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Fasut and Mephistopheles
Faust and Mephistopheles Mephistopheles, the devil figure in Goethe’s play Faust, tempts Faust with the exhilaration of flight. From the air, it is easy for Faust to imagine himself lord of the earth, with no limits to his powers. Source: Public Domain. Illustration by Alphonse de Neuville

In short, we are all Fausts now, not the insignificant, powerless creatures we sometime feel ourselves to be, but rather, the lords of the planet. How this came to pass is an object lesson in complex diachronic evolution. Without any single person deciding, or any law passed, or amendment made to the constitution, we have transformed ourselves over but a few centuries from one struggling species among all the rest, to being planetary managers, now apparently exempted from the evolutionary struggle for survival with other species, with the fate of animals, birds, fish, plants, the atmosphere, and entire ecosystems in our hands. This Faustian power signals both our strength and vulnerability. We are dependent on the very ecosystems we dominate. That is, we have become carbon-dependent by choice, but we are ecosystem-dependent by necessity. We may all be supermen and wonderwomen relative to the poor powers of our forebears, but we still require food, clean water, and clean air. The billion or more people on earth currently not plugged into the carbon energy grid, and hence living in dire poverty, need no reminding of this fact. Many of us in the developed world do, however. Our civilization and lifestyles as human beings have changed beyond recognition, but our biological needs are no different from our species ancestors on the East African savannah a million years ago. In sum, the lesson of the Faust story is hubris. We are not exempt from natural laws, as Faust recklessly hoped.

To understand the impact of our fossil fuel based, industrialized society on the planet we inhabit requires we think on dual time scales. The first is easy enough, namely, the human scale of days and years. For example, consider the time it takes for liquid petroleum to be extracted from the earth, refined, transported to a gas station, and purchased by you in order to drive to school or the shopping Mall. Or the time it takes for that sweater you buy at the mall to be manufactured in China or Indonesia and transported thousands of miles to the shelf you grab it from. This is an oil-dependent process from beginning to end: from the petroleum-based fertilizers that maximized the productive efficiency of the cotton plantation, to powering the machinery in the factory, to the massive goods ship transporting your sweater across the oceans, to the lights in the store that illuminate your sweater at the precise angle for it to catch your eye.

Now consider the second time scale, to which we are usually oblivious—the thousands or millions of years it has taken for terrestrial carbon to form those reserves of liquid petroleum that brought you your sweater. This is a process describable only on a geological time scale, the costs of the disruption to which have been wholly omitted from the sticker price of the sweater. What are the environmental, and ultimately human costs that have been externalized? In powering our modern societies through the transference of the earth’s carbon reserves from long-term storage and depositing it in the atmosphere and oceans, we have significantly altered and destabilized the earth’s carbon cycle. There is now 40% more carbon in the atmosphere and oceans than in 1800, at the outset of the industrial age. The earth’s climate system is reacting accordingly, to accommodate the increased nonterrestrial carbon load. The result is altered weather patterns, increasing temperatures, glacial melt, and sharp increases in droughts, floods, and wildfires. The cost to the global economy of these climate disruptions this century has been projected in the trillions of dollars, even before we consider the human costs of climate change in mortality, homelessness, impoverishment, and social instability.

Extracting carbon from the earth, and transforming it into energy, fertilizers, and products has enabled an almost magical transformation of human lives on earth, as compared to those of our premodern ancestors. The house you live in, the clothes you wear, the food you eat, the gadgets you use, and all the dreams you dream for your future, are carbon-based dreams. These amazing fossil-fuel energy sources—oil, coal, gas—have created modernity itself: a crest of population growth, economic development, prosperity, health and longevity, pulling millions out of poverty, and promoting, life, liberty, and happiness. This modernity is truly a thing of wonder, involving the high-speed mass transport of people, goods, and information across the globe, day after day. Regardless of the season, it brings us apples from New Zealand, avocadoes from Mexico, and tomatoes that have traveled an average of 2000 miles to reach the “fresh produce” section of our supermarkets. Having bought our groceries for the week, we jump in our car and drive home. Because our species ancestors were both nomads and settlers, we love our cars and homes with equal passion. We value both mobility and rootedness. Done with roaming for the day, we cherish our indoor lives in atmospherically controlled environments: cool when hot outside, toasty when cold, light when dark, with digital devices plugged in and available 24/7. A miraculous lifestyle when one sits back to reflect, and all the result of ongoing carbon-intensive investments in human comfort and convenience.

But it is also a 200-year chemistry experiment, with our planet as the laboratory. We are carbon beings in our own molecular biology; we touch and smell it; we trade, transport, and spill it; we consume and dispose of it in the earth and air. Intensifying heat and storms and acidifying oceans are carbon’s elemental answer to the questions we have posed to the earth system’s resilience. Mother Nature is having her say, acting according to her nature, and prompting us now to act according to our own mostly forgotten natures—as beings dependent on our ecosystem habitat of sun, rain, soil, plants, and animals, with no special allowance beyond the sudden responsibility of reformed stewardship and management.

The 2010 BP oil spill in the Gulf of Mexico was a spectacular warning that the 200-year era of cheap fossil fuel energy is drawing to a close. With viable oil reserves likely to be exhausted in the next decade or so, and the dangers to global climate associated with continued reliance on coal and natural gas, the transition to a sustainable, low-carbon global economy—by means that do not impoverish billions of people in the process—looms as nothing less than the Great Cause of the 21 st century, and without doubt the greatest challenge humanity has faced in its long residence on earth. The stakes could not be higher for this task, which is of unprecedented scope and complexity. If enormous human and financial resources were expended in meeting the greatest challenges faced by the international community in the 20 th century—the defeat of fascism, and the hard-earned progress made against poverty and infectious diseases—then the low-carbon sustainability revolution of our century will require the same scale of resources and more. At present, however, only a tiny fraction of those resources have been committed.

Questions & Answers

A golfer on a fairway is 70 m away from the green, which sits below the level of the fairway by 20 m. If the golfer hits the ball at an angle of 40° with an initial speed of 20 m/s, how close to the green does she come?
Aislinn Reply
cm
tijani
what is titration
John Reply
what is physics
Siyaka Reply
A mouse of mass 200 g falls 100 m down a vertical mine shaft and lands at the bottom with a speed of 8.0 m/s. During its fall, how much work is done on the mouse by air resistance
Jude Reply
Can you compute that for me. Ty
Jude
what is the dimension formula of energy?
David Reply
what is viscosity?
David
what is inorganic
emma Reply
what is chemistry
Youesf Reply
what is inorganic
emma
Chemistry is a branch of science that deals with the study of matter,it composition,it structure and the changes it undergoes
Adjei
please, I'm a physics student and I need help in physics
Adjanou
chemistry could also be understood like the sexual attraction/repulsion of the male and female elements. the reaction varies depending on the energy differences of each given gender. + masculine -female.
Pedro
A ball is thrown straight up.it passes a 2.0m high window 7.50 m off the ground on it path up and takes 1.30 s to go past the window.what was the ball initial velocity
Krampah Reply
2. A sled plus passenger with total mass 50 kg is pulled 20 m across the snow (0.20) at constant velocity by a force directed 25° above the horizontal. Calculate (a) the work of the applied force, (b) the work of friction, and (c) the total work.
Sahid Reply
you have been hired as an espert witness in a court case involving an automobile accident. the accident involved car A of mass 1500kg which crashed into stationary car B of mass 1100kg. the driver of car A applied his brakes 15 m before he skidded and crashed into car B. after the collision, car A s
Samuel Reply
can someone explain to me, an ignorant high school student, why the trend of the graph doesn't follow the fact that the higher frequency a sound wave is, the more power it is, hence, making me think the phons output would follow this general trend?
Joseph Reply
Nevermind i just realied that the graph is the phons output for a person with normal hearing and not just the phons output of the sound waves power, I should read the entire thing next time
Joseph
Follow up question, does anyone know where I can find a graph that accuretly depicts the actual relative "power" output of sound over its frequency instead of just humans hearing
Joseph
"Generation of electrical energy from sound energy | IEEE Conference Publication | IEEE Xplore" ***ieeexplore.ieee.org/document/7150687?reload=true
Ryan
what's motion
Maurice Reply
what are the types of wave
Maurice
answer
Magreth
progressive wave
Magreth
hello friend how are you
Muhammad Reply
fine, how about you?
Mohammed
hi
Mujahid
A string is 3.00 m long with a mass of 5.00 g. The string is held taut with a tension of 500.00 N applied to the string. A pulse is sent down the string. How long does it take the pulse to travel the 3.00 m of the string?
yasuo Reply
Who can show me the full solution in this problem?
Reofrir Reply
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Source:  OpenStax, Sustainability: a comprehensive foundation. OpenStax CNX. Nov 11, 2013 Download for free at http://legacy.cnx.org/content/col11325/1.43
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