of our actions, and a initiative by every
citizen to act towards the sustainability of our species. Such action would require mass education, or a direct confrontation
with the consequences of our actions. We, as a species, just may have to fall on our feet, before
we see the necessity of saving the soil upon which we stand. Mother Nature may already be pushing us.
The
Aids epidemic has been traced to a moment of contact between a
man and a monkey in the 1930's. Humans do not belong in the rainforest and jungles, just
as monkeys do not belong in our cities. It is precisely when the human population begins
to encroach upon habitats not native to our species, that we are
stung with diseases such as Aids. Aids is mother natures defense system against our rapid
population growth. The virus spreads when we reproduce, killing
each human mate and their offspring. If this is not a warning, there never will be. If we encroach just far enough, will we uncover an airborne
form of aids, which also defies all of our technologies?
Ignoring
this prospect of viral Armageddon, I see two possible outcomes
to the current global situation.
The
first is that we act immediately, and severely, to change the
course of our global future. It is estimated that the earth can support and sustain
a human population of about 2 billion. This figure is derived from a consumption rate
of one half that of the average American, approximately the level
of consumption of an average European. In order to save ourselves, governments and corporations
around the world will have to become conscious of our global destiny. Foresight will have to replace hindsight. Conservation will have to replace Consumption, and our technological
momentum to make our lives that much more comfortable, will have
to be replaced by a movement of technologies that can sustain
our lives.
The
second outcome is that we continue on the current course of rapid
and drastic expansion and environmental damage. Doing so, we will have to directly face the impact that
our species has had on our planet, and learn to adapt to its consequences. We will thus be gambling our future on the
ability of our technology to provide basic life support, in the
face of drastic change to the planets natural systems.
Already,
we have tried to sustain seven lives within an artificially regulated
'biosphere.' The results
of that trial were an infiltration of cockroaches. In order to succeed, we will need to engineer plants that
can withstand environmental extremes such as droughts and floods,
and perhaps desert-like conditions. We will need to find a renewable source of
energy, such as wind, fusion, or solar power, and we will need
to develop and implement these technologies before our oil supply
runs out (estimated 2050). We
will need to avoid global nuclear conflict is the face of dwindling
resources and an increasing population, and will we have to find
a way to keep undeveloped nations from perishing from a lack of
technological resource (Flooding in Mozambique).
To
win this greatest of gambles, we will need to push the envelope
of technological innovation to new limits. We must find ways to understand and manipulate a world
governed by the enigmatic rules of chaos theory. This is no small task.
In
the year 2000 all of the combined computational power on earth
can not predict weather patterns to an acceptable level of accuracy,
more than 12 days in advance. Weather patterns are governed by chaos theory, the mathematical
equivalent of the Buddhist idea of samsara: the interconnectedness of all
things. If we are to be
able to understand the entire array of life systems that have
evolved over billions of years, we will need virtually infinite
computational power, another gamble, but possible.
In 1947, a research team at Bell Laboratories
designed the first transistor. In 1957, Jack Kilby came up with the integrated circuit. These two inventions started the computer revolution, which has
since touched the entire globe. Computers are slowly becoming more than useful tools, with
which we manipulate numbers. Complex programming techniques such as neural networking
have begun to create artificial entities which process information
in the same way as the human brain. As the speed of computers push onwards, approximately
doubling every 2 years, we will soon find ourselves with artificial
minds trillion of times more powerful than our own. As such, we have embarked upon a journey in
which we are breaking away from our biological barriers all together. A reliance on technology allows us to escape
from the last evolutionary restraints placed upon our greatest
tool, our mind.
Thus,
not only will we have to rely on our physical technologies to
save our planet, but we will have to rely on their ability to
think of how. No human mind can trace and understand the
complex web of life that exists. We
will need such an understanding if we are to be able to gain control
over the ecological fuses that we are now lighting.
The
question must be asked, is life worth living if it is based on
such a dependency of technology. We run the risk of literally being slaves of our technology,
slaves to our interface... an interface so unique in its ability
to exist without through testing. Already, we can not venture into the woods
without bottled water or purification pumps. Will we soon not be able to eat without ingesting a genetically
altered species of plant? Like
PCBs, do we have the time to learn the effects of our innovations? This is the gamble we must place on our interface.
Non
technological interfaces rise out of their direct relationships
with the systems that formed them. They come into existence because they work, and in working
they fundamentally keep in balance within the entire systems at
hand. Man made technologies
are the product of creative thought. Not linked to the gradual lineage of genetic
information, they can thus emerge separate from the testing process. It would seem as though Mother Nature would
have maintained some type of check on us, to keep our interface
from running astray and ruining her most incredible creation. Perhaps Mother Nature knew this, and perhaps she thus decided to
give us morals, so that we may keep the balance, while not being
bound by it. And perhaps it is this very freedom, given
to our species alone, that we should honor.