Nuclear Energy Quotes

Did you know that we're made up of the same matter as stars? We are nuclear energy exploding.

   “I have good news. The plan is a go. We can begin the project to get the nuclear energy discovery.

What is it that you contain? The dead. Time. Light patterns of millennia opening in your gut. Every minute, in each of you, a few million potassium atoms succumb to radioactive decay. The energy that powers these tiny atomic events has been locked inside potassium atoms ever since a star-sized bomb exploded nothing into being. Potassium, like uranium and radium, is a long-lived radioactive nuclear waste of the supernova bang that accounts for you. Your first parent was a star.

I think we're raising whole generations who regard facts as more or less optional. We have kids in elementary school who are being urged to take stands on political issues, to write letters to congressmen and presidents about nuclear energy. They're not a decade old, and they're being thrown these kinds of questions that can absorb the lifetime of a very brilliant and learned man. And they're being taught that it's important to have views, and they're not being taught that it's important to know what you're talking about. It's important to hear the opposite viewpoint, and more important to learn how to distinguish why viewpoint A and viewpoint B are different, and which one has the most evidence or logic behind it. They disregard that. They hear something, they hear some rhetoric, and they run with it.

You think man can destroy the planet? What intoxicating vanity. Let me tell you about our planet. Earth is four-and-a-half-billion-years-old. There's been life on it for nearly that long, 3.8 billion years. Bacteria first; later the first multicellular life, then the first complex creatures in the sea, on the land. Then finally the great sweeping ages of animals, the amphibians, the dinosaurs, at last the mammals, each one enduring millions on millions of years, great dynasties of creatures rising, flourishing, dying away -- all this against a background of continuous and violent upheaval. Mountain ranges thrust up, eroded away, cometary impacts, volcano eruptions, oceans rising and falling, whole continents moving, an endless, constant, violent change, colliding, buckling to make mountains over millions of years. Earth has survived everything in its time. It will certainly survive us. If all the nuclear weapons in the world went off at once and all the plants, all the animals died and the earth was sizzling hot for a hundred thousand years, life would survive, somewhere: under the soil, frozen in Arctic ice. Sooner or later, when the planet was no longer inhospitable, life would spread again. The evolutionary process would begin again. It might take a few billion years for life to regain its present variety. Of course, it would be very different from what it is now, but the earth would survive our folly, only we would not. If the ozone layer gets thinner, ultraviolet radiation sears the earth, so what? Ultraviolet radiation is good for life. It's powerful energy. It promotes mutation, change. Many forms of life will thrive with more UV radiation. Many others will die out. Do you think this is the first time that's happened? Think about oxygen. Necessary for life now, but oxygen is actually a metabolic poison, a corrosive glass, like fluorine. When oxygen was first produced as a waste product by certain plant cells some three billion years ago, it created a crisis for all other life on earth. Those plants were polluting the environment, exhaling a lethal gas. Earth eventually had an atmosphere incompatible with life. Nevertheless, life on earth took care of itself. In the thinking of the human being a hundred years is a long time. A hundred years ago we didn't have cars, airplanes, computers or vaccines. It was a whole different world, but to the earth, a hundred years is nothing. A million years is nothing. This planet lives and breathes on a much vaster scale. We can't imagine its slow and powerful rhythms, and we haven't got the humility to try. We've been residents here for the blink of an eye. If we're gone tomorrow, the earth will not miss us.

Chuck skipped through the rest of the preamble to the actual examples Spaceguard had chronicled: “On March 23rd, 1989, an asteroid designated Asteroid 1989FC missed hitting the Earth by six hours. This little jewel packed the energy of roughly a thousand of the most powerful nuclear bombs, and the human race became aware of it shortly after its closest approach. Had this celestial baseball been only six hours later most of the population of the Earth would have been eliminated with zero warning.” “In October of 1990, an asteroid that would have been considered very small, struck the Pacific Ocean. This little fellow only packed the energy of a small atomic bomb, about the same as the one that flattened Hiroshima, and if it had arrived a few hours later or earlier it could have easily struck a city rather than making a relatively harmless splash into the center of the ocean. Remember, relatively here, is just a comparative term.”   

Nuclear energy is a waste of time. They should go about harnessing the power of the unconscious when it is in the act of denying Death.

It's called the Infinity Effect.

I dispute the point that nuclear energy is 'clean' and 'cost-effective'. As I recall, when we first harnessed nuclear power it was to drop an atom bomb on a civilian population, not to save the environment. However, you must admit, the victors are never tried for war crimes.

The glass display cases had shown rock-throwers crafted by the Australian aborigines - like giant wooden shoehorns, they'd looked, but smoothed and carved and ornamented with the most painstaking care. In the 40,000 years since anatomically modern humans had migrated to Australia from Asia, nobody had invented the bow-and-arrow. It really made you appreciate how non-obvious was the idea of Progress. Why would you even think of Invention as something important, if all your history's heroic tales were of great warriors and defenders instead of Thomas Edison? How could anyone possibly have suspected, while carving a rock-thrower with painstaking care, that someday human beings would invent rocket ships and nuclear energy?

At that time my notions of nuclear power were utterly idyllic. At school and at the university we'd been taught that this was a magical factory that made "energy out of nothing," where people in white robes sat and pushed buttons. Chernobyl blew up when we weren't prepared.

About eighty thousand people were killed in Hiroshima and more than two thirds of the buildings were destroyed because 0.7 gram of uranium-235 was turned into pure energy. A dollar bill weighs more than that.

Smug respectability, like the poor, we've had with us always. Today, however, ... such obtuseness is an indulgence we can no longer afford. The computer, nuclear energy for better or worse, and sudden, simultaneous influences upon everyone's TV screen have raised the ante and the risk considerably.

Natural gas is highly explosive, invisible, poisonous, and odorless. Yet we accept natural gas, even though it kills not two but 400 Americans a year, because it was introduced before we got crazy about risk. We accept coal, even though mining it is nasty and filthy and kills dozens of people every year. By contrast, we're terrified of nuclear energy. Chernobyl, the worst nuclear power disaster ever, killed only 30 people. Some say the radiation may eventually kill others, but even if that's true, natural gas kills more people every year.

For nearly a century, the moral relativism of science has given faith-based religion--that great engine of ignorance and bigotry--a nearly uncontested claim to being the only universal framework for moral wisdom. As a result, the most powerful societies on early spend their time debating issues like gay marriage when they should be focused on problems like nuclear proliferation, genocide, energy security, climate change, poverty, and failing schools.

The frightening coincidence of the modern population explosion with the discovery of technical devices that, through automation, will make large sections of the population 'superfluous' even in terms of labor, and that, through nuclear energy, make it possible to deal with this twofold threat by the use of instruments beside which Hitler's gassing installations look like an evil child's fumbling toys, should be enough to make us tremble.

It seemed that the job continued. I suppose if you switch on your lights and boil your kettle with energy provided by a nuclear power station, you don’t spend much time reflecting on the fact that the atom had originally been split to kill cities.

If the existence of Nuclear weapons has taught us anything it would simply be that just because we possess powerful technologies, it does not necessarily mean that we should use them. Unfortunately, we are currently on course to learn similarly grave lessons from other devastating technologies such Genetically Modified Foods, Chemtrails and HAARP.

The explosive development of technology was analogous to the grown of cancer cells, and the results would be identical: the exhaustion of all sources of nourishment, the destruction of organs, and the final death of the host body. He advocated abolishing crude technologies such as fossil fuels and nuclear energy and keeping gentler technologies such as solar power and small-scale hydroelectric power.

Today, nothing is unusual about a scientific discovery's being followed soon after by a technical application: The discovery of electrons led to electronics; fission led to nuclear energy. But before the 1880's, science played almost no role in the advances of technology. For example, James Watt developed the first efficient steam engine long before science established the equivalence between mechanical heat and energy.

How Smart Is a Rock? To appreciate the feasibility of computing with no energy and no heat, consider the computation that takes place in an ordinary rock. Although it may appear that nothing much is going on inside a rock, the approximately 1025 (ten trillion trillion) atoms in a kilogram of matter are actually extremely active. Despite the apparent solidity of the object, the atoms are all in motion, sharing electrons back and forth, changing particle spins, and generating rapidly moving electromagnetic fields. All of this activity represents computation, even if not very meaningfully organized. We’ve already shown that atoms can store information at a density of greater than one bit per atom, such as in computing systems built from nuclear magnetic-resonance devices. University of Oklahoma researchers stored 1,024 bits in the magnetic interactions of the protons of a single molecule containing nineteen hydrogen atoms.51 Thus, the state of the rock at any one moment represents at least 1027 bits of memory.

Human bipolarity was both the binding force and the driving energy for all human behavior, from sonnets to nuclear equations. If any being thinks that human psychologists exaggerate on this point, let it search Terran patent offices, libraries, and art galleries for creations of eunuchs.

The scientist is not responsible for the laws of nature. It is his job to find out how these laws operate. It is the scientist’s job to find the ways in which these laws can serve the human will. However, it is not the scientist’s job to determine whether a hydrogen bomb should be constructed, whether it should be used, or how it should be used. This responsibility rests with the American people and with their chosen representatives.

The greatest danger invariably arises from the ruthless application, on a vast scale, of partial knowledge such as we are currently witnessing in the application of nuclear energy, of the new chemistry in agriculture, of transportation technology, and countless other things.

A nuclear reactor is a proposed "solution" to "the energy problem." But like all big-technological "solutions," this one "solves" a single problem by causing many... A garden, on the other hand, is a solution that leads to other solutions. It is a part of the limitless pattern of good health and good sense.

This heated (environmental) debate is fundamentally about numbers. How much energy could each source deliver, at what economic and social cost, and with what risks? But actual numbers are rarely mentioned. In public debates, people just say “Nuclear is a money pit” or “We have a huge amount of wave and wind.” The trouble with this sort of language is that it’s not sufficient to know that something is huge: we need to know how the one “huge” compares with another “huge,” namely our huge energy consumption. To make this comparison, we need numbers, not adjectives.

When the day comes that Tehran can announce its nuclear capability, every shred of international law will have been discarded. The mullahs have publicly sworn—to the United Nations and the European Union and the International Atomic Energy Agency—that they are not cheating. As they unmask their batteries, they will be jeering at the very idea of an 'international community.' How strange it is that those who usually fetishize the United Nations and its inspectors do not feel this shame more keenly.

When the wind of change blows, some build walls, others build windmills.” - Chinese Proverb.

There is nothing new about prophecies to the effect that the end of the world is near if we do not repent. What is new is that such a prophecy is now true, for two obvious reasons. First, nuclear weapons give us the means to wipe ourselves out quickly: no humans possessed this means before. Second, we already appropriate about forty per cent of the Earth’s net productivity (that is, the net energy captured from sunlight). With the world’s human population now doubling every forty-one years, we will soon have reached the biological limit to growth, at which point we will have to start fighting each other in deadly earnest for a slice of the world’s fixed pie of resources. In addition, given the present rate at which we are exterminating species, most of the world’s species will become extinct or endangered within the next century, but we depend on many species for our own life support.

I remembered some lines from the papers: our nuclear stations are absolutely safe, we could build one on Red Square, they're safer than samovars. They're like stars and we'll "light" the whole earth with them.

Issues of power, control, energy fuels, and political strength have become key themes in our current events. We have come a long way from iron spearheads to nuclear warheads, yet the disease of power used for control and domination has remained.

Survival is not a theory. In what way do I contribute to the subjugation of any part of those who I define as my people? Insight must illuminate the particulars of our lives: who labors to make the bread we waste, or the energy it takes to make nuclear poisons which will not biodegrade for one thousand years; or who goes blind assembling the microtransistors in our inexpensive calculators?

If you really want to be right (or at least improve the odds of being right), you have to start by acknowledging your fallibility, deliberately seeking out your mistakes, and figuring out what caused you to make them. This truth has long been recognized in domains where being right is not just a zingy little ego boost but a matter of real urgency: in transportation, industrial design, food and drug safety, nuclear energy, and so forth. When they are at their best, such domains have a productive obsession with error. They try to imagine every possible reason a mistake could occur, they prevent as many of them as possible, and they conduct exhaustive postmortems on the ones that slip through. By embracing error as inevitable, these industries are better able to anticipate mistakes, prevent them, and respond appropriately when those prevention efforts fail.

...a companion had seemed unnecessary fuel when her body still burned at the core, waiting to ignite. But now, with the wind blowing icicles through her [Kit] veins, it felt like she, too, was in the grave. All her nuclear energy had been snuffed like a match between the night's icy fingers.

It would be nice to think that the menacing aspects of North Korea were for display also, that the bombs and reactors were Potemkin showcases or bargaining chips. On the plane from Beijing I met a group of unsmiling Texan types wearing baseball caps. They were the 'in-country' team from the International Atomic Energy Agency, there to inspect and neutralize North Korea's plutonium rods. Not a nice job, but, as they say, someone has to do it. Speaking of the most controversial reactor at Yongbyon, one of the guys said, 'No sweat. She's shut down now.' Nice to know. But then, so is the rest of North Korean society shut down—animation suspended, all dead quiet on the set, endlessly awaiting not action (we hope) or even cameras, but light.

Many conscientious environmentalists are repelled by the word "abundance," automatically associating it with irresponsible consumerism and plundering of Earth's resources. In the context of grassroots frustration, insensitive enthusing about the potential for energy abundance usually elicits an annoyed retort. "We have to conserve." The authors believe the human family also has to _choose_. The people we speak with at the recycling depot or organic juice bar are for the most part not looking at the _difference_ between harmony-with-nature technologies and exploitative practices such as mountaintop coal mining. "Destructive" was yesterday's technology of choice. As a result, the words "science and technology" are repugnant to many of the people who passionately care about health, peace, justice and the biosphere. Usually these acquaintances haven't heard about the variety of constructive yet powerful clean energy technologies that have the potential to gradually replace oil and nuclear industries if allowed. Wastewater-into-energy technologies could clean up waterways and other variations solve the problem of polluting feedlots and landfills.

Every husband knows that nuclear energy is not the most powerful force on earth. It’s not even a close second. The most powerful and awesome force on earth is a woman’s emotions. Nothing can match it in sheer intensity and shocking impact. I truly believe that one twenty-minute outburst from a woman could power a small town for three days.

Zoe returned her attention to the map of southern Argentina on the computer. “What on earth could possibly be worth using that much nuclear power on? There’s nothing around there but mountains and sea.” “There’s guanacos,” Murray said helpfully. “What the heck’s a guanaco?” Zoe asked. “It’s a relative of the camel,” Murray explained. “It kind of looks like an anorexic llama. From what I understand, the pampas down there are full of them.” “And you think SPYDER wants to nuke them all?” Zoe said. “What good is a whole bunch of vaporized guanacos?” “Suppose they only nuked one,” Murray said ominously. “What if they focused all that nuclear energy on it? If a single irradiated iguana could turn into Godzilla, just imagine what a giant guanaco would look like. It’d be terrifying!” Zoe gave him a withering look. “The only terrifying thing about this plan is that you actually think it’s possible. Godzilla never existed!” “But maybe he could,” Murray countered. “Or worse . . . Guanacazilla!” He gave a roar that was probably supposed to be half llama, half monster, but it sounded more like an angry hamster. We all considered him for a moment. “Moving on,” Erica said. “Does anyone have a suggestion that isn’t completely idiotic?” “Ha ha,” Murray said petulantly. “You mock me now, but we’ll see who’s laughing when there’s a thirty-story guanaco running rampant through Buenos Aires.

Black holes were invented by J. Robert Oppenheimer and Hartland Snyder in 1939. Starting from Einstein's theory of general relativity, Oppenheimer and Snyder found solutions of Einstein's equations that described what happens to a massive star when it has exhausted its supplies of nuclear energy. The star collapses gravitationally and disappears from the visible universe, leaving behind only an intense gravitational field to mark its presence. The star remains in a state of permanent free fall, collapsing endlessly inward into the gravitational pit without ever reaching the bottom. This solution of Einstein's equations was profoundly novel. It has had enormous impact on the later development of astrophysics.

Atomic energy remained part of the world; it is a part of our lives even today, when 56 countries operate 240 nuclear reactors, and more still are used to power nuclear ships and submarines. Yet thanks to the radium girls, whose experiences led directly to the regulation of radioactive industries, atomic power is able to be operated, on the whole, in safety.

You never change things by fighting the existing reality. To change something, build a new model that makes the existing model obsolete.” - Buckminster Fuller

Fracking is different. The risks of any single well are tiny compared to a nuclear power plant. But several hundred wells? Several thousand?

as the high-energy rays and particles of alpha, beta, and gamma radiation snap strands of DNA, and the exposed cells start to die.

Here's five energy drinks, go clean the universe.

The Fukushima nuclear complex went on to become the worst man-made engineering disaster in all of human history, outside of war.

There’s guanacos,” Murray said helpfully. “What the heck’s a guanaco?” Zoe asked. “It’s a relative of the camel,” Murray explained. “It kind of looks like an anorexic llama. From what I understand, the pampas down there are full of them.” “And you think SPYDER wants to nuke them all?” Zoe said. “What good is a whole bunch of vaporized guanacos?” “Suppose they only nuked one,” Murray said ominously. “What if they focused all that nuclear energy on it? If a single irradiated iguana could turn into Godzilla, just imagine what a giant guanaco would look like. It’d be terrifying!” Zoe gave him a withering look. “The only terrifying thing about this plan is that you actually think it’s possible. Godzilla never existed!

A second key to deep decarbonization brings up an inconvenient truth for the traditional Green movement: nuclear power is the world’s most abundant and scalable carbon-free energy source.

In eight years alone—2010–2018—the DOE’s National Nuclear Security Administration collected enough material to make 160 nuclear bombs. The department trains every international atomic-energy inspector; if nuclear power plants around the world are not producing weapons-grade material on the sly by reprocessing spent fuel rods and recovering plutonium, it’s because of these people.

Castle Bravo had been built according to the “Teller-Ulam” scheme—named for its co-designers, Edward Teller and Stanislaw Ulam—which meant, unlike with the far less powerful atomic bomb, this hydrogen bomb had been designed to hold itself together for an extra hundred-millionth of a second, thereby allowing its hydrogen isotopes to fuse and create a chain reaction of nuclear energy, called fusion, producing a potentially infinite amount of power, or yield. “What this meant,” Freedman explains, was that there was “a one-in-one-million chance that, given how much hydrogen [is] in the earth’s atmosphere, when Castle Bravo exploded, it could catch the earth’s atmosphere on fire. Some scientists were extremely nervous. Some made bets about the end of the world.

The child affixes one of her little pictures to my refrigerator. She asks, Can you detect the radiation? There is a house, one tree, and grass in dark slashes. A sun shining. Beneath, in her child letters, she has written Chernobyl. At kindergarten they must be having nuclear energy week. One could look at the picture and say everything is in order. No, I say, I cannot see the radiation. The radiation poison, she says, sits inside the apple and the apple looks pretty. Then singsongs, Bury the apple and bury the shovel that buried the apple and put the apple-burier person in a closet forever. We are both thinking Then bury the burier. Both thinking of her picture with no people. The poison sits inside the people and the people still look pretty, she says.

Let us fool ourselves no longer. At the very moment Western nations, threw off the ancient regime of absolute government, operating under a once-divine king, they were restoring this same system in a far more effective form in their technology, reintroducing coercions of a military character no less strict in the organization of a factory than in that of the new drilled, uniformed, and regimented army. During the transitional stages of the last two centuries, the ultimate tendency of this system might b e in doubt, for in many areas there were strong democratic reactions; but with the knitting together of a scientific ideology, itself liberated from theological restrictions or humanistic purposes, authoritarian technics found an instrument at hand that h as now given it absolute command of physical energies of cosmic dimensions. The inventors of nuclear bombs, space rockets, and computers are the pyramid builders of our own age: psychologically inflated by a similar myth of unqualified power, boasting through their science of their increasing omnipotence, if not omniscience, moved by obsessions and compulsions no less irrational than those of earlier absolute systems: particularly the notion that the system itself must be expanded, at whatever eventual co st to life. Through mechanization, automation, cybernetic direction, this authoritarian technics has at last successfully overcome its most serious weakness: its original dependence upon resistant, sometimes actively disobedient servomechanisms, still human enough to harbor purposes that do not always coincide with those of the system. Like the earliest form of authoritarian technics, this new technology is marvellously dynamic and productive: its power in every form tends to increase without limits, in quantities that defy assimilation and defeat control, whether we are thinking of the output of scientific knowledge or of industrial assembly lines. To maximize energy, speed, or automation, without reference to the complex conditions that sustain organic life, have become ends in themselves. As with the earliest forms of authoritarian technics, the weight of effort, if one is to judge by national budgets, is toward absolute instruments of destruction, designed for absolutely irrational purposes whose chief by-product would be the mutilation or extermination of the human race. Even Ashurbanipal and Genghis Khan performed their gory operations under normal human limits. The center of authority in this new system is no longer a visible personality, an all-powerful king: even in totalitarian dictatorships the center now lies in the system itself, invisible but omnipresent: all its human components, even the technical and managerial elite, even the sacred priesthood of science, who alone have access to the secret knowledge by means of which total control is now swiftly being effected, are themselves trapped by the very perfection of the organization they have invented. Like the Pharoahs of the Pyramid Age, these servants of the system identify its goods with their own kind of well-being: as with the divine king, their praise of the system is an act of self-worship; and again like the king, they are in the grip of an irrational compulsion to extend their means of control and expand the scope of their authority. In this new systems-centered collective, this Pentagon of power, there is no visible presence who issues commands: unlike job's God, the new deities cannot be confronted, still less defied. Under the pretext of saving labor, the ultimate end of this technics is to displace life, or rather, to transfer the attributes of life to the machine and the mechanical collective, allowing only so much of the organism to remain as may be controlled and manipulated.

I seem to be a brief light that flashes but once in all the aeons of time—a rare, complicated, and all-too-delicate organism on the fringe of biological evolution, where the wave of life bursts into individual, sparkling, and multicolored drops that gleam for a moment only to vanish forever. Under such conditioning it seems impossible and even absurd to realize that myself does not reside in the drop alone, but in the whole surge of energy which ranges from the galaxies to the nuclear fields in my body. At this level of existence “I” am immeasurably old; my forms are infinite and their comings and goings are simply the pulses or vibrations of a single and eternal flow of energy.

The information technology revolution was not brought about only by the miniaturization of technologies. This was a transition from a supplier-centric, centralized information model to a user-centric, participatory information model.

One possibility is just to tag along with the fantasists in government and industry who would have us believe that we can pursue our ideals of affluence, comfort, mobility, and leisure indefinitely. This curious faith is predicated on the notion that we will soon develop unlimited new sources of energy: domestic oil fields, shale oil, gasified coal, nuclear power, solar energy, and so on. This is fantastical cause the basic cause of the energy crisis is not scarcity; it is moral ignorance and weakness of character. We don't know how to use energy, or what to use it for. And we cannot restrain ourselves. Our time is characterized as much by the abuse and waste of human energy as it is by the abuse and waste of fossil fuel energy. Nuclear power, if we are to believe its advocates, is presumably going to be well used by the same mentality that has egregiously devalued and misapplied man- and womanpower. If we had an unlimited supply of solar or wind power, we would use that destructively, too, for the same reasons.

Small quantities of non-weapons-grade radioactive plutonium can be used to power radioisotope thermoelectric generators (sensibly abbreviated as RTGs) for spacecraft that travel to the outer solar system, where the intensity of sunlight has diminished below the level usable by solar panels. One pound of plutonium will generate a half million kilowatt-hours of heat energy, enough to continuously power a household blender for a hundred years, or a human being for five times as long, if we ran on nuclear fuel instead of grocery-store food.

O. Hahn and F. Strassmann have discovered a new type of nuclear reaction, the splitting into two smaller nuclei of the nuclei of uranium and thorium under neutron bombardment. Thus they demonstrated the production of nuclei of barium, lanthanum, strontium, yttrium, and, more recently, of xenon and caesium. It can be shown by simple considerations that this type of nuclear reaction may be described in an essentially classical way like the fission of a liquid drop, and that the fission products must fly apart with kinetic energies of the order of hundred million electron-volts each.

The Austrian born Von Hayek has long been under the control of David Rockefeller, and Von Hayek theories have been fairly widely accepted in the United States for some time, especially in “conservative” circles. According to Von Hayek, a future United States economic platform must be based on (a) urban black markets, (b) small Hong Kong type industries utilizing sweatshop labor, (c) the tourist trade, (d) free enterprise zones where speculators can operate unhindered and where the drug trade can flourish, (e) the end of all industrial activity and (f) closing down of all nuclear energy plants.

These computer simulations try only to duplicate the interactions between the cortex and the thalamus. Huge chunks of the brain are therefore missing. Dr. [Dharmendra] Modha understands the enormity of his project. His ambitious research has allowed him to estimate what it would take to create a working model of the entire human brain, and not just a portion or a pale version of it, complete with all parts of the neocortex and connections to the senses. He envisions using not just a single Blue Gene computer [with over a hundred thousand processors and terabytes of RAM] but thousands of them, which would fill up not just a room but an entire city block. The energy consumption would be so great that you would need a thousand-megawatt nuclear power plant to generate all the electricity. And then, to cool off this monstrous computer so it wouldn't melt, you would need to divert a river and send it through the computer circuits. It is remarkable that a gigantic, city-size computer is required to simulate a piece of human tissue that weighs three pounds, fits inside your skull, raises your body temperature by only a few degrees, uses twenty watts of power, and needs only a few hamburgers to keep it going.

He knew that the Soviets were not likely to “take this great plunge.” He had not given up hope that in the distant future international controls could be achieved. In the meantime, he had reluctantly decided that the United States had to arm itself. This had led him to conclude—with considerable melancholy—that the principal job of the Atomic Energy Commission would be to “provide atomic weapons and good atomic weapons and many atomic weapons.” Having preached the necessity of international control and openness in 1946, Oppenheimer by 1947 was beginning to accept the idea of a defense posture supported by a multitude of nuclear weapons.

All these “ifs” fill our minds with anxious thoughts and make us wonder constantly what to do and what to say in case something should happen in the future. Much, if not most, of our suffering is connected with these preoccupations. Possible career changes, possible family conflicts, possible illnesses, possible disasters, and a possible nuclear holocaust make us anxious, fearful, suspicious, greedy, nervous, and morose. They prevent us from feeling a real inner freedom. Since we are always preparing for eventualities, we seldom fully trust the moment. It is no exaggeration to say that much human energy is invested in these fearful preoccupations.

He believed that technological progress was a disease in human society. The explosive development of technology was analogous to the growth of cancer cells, and the results would be identical: the exhaustion of all sources of nourishment, the destruction of organs, and the final death of the host body. He advocated abolishing crude technologies such as fossil fuels and nuclear energy and keeping gentler technologies such as solar power and small-scale hydroelectric power. He believed in the gradual de-urbanization of modern metropolises by distributing the population more evenly in self-sufficient small towns and villages. Relying on the gentler technologies, he would build a new agricultural society.

In the intricate and mutable space-time geometry at the black hole, in-falling matter and energy interacted with the virtualities of the vacuum in ways unknown to the flatter cosmos beyond it. Quasi-stable quantum states appeared, linked according to Schrodinger's wave functions and their own entanglement, more and more of them, intricacy compounding until it amounted to a set of codes. The uncertainty principle wrought mutations; variants perished or flourished; forms competed, cooperated, merged, divided, interacted; the patterns multiplied and diversified; at last, along one fork on a branch of the life tree, thought budded. That life was not organic, animal and vegetable and lesser kingdoms, growing, breathing, drinking, eating, breeding, hunting, hiding; it kindled no fires and wielded no tools; from the beginning, it was a kind of oneness. An original unity differentiated itself into countless avatars, like waves on a sea. They arose and lived individually, coalesced when they chose by twos or threes or multitudes, reemerged as other than they had been, gave themselves and their experiences back to the underlying whole. Evolution, history, lives eerily resembled memes in organic minds. Yet quantum life was not a series of shifting abstractions. Like the organic, it was in and of its environment. It acted to alter its quantum states and those around it: action that manifested itself as electronic, photonic, and nuclear events. Its domain was no more shadowy to it than ours is to us. It strove, it failed, it achieved. They were never sure aboardEnvoy whether they could suppose it loved, hated, yearned, mourned, rejoiced. The gap between was too wide for any language to bridge. Nevertheless they were convinced that it knew something they might as well call emotion, and that that included wondering.

His rationale was simple. Time was of the essence, and any bill that quickly set up legislation to oversee the domestic aspects of atomic energy would pave the way for the next step: an international agreement to ban nuclear weapons. Oppie had rapidly become a Washington insider—a cooperative and focused supporter of the Administration, guided by hope and sustained by naïveté.

Why trust this account when humanity has never been so rich, so healthy, so long-lived? When fewer die in wars and childbirth than ever before—and more knowledge, more truth by way of science, was never so available to us all? When tender sympathies—for children, animals, alien religions, unknown, distant foreigners—swell daily? When hundreds of millions have been raised from wretched subsistence? When, in the West, even the middling poor recline in armchairs, charmed by music as they steer themselves down smooth highways at four times the speed of a galloping horse? When smallpox, polio, cholera, measles, high infant mortality, illiteracy, public executions and routine state torture have been banished from so many countries? Not so long ago, all these curses were everywhere. When solar panels and wind farms and nuclear energy and inventions not yet known will deliver us from the sewage of carbon dioxide, and GM crops will save us from the ravages of chemical farming and the poorest from starvation? When the worldwide migration to the cities will return vast tracts of land to wilderness, will lower birth rates, and rescue women from ignorant village patriarchs? What of the commonplace miracles that would make a manual labourer the envy of Caesar Augustus: pain-free dentistry, electric light, instant contact with people we love, with the best music the world has known, with the cuisine of a dozen cultures? We’re bloated with privileges and delights, as well as complaints, and the rest who are not will be soon.

The half-life of a substance is the time it takes for it to lose one half of its initial value. In nuclear physics, it’s the time it takes for unstable atoms to lose energy by emitting radiation. In biology, it usually refers to the time it takes to eliminate half of a substance (water, alcohol, pharmaceuticals) from the body. In chemistry, it is the time required to convert one half or a reactant (hydrogen or oxygen, for example) to product (water). In love, it’s the amount of time it takes for lovers to feel half of what they once did. When Natasha thinks about love, this is what she thinks: nothing lasts forever. Like hydrogen-7 or lithium-5 or boron-7, love has an infinitesimally small half-life that decays to nothing. And when it’s gone, it’s like it was never there at all.

Three Moonie 65-megaton hydrogen bombs exploded nearly simultaneously at very high altitude. With no air around the bombs to absorb the initial blast of the explosions, and convert the energy into mechanical shock waves——all the nuclear energy blasted out in its electromagnetic form. It was a brutally intense pulse of Compton recoil electrons and photoelectrons that created huge electric and magnetic fields that were MURDER on sensitive electronic equipment at tremendous distances. The electro-magnetic fields, coupled with electric and computer systems, producing huge voltage spikes in the circuits and damaging current surges along all signal paths, fusing precision engineered memory and micro-boards and virtual drives and CPUs into fried silicon laced junk! Nanobots to Nanoscrap in Nanoseconds!

Based on these two successes, Pan’s opinions on social issues had grown more and more influential. He believed that technological progress was a disease in human society. The explosive development of technology was analogous to the growth of cancer cells, and the results would be identical: the exhaustion of all sources of nourishment, the destruction of organs, and the final death of the host body. He advocated abolishing crude technologies such as fossil fuels and nuclear energy and keeping gentler technologies such as solar power and small-scale hydroelectric power. He believed in the gradual de-urbanization of modern metropolises by distributing the population more evenly in self-sufficient small towns and villages. Relying on the gentler technologies, he would build a new agricultural society.

Since our civilization is irreversibly dependent on electronics, abolition of EMR is out of the question. However, as a first step toward averting disaster, we must halt the introduction of new sources of electromagnetic energy while we investigate the biohazards of those we already have with a completeness and honesty that have so far been in short supply. New sources must be allowed only after their risks have been evaluated on the basis of the knowledge acquired in such a moratorium. 
With an adequately funded research program, the moratorium need last no more than five years, and the ensuing changes could almost certainly be performed without major economic trauma. It seems possible that a different power frequency—say 400 hertz instead of 60—might prove much safer. Burying power lines and providing them with grounded shields would reduce the electric fields around them, and magnetic shielding is also feasible. 
A major part of the safety changes would consist of energy-efficiency reforms that would benefit the economy in the long run. These new directions would have been taken years ago but for the opposition of power companies concerned with their short-term profits, and a government unwilling to challenge them. It is possible to redesign many appliances and communications devices so they use far less energy. The entire power supply could be decentralized by feeding electricity from renewable sources (wind, flowing water, sunlight, georhermal and ocean thermal energy conversion, and so forth) into local distribution nets. This would greatly decrease hazards by reducing the voltages and amperages required. Ultimately, most EMR hazards could be eliminated by the development of efficient photoelectric converters to be used as the primary power source at each point of consumption. The changeover would even pay for itself, as the loss factors of long-distance power transmission—not to mention the astronomical costs of building and decommissioning short-lived nuclear power plants—were eliminated. Safety need not imply giving up our beneficial machines. 
Obviously, given the present technomilitary control of society in most parts of the world, such sane efficiency will be immensely difficult to achieve. Nevertheless, we must try. Electromagnetic energy presents us with the same imperative as nuclear energy: Our survival depends on the ability of upright scientists and other people of goodwill to break the military-industrial death grip on our policy-making institutions.

I feel like you're a pit I can't climb out of. The clawing and craning skyway to try and find some shred of light is so exhausting, and it's so much easier to let the ghost of your arms pull me down and down and down. If I let myself remember how you taste, my breath gets hard, my body heaves. If I let myself consider you inside me, I can't function. I don't know how I handed you this power, it makes me so insane that you have it. And I fucking know, I know it's probably just me and my own shit, that you don't have a damn thing to do with it. You're just some vessel holding all my sadness, glowing with the nuclear energy of my loneliness. If I try to imagine you letting me go, I don't feel free. I feel untethered, unbound. Like I'm nothing and nowhere. But if I imagine you holding me, I crumple. I'm running out of ways to exist.

The scale of the climate challenge is so vast that it cannot be met solely by grassroots groups and corporations, no matter how Green. The situation requires government fiat to set rules and enforce them. Specifically, the four major energy-using governments—the European Union, the United States, China, and India—have to get tough. If all four do the right thing, there’s hope. So far the European governments have led the way.

In order to verify the conservation of energy, we must be careful that we have not put any in or taken any out. Second, the energy has a large number of different forms, and there is a formula for each one. These are: gravitational energy, kinetic energy, heat energy, elastic energy, electrical energy, chemical energy, radiant energy, nuclear energy, mass energy. If we total up the formulas for each of these contributions, it will not change except for energy going in and out. It is important to realize that in physics today, we have no knowledge of what energy is. We do not have a picture that energy comes in little blobs of a definite amount. It is not that way. However, there are formulas for calculating some numerical quantity, and when we add it all together it gives "28"'—always the same number. It is an abstract thing in that it does not tell us the mechanism or the reasons for the various formulas.

The simplest form of nuclear reactor requires no equipment at all. If the right quantity of uranium 235 is gathered in the presence of a neutron moderator—water, for example, or graphite, which slows down the movement of the uranium neutrons so that they can strike one another—a self-sustaining chain reaction will begin, releasing molecular energy as heat. The ideal combination of circumstances required for such an event—a criticality—has even aligned spontaneously in nature: in ancient subterranean deposits of uranium found in the African nation of Gabon, where groundwater acted as a moderator. There, self-sustaining chain reactions began underground two billion years ago, producing modest quantities of heat energy—an average of around 100 kilowatts, or enough to light a thousand lightbulbs—and continued intermittently for as long as a million years, until the available water was finally boiled away by the heat of fission.

Support for a first strike extended far beyond the upper ranks of the U.S. military. Bertrand Russell—the British philosopher and pacifist, imprisoned for his opposition to the First World War—urged the western democracies to attack the Soviet Union before it got an atomic bomb. Russell acknowledged that a nuclear strike on the Soviets would be horrible, but “anything is better than submission.” Winston Churchill agreed, proposing that the Soviets be given an ultimatum: withdraw your troops from Germany, or see your cities destroyed. Even Hamilton Holt, lover of peace, crusader for world government, lifelong advocate of settling disputes through mediation and diplomacy and mutual understanding, no longer believed that sort of approach would work. Nuclear weapons had changed everything, and the Soviet Union couldn’t be trusted. Any nation that rejected U.N. control of atomic energy, Holt said, “should be wiped off the face of the earth with atomic bombs.

The amount of energy stored in all the fossil fuel on earth is negligible compared to the amount that the sun dispenses every day, free of charge. Only a tiny proportion of the sun’s energy reaches us, yet it amounts to 3,766,800 exajoules of energy each year (a joule is a unit of energy in the metric system, about the amount you expend to lift a small apple one yard straight up; an exajoule is a billion billion joules – that’s a lot of apples).2 All the world’s plants capture only about 3,000 of those solar exajoules through the process of photosynthesis.3 All human activities and industries put together consume about 500 exajoules annually, equivalent to the amount of energy earth receives from the sun in just ninety minutes.4 And that’s only solar energy. In addition, we are surrounded by other enormous sources of energy, such as nuclear energy and gravitational energy, the latter most evident in the power of the ocean tides caused by the moon’s pull on the earth.

The principal concern of a nuclear reactor - particularly an RBMK reactor, because of its graphite moderator - is that cooling water continuously flows into the core. Without it there could be an explosion or meltdown. Even if the reactor is shut down, the fuel within will still be generating decay heat, which would damage the core without further cooling. Pumps driving the flow of water rely on electricity generated by the plant’s own turbines, but in the event of a blackout the electrical supply can be switched to the national grid. If that fails, diesel generators on site will automatically start up to power the water pumps, but these take about 50 seconds to gather enough energy to operate the massive pumps. There are six emergency tanks containing a combined 250 tons of pressurised water which can be injected into the core within 3.5 seconds, but an RBMK reactor needs around 37,000 tons of water per hour - 10 tons-per-second - so 250 tons does not cover the 50 second gap.92

The object of the project,” Serber said, “is to produce a practical military weapon in the form of a bomb in which the energy is released by a fast-neutron chain reaction in one or more of the materials known to show nuclear fission.” Summarizing what Oppenheimer’s team had learned from their Berkeley summer sessions, Serber reported that by their calculations an atomic bomb might conceivably produce an explosion equivalent to 20,000 tons of TNT. Any such “gadget,” however, would need highly enriched

These fields, which govern the interaction of all subatomic particles, are now called Yang-Mills fields. However, the puzzle that has stumped physicists within this century is why the subatomic field equations look so vastly different from the field equations of Einstein-that is, why the nuclear force seems so different from gravity. Some of the greatest minds in physics have tackled this problem, only to fail. Perhaps the reason for their failure is that they were trapped by common sense. Confined to three or four dimensions, the field equations of the subatomic world and gravitation are difficult to unify. The advantage of the hyperspace theory is that the Yang-Mills field, Maxwell's field, and Einstein's field can all be placed comfortably within the hyperspace field. We see that these fields fit together precisely within the hyperspace field like pieces in a jig-saw puzzle. The other advantage of field theory is that it allows us to calculate the precise energies at which we can expect space and time to foem wormholes.

The solar virtuous cycle is in motion. The lower cost of solar leads to increased market adoption, and this, in turn, lowers the perceived risk and attracts more capital at a lower cost for capital. And this, in turn, lowers the cost of solar, which leads to increased market adoption, not to mention increased investment, more innovation, and even lower costs for capital. Once this virtuous cycle reaches critical mass, market growth will accelerate. Solar will become unstoppable and the incumbents will be disrupted.

Jesus calls us to … “hate” money, give it away to the poor, simplify our lives, practice universal love and compassion, and focus our attention, time, and energy on the God of love and peace. Of course,, this either/or teaching can be applied to all the consequences of the idolatry of money. Jesus could just as easily say: “You cannot serve both God and country. You cannot serve both God and war. You cannot serve both God and nuclear weapons. You cannot serve both the God of life and peace and the false gods of death and war. It’s one or the other.

The age of centralized, command-and-control, extraction-resource-based energy sources (oil, gas, coal and nuclear) will not end because we run out of petroleum, natural gas, coal, or uranium. It will end because these energy sources, the business models they employ, and the products that sustain them will be disrupted by superior technologies, product architectures, and business models. Compelling new technologies such as solar, wind, electric vehicles, and autonomous (self-driving) cars will disrupt and sweep away the energy industry as we know it.

Grover yelped. “Percy? Are you . . . um . . .” Crazy. Insane. Off my rocker. Probably. But I watched as Luke grasped the hilt. I stood before him—defenseless. He unlatched the side straps of his armor, exposing a small bit of his skin just under his left arm, a place that would be very hard to hit. With difficulty, he stabbed himself. It wasn’t a deep cut, but Luke howled. His eyes glowed like lava. The throne room shook, throwing me off my feet. An aura of energy surrounded Luke, growing brighter and brighter. I shut my eyes and felt a force like a nuclear explosion blister my skin and crack my lips.

An exploding nuclear bomb has a much higher power density than the sun because it is an unsustainable out-of-control flow of energy. A one-megaton nuclear bomb will release 1017 ergs, which is a lot of power. But the total lifetime of that explosion is only a hyperblink of 10-6 seconds. So if you “amortized” a nuclear blast so that it spent its energy over a full second instead of microseconds, its power density would be reduced to only 1011 ergs per second per gram, which is about the intensity of a laptop computer chip. Energywise, a Pentium chip may be better thought of as a very slow nuclear explosion.

One of the most impressive discoveries was the origin of the energy of the stars, that makes them continue to burn. One of the men who discovered this was out with his girl friend the night after he realized that nuclear reactions must be going on in the stars in order to make them shine. She said "Look at how pretty the stars shine!" He said "Yes, and right now I am the only man in the world who knows why they shine." She merely laughed at him. She was not impressed with being out with the only man who, at that moment, knew why stars shine. Well, it is sad to be alone, but that is the way it is in this world.

We cannot pick and choose whom among the oppressed it is convenient to support. We must stand with all the oppressed or none of the oppressed. This is a global fight for life against corporate tyranny. We will win only when we see the struggle of working people in Greece, Spain, and Egypt as our own struggle. This will mean a huge reordering of our world, one that turns away from the primacy of profit to full employment and unionized workplaces, inexpensive and modernized mass transit, especially in impoverished communities, universal single-payer health care and a banning of for-profit health care corporations. The minimum wage must be at least $15 an hour and a weekly income of $500 provided to the unemployed, the disabled, stay-at-home parents, the elderly, and those unable to work. Anti-union laws, like the Taft-Hartley Act, and trade agreements such as NAFTA, will be abolished. All Americans will be granted a pension in old age. A parent will receive two years of paid maternity leave, as well as shorter work weeks with no loss in pay and benefits. The Patriot Act and Section 1021 of the National Defense Authorization Act, which permits the military to be used to crush domestic unrest, as well as government spying on citizens, will end. Mass incarceration will be dismantled. Global warming will become a national and global emergency. We will divert our energy and resources to saving the planet through public investment in renewable energy and end our reliance on fossil fuels. Public utilities, including the railroads, energy companies, the arms industry, and banks, will be nationalized. Government funding for the arts, education, and public broadcasting will create places where creativity, self-expression, and voices of dissent can be heard and seen. We will terminate our nuclear weapons programs and build a nuclear-free world. We will demilitarize our police, meaning that police will no longer carry weapons when they patrol our streets but instead, as in Great Britain, rely on specialized armed units that have to be authorized case by case to use lethal force. There will be training and rehabilitation programs for the poor and those in our prisons, along with the abolition of the death penalty. We will grant full citizenship to undocumented workers. There will be a moratorium on foreclosures and bank repossessions. Education will be free from day care to university. All student debt will be forgiven. Mental health care, especially for those now caged in our prisons, will be available. Our empire will be dismantled. Our soldiers and marines will come home.

Nuclear power is a permanent disaster. Producing its uranium fuel is an environmental disaster - now tucked and folded over the horizon in mostly-poor countries where miners are paid $5 a day and unprotected against radiation. Building reactors is a financial disaster, always shifted to government subsidies. Waste disposal is both an environmental and economic disaster. When the fateful time comes to decommission the Doomsday Machines, after the easy 10-year life extensions run out, this is another economic disaster. But when a reactor becomes what it really is - the most massive Dirty Bomb you or Bin Laden (radhi Allah anhu) can imagine - the nuclear disaster will be hard to yank out of the media, quicktime, and carry on like nothing ever happened.

The men in grey were powerless to meet this challenge head-on. Unable to detach the children from Momo by bringing them under their direct control, they had to find some roundabout means of achieving the same end, and for this they enlisted the children's elders. Not all grown-ups made suitable accomplices, of course, but plenty did. [....] 'Something must be done,' they said. 'More and more kids are being left on their own and neglected. You can't blame us - parents just don't have the time these days - so it's up to the authorities.' Others joined in the chorus. 'We can't have all these youngsters loafing around, ' declared some. 'They obstruct the traffic. Road accidents caused by children are on the increase, and road accidents cost money that could be put to better use.' 'Unsupervised children run wild, declared others.'They become morally depraved and take to crime. The authorities must take steps to round them up. They must build centers where the youngsters can be molded into useful and efficient members of society.' 'Children,' declared still others, 'are the raw material for the future. A world dependent on computers and nuclear energy will need an army of experts and technicians to run it. Far from preparing children from tomorrow's world, we still allow too many of them to squander years of their precious time on childish tomfoolery. It's a blot on our civilization and a crime against future generations.' The timesavers were all in favor of such a policy, naturally, and there were so many of them in the city by this time that they soon convinced the authorities of the need to take prompt action. Before long, big buildings known as 'child depots' sprang up in every neighborhood. Children whose parents were too busy to look after them had to be deposited there and could be collected when convenient. They were strictly forbidden to play in the streets or parks or anywhere else. Any child caught doing so was immediately carted off to the nearest depot, and its parents were heavily fined. None of Momo's friends escaped the new regulation. They were split up according to districts they came from and consigned to various child depots. Once there, they were naturally forbidden to play games of their own devising. All games were selected for them by supervisors and had to have some useful, educational purpose. The children learned these new games but unlearned something else in the process: they forgot how to be happy, how to take pleasure in the little things, and last but not least, how to dream. Weeks passed, and the children began to look like timesavers in miniature. Sullen, bored and resentful, they did as they were told. Even when left to their own devices, they no longer knew what to do with themselves. All they could still do was make a noise, but it was an angry, ill-tempered noise, not the happy hullabaloo of former times. The men in grey made no direct approach to them - there was no need. The net they had woven over the city was so close-meshed as to seem inpenetrable. Not even the brightest and most ingenious children managed to slip through its toils. The amphitheater remained silent and deserted.

Christofilos’s theoretical Astrodome-like shield was the hoped-for result of exploding a large number of nuclear weapons in space as a means of defending against incoming Soviet ICBMs. By Christofilos’s count, this likely meant “thousands per year, in the lower reaches of the atmosphere.” These explosions, he said, would produce “huge quantities of radioactive atoms, and these in turn would emit high-energy electrons (beta particles) and inject them into a region of space where the earth’s magnetic fields would trap and hold on them for a long time.” Christofilos figured that this electromagnetic field could last months, or perhaps longer, and that “the trapped electrons would cause severe radiation—and even heat damage—to anything, man or nuclear weapon, that tried to fly through the region.” In short, the idea was that the arming and firing mechanisms on the incoming Soviet ICBMs would be fried.

How, then, can Apple claim to be 100 percent renewable? It purchases a fraudulent “100 percent renewable” status from electricity producers. The basic way this works is that Apple pays utilities to give it credit for the solar and wind that others use—and to give others the blame for the coal, gas, and nuclear that Apple uses. It’s as if Apple CEO Tim Cook were traveling with nine other people on a yacht powered 90 percent by diesel and 10 percent by a sail—and Cook claimed that he traveled just using the sail, while the others traveled using the diesel. This energy accounting fraud is shameful and destructive, because it leads us to think that we can have innovators like Apple without the uniquely cost-effective energy we get from fossil fuels. Even worse, leading company after leading company, including Facebook, Google, Bank of America, and Anheuser-Busch, is claiming to be 100 percent renewable.[18]

The universe appears to be a system of very low density wherever we look. This is no accident. The expansion of the Universe weds its size and age to the gravitational pull of the material that it contains. In order that a universe expands for long enough to allow the building blocks of life to form in the interiors of stars, by a sequence of nuclear reactions, it must be billions of years old. This means that it must be billions of light years in extent and possess a very small average density of matter and a very low temperature. The low temperature and energy of its material ensures that the sky is dark at night. Turn off our local Sun and there is just too little light around in the Universe to brighten the sky. The night is dark, interspersed only by pinpricks of starlight. Universes that contain life must be big and old, dark and cold. If our Universe was less of a vacuum it could not be an abode for living complexity.

When a perspective is integrated, it is accommodated by the intelligence of the body as a whole. The axis of that intelligence rests on the pelvic floor, informed by the world in ways that are utterly beyond the cause-and-effect logic of which our culture is so fond. In its function, the embodied center of being within us has many of the qualities of what physics has dubbed the quantum vacuum. As systems scientist Ervin Laszlo describes the quantum vacuum, it is the locus of a vast energy field that is neither classically electromagnetic nor gravitational, nor yet nuclear in nature. Instead, it is the originating source of the known electromagnetic, gravitational and nuclear forces and fields. It is the originating source of matter itself.197 The integrating genius of the pelvic intelligence is the quantum vacuum of the self: touched by the present, it receives into it all the perspectives of our living, and then rebirths them as the living sensitivities of the felt self, awakening it to the mutual awareness of reality. The

It is the nuclear "burning" of hydrogen which supplies the energy of the sun; the hydrogen is converted into helium. Furthermore, ultimately, the manufacture of various chemical elements proceeds in the centers of the stars, from hydrogen. The stuff of which we are made, was "cooked" once, in a star, and spit out. How do we know? Because there is a clue. The proportion of the different isotopes— how much C12 , how much C13 , etc., is something which is never changed by chemical reactions, because the chemical reactions are so much the same for the two. The proportions are purely the result of nuclear reactions. By looking at the proportions of the isotopes in the cold, dead ember which we are, we can discover what the furnace was like in which the stuff of which we are made was formed. That furnace was like the stars, and so it is very likely that our elements were "made" in the stars and spit out in the explosions which we call novae and super- novae. Astronomy is so close to physics that we shall study many astronomical things as we go along.

The 80/20 Rule It’s so easy to get things out of proportion, but luckily there are also some easy solutions. Whenever I have to compare lots of numbers and work out which are the most important, I use the simplest-ever thinking tool. I look for the largest numbers. That is all there is to the 80/20 rule. We tend to assume that all items on a list are equally important, but usually just a few of them are more important than all the others put together. Whether it is causes of death or items in a budget, I simply focus first on understanding those that make up 80 percent of the total. Before I spend time on the smaller ones, I ask myself: Where are the 80 percent? Why are these so big? What are the implications? For example, here’s a list of the world’s energy sources, in alphabetical order: biofuels, coal, gas, geothermal, hydro, nuclear, oil, solar, wind. Presented like that, they all seem equally important. If we instead sort them according to how many units of energy they generate for humanity, three outnumber all the rest, as this graph shows.

Timeline of History Years Before the Present 13.5 billion Matter and energy appear. Beginning of physics. Atoms and molecules appear. Beginning of chemistry. 4.5 billion Formation of planet Earth. 3.8 billion Emergence of organisms. Beginning of biology. 6 million Last common grandmother of humans and chimpanzees. 2.5 million Evolution of the genus Homo in Africa. First stone tools. 2 million Humans spread from Africa to Eurasia. Evolution of different human species. 500,000 Neanderthals evolve in Europe and the Middle East. 300,000 Daily usage of fire. 200,000 Homo sapiens evolves in East Africa. 70,000 The Cognitive Revolution. Emergence of fictive language. Beginning of history. Sapiens spread out of Africa. 45,000 Sapiens settle Australia. Extinction of Australian megafauna. 30,000 Extinction of Neanderthals. 16,000 Sapiens settle America. Extinction of American megafauna. 13,000 Extinction of Homo floresiensis. Homo sapiens the only surviving human species. 12,000 The Agricultural Revolution. Domestication of plants and animals. Permanent settlements. 5,000 First kingdoms, script and money. Polytheistic religions. 4,250 First empire – the Akkadian Empire of Sargon. 2,500 Invention of coinage – a universal money. The Persian Empire – a universal political order ‘for the benefit of all humans’. Buddhism in India – a universal truth ‘to liberate all beings from suffering’. 2,000 Han Empire in China. Roman Empire in the Mediterranean. Christianity. 1,400 Islam. 500 The Scientific Revolution. Humankind admits its ignorance and begins to acquire unprecedented power. Europeans begin to conquer America and the oceans. The entire planet becomes a single historical arena. The rise of capitalism. 200 The Industrial Revolution. Family and community are replaced by state and market. Massive extinction of plants and animals. The Present Humans transcend the boundaries of planet Earth. Nuclear weapons threaten the survival of humankind. Organisms are increasingly shaped by intelligent design rather than natural selection. The Future Intelligent design becomes the basic principle of life? Homo sapiens is replaced by superhumans?

Later, as I reflect on the situation, I realize that if the satellite had in fact hit us, we probably wouldn’t even have known it. When an aircraft flies into a mountain in bad weather, at five hundred miles per hour, there is little left to tell the story of what went wrong: this crash would have taken place at a speed seventy times that. When I used to work on investigations of aircraft mishaps as a Navy test pilot, I would sometimes reflect that a crew might never have known that anything had gone wrong. Misha, Gennady, and I would have gone from grumbling to one another in our cold Soyuz to being blasted in a million directions as diffused atoms, all in the space of a millisecond. Our neurological systems would not even have had time to process the incoming data into conscious thought. The energy involved in a collision between two large objects at 35,000 miles per hour would be similar to that of a nuclear bomb. I think of that time I almost flew an F-14 into the water and would have disappeared without a trace. I don’t know whether this comforts me or disturbs me.

In the late 1960's, physicists Steven Weinberg, Abdus Salam, and Sheldon Glashow conquered the next unification frontier. In a phenomenal piece of scientific work they showed that the electromagnetic and weak nuclear forces are nothing but different aspects of the same force, subsequently dubbed the electroweak force. The predictions of the new theory were dramatic. The electromagnetic force is produced when electrically charged particles exchange between them bundles of energy called photons. The photon is therefore the messenger of electromagnetism. The electroweak theory predicted the existence of close siblings to the photon, which play the messenger role for the weak force. These never-before-seen particles were prefigured to be about ninety times more massive than the proton and to come in both an electrically charged (called W) and a neutral (called Z) variety. Experiments performed at the European consortium for nuclear research in Geneva (known as CERN for Conseil Europeen pour la Recherche Nucleaire) discovered the W and Z particles in 1983 and 1984 respectively.

Managerial abilities, bureaucratic skills, technical expertise, and political talent are all necessary, but they can be applied only to goals that have already been defined by military policies, broad and narrow. And those policies can be only as good as strategy, operational art of war, tactical thought, and plain military craft that have gone into their making. At present, the defects of structure submerge or distort strategy and operational art, they out rightly suppress tactical ingenuity, and they displace the traditional insights and rules of military craft in favor of bureaucratic preferences, administrative convenience, and abstract notions of efficiency derived from the world of business management. First there is the defective structure for making of military decisions under the futile supervision of the civilian Defense Department; then come the deeply flawed defense policies and military choices, replete with unnecessary costs and hidden risks; finally there come the undoubted managerial abilities, bureaucratic skills, technical expertise, and political talents, all applied to achieve those flawed policies and to implement those flawed choices. By this same sequence was the fatally incomplete Maginot Line built, as were all the Maginot Lines of history, each made no better by good government, technical talent, careful accounting, or sheer hard work. Hence the futility of all the managerial innovations tried in the Pentagon over the years. In the purchasing of weapons, for example, “total package” procurement, cost plus incentive contracting, “firm fixed price” purchasing have all been introduced with much fanfare, only to be abandoned, retried, and repudiated once again. And each time a new Secretary of Defense arrives, with him come the latest batch of managerial innovations, many of them aimed at reducing fraud, waste, and mismanagement-the classic trio endlessly denounced in Congress, even though they account for mere percentage points in the total budget, and have no relevance at all to the failures of combat. The persistence of the Administrator’s Delusion has long kept the Pentagon on a treadmill of futile procedural “reforms” that have no impact at all on the military substance of our defense. It is through strategy, operational art, tactical ingenuity, and military craft that the large savings can be made, and the nation’s military strength greatly increased, but achieving long-overdue structural innovations, from the central headquarters to the combat forces, from the overhead of bases and installations to the current purchase of new weapons. Then, and only then, will it be useful to pursue fraud, waste, and mismanagement, if only to save a few dollars more after the billions have already been saved. At present, by contrast, the Defense Department administers ineffectively, while the public, Congress, and the media apply their energies to such petty matters as overpriced spare parts for a given device in a given weapon of a given ship, overlooking at the same time the multibillion dollar question of money spent for the Navy as a whole instead of the Army – whose weakness diminishes our diplomatic weight in peacetime, and which could one day cause us to resort to nuclear weapons in the face of imminent debacle. If we had a central military authority and a Defense Department capable of strategy, we should cheerfully tolerate much fraud, waste, and mismanagement; but so long as there are competing military bureaucracies organically incapable of strategic combat, neither safety nor economy will be ensured, even if we could totally eliminate every last cent of fraud, waste, and mismanagement.

Stars are bright, hot, rotating masses of gas which emit large quantities of light and heat as a result of nuclear reactions. Most newly-forming large stars begin to collapse under the weight of their own gravitational pull. That means that their centres are hotter and denser. When the matter in the centre of the star is sufficiently heated-when it reaches at least 10 million degrees Celsius (18 million degrees Fahrenheit)-nuclear reactions begin.56 What happens inside a star is that with enormous energy (fusion), hydrogen turns into helium. Nuclear fusion takes the particles that make up hydrogen and sticks them together to make helium (1 helium atom is made from 4 hydrogen atoms). In order to make the protons and neutrons in the helium stick together, the atom gives off tremendous energy. The energy released in the process is radiated from the surface of the star as light and heat. When the hydrogen is consumed, the star then begins to burn with helium, in exactly the same way, and heavier elements are formed. These reactions continue until the mass of the star has been consumed. However, since oxygen is not used in these reactions inside stars, the result is not ordinary combustion, such as that takes place when burning a piece of wood. The combustion seen as giant flames in stars does not actually derive from fire. Indeed, burning of just this kind is described in the verse. If one also thinks that the verse refers to a star, its fuel and combustion without fire, then one can also think that it is referring to the emission of light and mode of combustion in stars. (Allah knows best.)

HISTORICAL NOTE There are no nuclear power stations in Belarus. Of the functioning stations in the territory of the former USSR, the ones closest to Belarus are of the old Soviet-designed RBMK type. To the north, the Ignalinsk station, to the east, the Smolensk station, and to the south, Chernobyl. On April 26, 1986, at 1:23:58, a series of explosions destroyed the reactor in the building that housed Energy Block #4 of the Chernobyl Nuclear Power Station. The catastrophe at Chernobyl became the largest technological disaster of the twentieth century. For tiny Belarus (population: 10 million), it was a national disaster. During the Second World War, the Nazis destroyed 619 Belarussian villages along with their inhabitants. As a result of Chernobyl, the country lost 485 villages and settlements. Of these, 70 have been forever buried underground. During the war, one out of every four Belarussians was killed; today, one out of every five Belarussians lives on contaminated land. This amounts to 2.1 million people, of whom 700,000 are children. Among the demographic factors responsible for the depopulation of Belarus, radiation is number one. In the Gomel and Mogilev regions, which suffered the most from Chernobyl, mortality rates exceed birth rates by 20%. As a result of the accident, 50 million Ci of radionuclides were released into the atmosphere. Seventy percent of these descended on Belarus; fully 23% of its territory is contaminated by cesium-137 radionuclides with a density of over 1 Ci/km2. Ukraine on the other hand has 4.8% of its territory contaminated, and Russia, 0.5%. The area of arable land with a density of more than 1 Ci/km2 is over 18 million hectares; 2.4 thousand hectares have been taken out of the agricultural economy. Belarus is a land of forests. But 26% of all forests and a large part of all marshes near the rivers Pripyat, Dniepr, and Sozh are considered part of the radioactive zone. As a result of the perpetual presence of small doses of radiation, the number of people with cancer, mental retardation, neurological disorders, and genetic mutations increases with each year. —“Chernobyl.” Belaruskaya entsiklopedia On April 29, 1986, instruments recorded high levels of radiation in Poland, Germany, Austria, and Romania. On April 30, in Switzerland and northern Italy. On May 1 and 2, in France, Belgium, the Netherlands, Great Britain, and northern Greece. On May 3, in Israel, Kuwait, and Turkey. . . . Gaseous airborne particles traveled around the globe: on May 2 they were registered in Japan, on May 5 in India, on May 5 and 6 in the U.S. and Canada. It took less than a week for Chernobyl to become a problem for the entire world. —“The Consequences of the Chernobyl Accident in Belarus.” Minsk, Sakharov International College on Radioecology The fourth reactor, now known as the Cover, still holds about twenty tons of nuclear fuel in its lead-and-metal core. No one knows what is happening with it. The sarcophagus was well made, uniquely constructed, and the design engineers from St. Petersburg should probably be proud. But it was constructed in absentia, the plates were put together with the aid of robots and helicopters, and as a result there are fissures. According to some figures, there are now over 200 square meters of spaces and cracks, and radioactive particles continue to escape through them . . . Might the sarcophagus collapse? No one can answer that question, since it’s still impossible to reach many of the connections and constructions in order to see if they’re sturdy. But everyone knows that if the Cover were to collapse, the consequences would be even more dire than they were in 1986. —Ogonyok magazine, No. 17, April 1996

THEORY OF ALMOST EVERYTHING After the war, Einstein, the towering figure who had unlocked the cosmic relationship between matter and energy and discovered the secret of the stars, found himself lonely and isolated. Almost all recent progress in physics had been made in the quantum theory, not in the unified field theory. In fact, Einstein lamented that he was viewed as a relic by other physicists. His goal of finding a unified field theory was considered too difficult by most physicists, especially when the nuclear force remained a total mystery. Einstein commented, “I am generally regarded as a sort of petrified object, rendered blind and deaf by the years. I find this role not too distasteful, as it corresponds fairly well with my temperament.” In the past, there was a fundamental principle that guided Einstein’s work. In special relativity, his theory had to remain the same when interchanging X, Y, Z, and T. In general relativity, it was the equivalence principle, that gravity and acceleration could be equivalent. But in his quest for the theory of everything, Einstein failed to find a guiding principle. Even today, when I go through Einstein’s notebooks and calculations, I find plenty of ideas but no guiding principle. He himself realized that this would doom his ultimate quest. He once observed sadly, “I believe that in order to make real progress, one must again ferret out some general principle from nature.” He never found it. Einstein once bravely said that “God is subtle, but not malicious.” In his later years, he became frustrated and concluded, “I have second thoughts. Maybe God is malicious.” Although the quest for a unified field theory was ignored by most physicists, every now and then, someone would try their hand at creating one. Even Erwin Schrödinger tried. He modestly wrote to Einstein, “You are on a lion hunt, while I am speaking of rabbits.” Nevertheless, in 1947 Schrödinger held a press conference to announce his version of the unified field theory. Even Ireland’s prime minister, Éamon de Valera, showed up. Schrödinger said, “I believe I am right. I shall look an awful fool if I am wrong.” Einstein would later tell Schrödinger that he had also considered this theory and found it to be incorrect. In addition, his theory could not explain the nature of electrons and the atom. Werner Heisenberg and Wolfgang Pauli caught the bug too, and proposed their version of a unified field theory. Pauli was the biggest cynic in physics and a critic of Einstein’s program. He was famous for saying, “What God has torn asunder, let no man put together”—that is, if God had torn apart the forces in the universe, then who were we to try to put them back together?

Or think of the tale of the blind men who encounter an elephant for the first time. One wise man, touching the ear of the elephant, declares the elephant is flat and two-dimensional like a fan. Another wise man touches the tail and assumes the elephant is like rope or a one-dimensional string. Another, touching a leg, concludes the elephant is a three-dimensional drum or a cylinder. But actually, if we step back and rise into the third dimension, we can see the elephant as a three-dimensional animal. In the same way, the five different string theories are like the ear, tail, and leg, but we still have yet to reveal the full elephant, M-theory. Holographic Universe As we mentioned, with time new layers have been uncovered in string theory. Soon after M-theory was proposed in 1995, another astonishing discovery was made by Juan Maldacena in 1997. He jolted the entire physics community by showing something that was once considered impossible: that a supersymmetric Yang-Mills theory, which describes the behavior of subatomic particles in four dimensions, was dual, or mathematically equivalent, to a certain string theory in ten dimensions. This sent the physics world into a tizzy. By 2015, there were ten thousand papers that referred to this paper, making it by far the most influential paper in high-energy physics. (Symmetry and duality are related but different. Symmetry arises when we rearrange the components of a single equation and it remains the same. Duality arises when we show that two entirely different theories are actually mathematically equivalent. Remarkably, string theory has both of these highly nontrivial features.) As we saw, Maxwell’s equations have a duality between electric and magnetic fields—that is, the equations remain the same if we reverse the two fields, turning electric fields into magnetic fields. (We can see this mathematically, because the EM equations often contain terms like E2 + B2, which remain the same when we rotate the two fields into each other, like in the Pythagorean theorem). Similarly, there are five distinct string theories in ten dimensions, which can be proven to be dual to each other, so they are really a single eleven-dimensional M-theory in disguise. So remarkably, duality shows that two different theories are actually two aspects of the same theory. Maldacena, however, showed that there was yet another duality between strings in ten dimensions and Yang-Mills theory in four dimensions. This was a totally unexpected development but one that has profound implications. It meant that there were deep, unexpected connections between the gravitational force and the nuclear force defined in totally different dimensions. Usually, dualities can be found between strings in the same dimension. By rearranging the terms describing those strings, for example, we can often change one string theory into another. This creates a web of dualities between different string theories, all defined in the same dimension. But a duality between two objects defined in different dimensions was unheard of.