Electricity Provider Quotes

Close your eyes, Maxon." "What?" "Close your eyes. Somewhere in this palace, there is a woman who will be your wife. This girl? Imagine that she depends on you. She needs you to cherish her and make her feel like the Selection didn't even happen. Like if you were dropped in your own out in the middle of the country to wander around door to door, she's still the one you would have found. She was always the one you would have picked. She needs you to provide for her and protect her. And if it came to a point where there was absolutely nothing to eat, and you couldn't even fall asleep at night because the sound of her stomach growling kept you awake—" "Stop it!" "Sorry." "Is that really what it's like? Out there... does that happen? Are people hungry like that a lot?" "Maxon, I..." "Tell me the truth." "Yes. That happens. I know of families where people give up their share for their children or siblings. I know of a boy who was whipped in the town square for stealing food. Sometimes you do crazy things when you are desperate." "A boy? How old?" "Nine." "Have you ever been like that? Starving?...How bad?" "Maxon, it will only upset you more." "Probably, but I'm only starting to realize how much I don't know about my own country. Please." "We've been pretty bad. Most time if it gets to where we have to choose, we keep the food and lose electricity. The worst was when it happened near Christmas one year. May didn't understand why we couldn't exchange gifts. As a general rule, there are never any leftovers at my house. Someone always wants more. I know the checks we've gotten over the last few weeks have really helped, and my family is really smart about money. I'm sure they have already tucked it away so it will stretch out for a long time. You've done so much for us, Maxon." "Good God. When you said that you were only here for the food, you weren't kidding, were you?" "Really, Maxon, we've been doing pretty well lately. I—" "I'll see you at dinner.

Every time the wind blows I think of her. I wonder if I could generate electricity off my yearning. Maybe a mind wind farm of some kind. Hopefully I could provide enough power for all the lonely people in my bathtub to stay warm.

The essential difference with Builders is that they've found something to do that matters to them and are therefore so passionately engaged, they rise above the personality baggage that would otherwise hold them down. Whatever they are doing has so much meaning to them that the cause itself provides charisma and they plug into it as if it was electrical current.

The great paradox of the brain is that everything you know about the world is provided to you by an organ that has itself never seen that world. The brain exists in silence and darkness, like a dungeoned prisoner. It has no pain receptors, literally no feelings. It has never felt warm sunshine or a soft breeze. To your brain, the world is just a stream of electrical pulses, like taps of Morse code. And out of this bare and neutral information it creates for you—quite literally creates—a vibrant, three-dimensional, sensually engaging universe. Your brain is you. Everything else is just plumbing and scaffolding.

In 1965, a psychologist named Martin Seligman started shocking dogs. He was trying to expand on the research of Pavlov--the guy who could make dogs salivate when they heard a bell ring. Seligman wanted to head in the other direction, and when he rang his bell, instead of providing food, he zapped the dogs with electricity. To keep them still, he restrained them in a harness during the experiment. After they were conditioned, he put these dogs in a big box with a little fence dividing it into two halves. He figured if the dog rang the bell, it would hop over the fence to escape, but it didn't. It just sat there and braced itself. They decided to try shocking the dog after the bell. The dog still just sat there and took it. When they put a dog in the box that had never been shocked before or had previously been allowed to escape and tried to zap it--it jumped the fence. You are just like these dogs. If, over the course of your life, you have experienced crushing defeat or pummeling abuse or loss of control, you convince yourself over time that there is no escape, and if escape is offered, you will not act--you become a nihilist who trusts futility above optimism. Studies of the clinically depressed show that they often give in to defeat and stop trying. . . Any extended period of negative emotions can lead to you giving in to despair and accepting your fate. If you remain alone for a long time, you will decide loneliness is a fact of life and pass up opportunities to hang out with people. The loss of control in any situation can lead to this state. . . Choices, even small ones, can hold back the crushing weight of helplessness, but you can't stop there. You must fight back your behavior and learn to fail with pride. Failing often is the only way to ever get the things you want out of life. Besides death, your destiny is not inescapable.

And a single ton of raw uranium provides the same electricity as twenty thousand tons of black coal.

it’s called socialism. Or, for those who freak out at that word, like Americans or international capitalist success stories reacting allergically to that word, call it public utility districts. They are almost the same thing. Public ownership of the necessities, so that these are provided as human rights and as public goods, in a not-for-profit way. The necessities are food, water, shelter, clothing, electricity, health care, and education. All these are human rights, all are public goods, all are never to be subjected to appropriation, exploitation, and profit. It’s as simple as that.

Let anyone who believes that a high standard of living is the achievement of labor unions and government controls ask himself the following question: If one had a “time machine” and transported the united labor chieftains of America, plus three million government bureaucrats, back to the tenth century—would they be able to provide the medieval serf with electric light, refrigerators, automobiles, and television sets?

Even viewed conservatively, trees are worth far more than they cost to plant and maintain. The U.S. Forest Service's Center for Urban Forest Research found a ten-degree difference between the cool of a shaded park in Tucson and the open Sonoran desert. A tree planted in the right place, the center estimates, reduces the demand for air conditioning and can save 100 kilowatt hours in annual electrical use, about 2 to 8 percent of total use. Strategically planted trees can also shelter homes from wind, and in cold weather they can reduce heating fuel costs by 10 to 12 percent. A million strategically planted trees, the center figures, can save $10 million in energy costs. And trees increase property values, as much as 1 percent for each mature tree. These savings are offset somewhat by the cost of planting and maintaining trees, but on balance, if we had to pay for the services that trees provide, we couldn't afford them. Because trees offer their services in silence, and for free, we take them for granted.

The notion that we should promote “happy” or “humane” exploitation as “baby steps” ignores that welfare reforms do not result in providing significantly greater protection for animal interests; in fact, most of the time, animal welfare reforms do nothing more than make animal exploitation more economically productive by focusing on practices, such as gestation crates, the electrical stunning of chickens, or veal crates, that are economically inefficient in any event. Welfare reforms make animal exploitation more profitable by eliminating practices that are economically vulnerable. For the most part, those changes would happen anyway and in the absence of animal welfare campaigns precisely because they do rectify inefficiencies in the production process. And welfare reforms make the public more comfortable about animal exploitation. The “happy” meat/animal products movement is clear proof of that. We would never advocate for “humane” or "happy” human slavery, rape, genocide, etc. So, if we believe that animals matter morally and that they have an interest not only in not suffering but in continuing to exist, we should not be putting our time and energy into advocating for “humane” or “happy” animal exploitation.

EHMs provide favors. These take the form of loans to develop infrastructure—electric generating plants, highways, ports, airports, or industrial parks. A condition of such loans is that engineering and construction companies from our own country must build all these projects. In essence, most of the money never leaves the United States; it is simply transferred from banking offices in Washington to engineering offices in New York, Houston, or San Francisco. Despite the fact that the money is returned almost immediately to corporations that are members of the corporatocracy (the creditor), the recipient country is required to pay it all back, principal plus interest.

Malaka Nazli hadn’t simply been a place, I realized, but a state of mind. It was where you could find an extraordinary, breathtaking level of humanity. What it lacked in privacy, what it failed to provide by way of modern comforts—hot running water, showers, electric stoves, refrigerators, telephones—it more than made up for in mercy and compassion and tenderness and grace, those ethereal qualities that make and keep us human.

Here was a stupendous possibility of achievement. If we could produce electric effects of the required quality, this whole planet and the conditions of existence on it could be transformed. The sun raises the water of the oceans and winds drive it to distant regions where it remains in a state of most delicate balance. If it were in our power to upset it when and wherever desired, this mighty life-sustaining stream could be at will controlled. We could irrigate arid deserts, create lakes and rivers and provide motive power in unlimited amounts. This would be the most efficient way of harnessing the sun to the uses of man. The consummation depended on our ability to develop electric forces of the order of those in nature.

Heat flow analysis provides a simple rule of thumb: If an unused charger isn’t warm to the touch, it’s using less than a penny of electricity a day. For a small smartphone charger, if it’s not warm to the touch, it’s using less than a penny a year. This is true of almost any powered device.1

At one point in the story, following a brazen daytime bank robbery, Electro is shown escaping from the authorities by climbing up the side of a building, as easily as Spider-Man . . . we see one observer exclaim, "Look!! That strangely-garbed man is racing up the side of the building!" A second man on the street picks up the narrative: "He's holding on to the iron beams in the building by means of electric rays—using them like a magnet!! Incredible!" There are three feelings inspired by this scene. The first is wonder as to why people rarely use the phrase "strangely-garbed" anymore. The second is nostalgia for the bygone era when pedestrians would routinely narrate events occurring in front of them, providing exposition for any casual bystander. And the third is pleasure at the realization that Electro's climbing this building is actually a physically plausible use of his powers.

Prototypes of inventions that use novel combinations of resonance, magnetism, states of matter, certain geometries or inward swirling motion to unlock the secrets of universal energy have already been built. They provide proof of new or rediscovered principles. In many variations of these inventions, a small input triggers a disproportionately large output of useable power." "These energy converters don't violate any laws of physics if they simply tap into a previously unrecognized source of power - background space. A flow of energy from that source can continue day and night, whether or not the sun shines or the wind blows.

The lesson provided by Morse’s code is that it matters profoundly how one translates a message into electrical signals. This matter is at the very heart of communication theory.

France is the country most dependent on nuclear power, providing roughly 75% of its electricity through nuclear power plants, while America and Russia both hover around the 20% mark.

Envisioning fungi as nanoconductors in mycocomputers, Gorman (2003) and his fellow researchers at Northwestern University have manipulated mycelia of Aspergillus niger to organize gold into its DNA, in effect creating mycelial conductors of electrical potentials. NASA reports that microbiologists at the University of Tennessee, led by Gary Sayler, have developed a rugged biological computer chip housing bacteria that glow upon sensing pollutants, from heavy metals to PCBs (Miller 2004). Such innovations hint at new microbiotechnologies on the near horizon. Working together, fungal networks and environmentally responsive bacteria could provide us with data about pH, detect nutrients and toxic waste, and even measure biological populations.

She straightened up the trailer, ran the vacuum cleaner over the braided rug, spread a clean tablecloth and put fresh shelf paper in the kitchen cupboards. That was a little job. In the old days she would have stuffed the dirty paper in the stove and burned it. The electric stove was clean but it couldn’t dry socks, burn paper, raise bread or provide comfort. Cost money to run it. They called it progress.

Early June, Providence, Rhode Island, the sun up for almost two hours already, lighting up the pale bay and the smokestacks of the Narragansett Electric factory, rising like the sun on the Brown University seal emblazoned on all the pennants and banners draped up over campus, a sun with a sagacious face, representing knowledge. But this sun--the one over Providence--was doing the metaphorical sun one better, because the founders of the university, in their Baptist pessimism, had chosen to depict the light of knowledge enshrouded by clouds, indicating that ignorance had not yet been dispelled from the human realm, whereas the actual sun was just now fighting its way through cloud cover, sending down splintered beams of light and giving hope to the squadrons of parents, who'd been soaked and frozen all weekend, that the unseasonable weather might not ruin the day's activities.

The difference between the Platonic theory and the morphic-resonance hypothesis can be illustrated by analogy with a television set. The pictures on the screen depend on the material components of the set and the energy that powers it, and also on the invisible transmissions it receives through the electromagnetic field. A sceptic who rejected the idea of invisible influences might try to explain everything about the pictures and sounds in terms of the components of the set – the wires, transistors, and so on – and the electrical interactions between them. Through careful research he would find that damaging or removing some of these components affected the pictures or sounds the set produced, and did so in a repeatable, predictable way. This discovery would reinforce his materialist belief. He would be unable to explain exactly how the set produced the pictures and sounds, but he would hope that a more detailed analysis of the components and more complex mathematical models of their interactions would eventually provide the answer. Some mutations in the components – for example, by a defect in some of the transistors – affect the pictures by changing their colours or distorting their shapes; while mutations of components in the tuning circuit cause the set to jump from one channel to another, leading to a completely different set of sounds and pictures. But this does not prove that the evening news report is produced by interactions among the TV set’s components. Likewise, genetic mutations may affect an animal’s form and behaviour, but this does not prove that form and behaviour are programmed in the genes. They are inherited by morphic resonance, an invisible influence on the organism coming from outside it, just as TV sets are resonantly tuned to transmissions that originate elsewhere.

In 2018, nuclear power provided the highest share of electricity in France (about 72 percent), 50 percent in Hungary, Swiss reactors contributed 38 percent, and in South Korea it was 24 percent, while the share in the US was just below 20 percent.

The TV set shouted, “—duplicates the halcyon days of the pre-Civil War Southern states! Either as body servants or tireless field hands, the custom-tailored humanoid robot—designed specifically for YOUR UNIQUE NEEDS, FOR YOU AND YOU ALONE—given to you on your arrival absolutely free, equipped fully, as specified by you before your departure from Earth; this loyal, trouble-free companion in the greatest, boldest adventure contrived by man in modern history will provide—” It continued on and on.

[Life], electricity or fire. They are, all three, of the outer forces -- monsters of the void. Nothing we can do will create any one of them, our power is merely to be able, by providing the conditions, to make each one of them manifest to our physical senses. . . .

The railway station provided them all that they needed: flatulence-generating food, tea, water, paan, shelter, electricity, social intercourse, seating, mucky toilets—and drugs, coolies, women and children for sale at most reasonable prices. What more could a man ask for?

With the money my mother earned from selling cakes, my father cut a deal with Mangochi and bought one pail of maize. My mother took it to the mill, saved half the flour for us, and used the rest for more cakes. We did this every day, taking enough to eat and selling the rest. It was enough to provide our one blob of nsima each night, along with some pumpkin leaves. It was practically nothing, yet knowing it would be there somehow made the hunger less painful. "As long as we can stay in business," my father said, "we'll make it through. Our profit is that we live.

This is easy. I would like to see the development of fusion power to give an unlimited supply of clean energy, and a switch to electric cars. Nuclear fusion would become a practical power source and would provide us with an inexhaustible supply of energy, without pollution or global warming.

We forget just how painfully dim the world was before electricity. A candle—a good candle—provides barely a hundredth of the illumination of a single 100-watt lightbulb.* Open your refrigerator door and you summon forth more light than the total amount enjoyed by most households in the eighteenth century.

Prior to the 2011 Fukushima nuclear accident, nuclear power provided 30 percent of Japan’s electricity. By 2020, not much more than 5 percent of the country’s electricity came from nuclear. LNG, already significant for electric generation, filled much of the void—in 2020 responsible for almost 40 percent of its electricity generation.

So the much criticized food subsidy and employment guarantee for the poor and the unemployed cost about 1.14 per cent of GDP, whereas the cost of subsidizing electricity, fuel and fertilizers for the relatively better off is minimally 2.63 per cent, more than twice what is allocated to feed the poor and provide employment to the unemployed.

The EEG provided a record of rhythmic fluctuations in potential voltage over various parts of the head. Berger at first thought there was only one wave from the whole brain, but it soon became clear that the waves differed, depending on where the electrodes were put. Modern EEGs use as many as thirty-two separate channels, all over the head.

Yes, Doctor,' I said. 'In brief, your argument is that Life is a thing, state, fact, or element, call-it-what-you-like, which requires the Material through which to manifest itself, and that given the Material, plus the Conditions, the result is Life. In other words, that Life is an evolved product, manifested through Matter, and bred of Conditions - eh?' 'As we understand the word,' said the old Doctor. 'Though, mind you, there may be a third factor. But, in my heart, I believe that it is a matter of chemistry; Conditions and a suitable medium; but given the Conditions, the Brute is so almighty that it will seize upon anything through which to manifest itself. It is a Force generated by Conditions; but nevertheless this does not bring us one iota nearer to its explanation, any more than to the explanation of Electricity or Fire. They are, all three, of the Outer Forces - Monsters of the Void. Nothing we can do will create any one of them; our power is merely to be able, by providing the Conditions, to make each one of them manifest to our physical senses. Am I clear?' ("The Derelict")

What we found was that when people were pursuing leisure activities that were expensive in terms of the outside resources required—activities that demanded expensive equipment, or electricity, or other forms of energy measured in BTUs, such as power boating, driving, or watching television—they were significantly less happy than when involved in inexpensive leisure. People were happiest when they were just talking to one another, when they gardened, knitted, or were involved in a hobby; all of these activities require few material resources, but they demand a relatively high investment of psychic energy. Leisure that uses up external resources, however, often requires less attention, and as a consequence it generally provides less memorable rewards.

Radionics was conceived as a diagnostic and treatment technology at a time when modern electronic theory and biomedicine had not become the dominant sciences they are today. Early radionic devices incorporated the new discoveries of radio and electronics into their design. During that period, the functional assumptions of radionic technology did not seem as implausible as it does today. However, it wasn't long before radionics became outmoded and completely non-scientific. As Mizrach has noted, radionics continued to appropriate the methods of orthodox science into its design and terminology, making the probability of understanding what it could accomplish even more difficult to assess. I will examine this appropriation in a spirit of tolerance, given the state of electronics and medicine circa 1910, when radionics was first discovered. I will do so in order to shift the focus of this interesting technology from the scientific to the metaphysical, where the reader not limited by a need for scientific approval can evaluate it. My aim is to provide a reasonable means of evaluating radionic technology as an artistic methodology.

The city seemed untroubled by the war. Broadway—“the Great White Way,” so dubbed for its bright electric lighting—came brilliantly alight and alive each night, as always, although now with unexpected competition. A number of restaurants had begun providing lavish entertainment along with meals, even though they lacked theater licenses. The city was threatening a crackdown on these maverick “cabarets.

Anyone looking up from the dock saw only beauty, on a monumental scale, while on the far side of the ship men turned black with dust as they shoveled coal—5,690 tons in all—into the ship through openings in the hull called “side pockets.” The ship burned coal at all times. Even when docked it consumed 140 tons a day to keep furnaces hot and boilers primed and to provide electricity from the ship’s dynamo to power lights, elevators, and, very important, the Marconi transmitter, whose antenna stretched between its two masts. When the Lusitania was under way, its appetite for coal was enormous. Its 300 stokers, trimmers, and firemen, working 100 per shift, would shovel 1,000 tons of coal a day into its 192 furnaces to heat its 25 boilers and generate enough superheated steam to spin the immense turbines of its engines.

She straightened up the trailer, ran the vacuum cleaner over the braided rug, spread a clean tablecloth and put fresh shelf paper in the kitchen cupboards. That was a little job. In the old days she would have stuffed the dirty paper in the stove and burned it. The electric stove was clean but it couldn’t dry socks, burn paper, raise bread or provide comfort. Cost money to run it. They called it progress. By nine there was nothing

our safest bet is that the era of high-technology communication, in the beginning of which we are now immersed, will continue to develop and amplify. We may look forward to more numerous and more versatile communications satellites, laser beams replacing microwaves in space and providing millions of times as many audio and video channels, optical fibers carrying light replacing copper wires carrying electricity, and elaborate computerization making the world more responsive to our needs.

Turning off the electric light he continued the conversation with himself. It is the light of course but it is necessary that the place be clean and pleasant. You do not want music. Certainly you do not want music. Nor can you stand before a bar with dignity although that is all that is provided for these hours. What did he fear? It was not fear or dread. It was a nothing that he knew too well. It was all a nothing and a man was nothing too. It was only that and light was all it needed and a certain cleanness and order. Some lived in it and never felt it but he knew it all was nada y pues nada y nada y pues nada. Our nada who art in nada, nada be thy name thy kingdom nada thy will be nada in nada as it is in nada. Give us this nada our daily nada and nada us our nada as we nada our nadas and nada us not into nada but deliver us from nada; pues nada. Hail nothing full of nothing, nothing is with thee. He smiled and stood before a bar with a shining steam pressure coffee machine.

This is true of any device that uses power, which is a handy thing to know. For example, people worry about leaving disconnected chargers plugged into the wall for fear that they’re draining power. Are they right? Heat flow analysis provides a simple rule of thumb: If an unused charger isn’t warm to the touch, it’s using less than a penny of electricity a day. For a small smartphone charger, if it’s not warm to the touch, it’s using less than a penny a year. This is true of almost any powered device.

Buchanan took pride in what he called his academic entrepreneurship. Contributions from corporations such as General Electric and several oil companies and right-wing individuals flowed in, as anti–New Deal foundations provided funds to lure promising graduate students.53 Before long, the cofounders of the center were able to seize an opportunity to prove their enterprise’s value to the Byrd Organization on the issue that mattered most to its stalwarts in these years: the future of the public schools.

I once read the most widely understood word in the whole world is ‘OK’, followed by ‘Coke’, as in cola. I think they should do the survey again, this time checking for ‘Game Over’. Game Over is my favorite thing about playing video games. Actually, I should qualify that. It’s the split second before Game Over that’s my favorite thing. Streetfighter II - an oldie but goldie - with Leo controlling Ryu. Ryu’s his best character because he’s a good all-rounder - great defensive moves, pretty quick, and once he’s on an offensive roll, he’s unstoppable. Theo’s controlling Blanka. Blanka’s faster than Ryu, but he’s really only good on attack. The way to win with Blanka is to get in the other player’s face and just never let up. Flying kick, leg-sweep, spin attack, head-bite. Daze them into submission. Both players are down to the end of their energy bars. One more hit and they’re down, so they’re both being cagey. They’re hanging back at opposite ends of the screen, waiting for the other guy to make the first move. Leo takes the initiative. He sends off a fireball to force Theo into blocking, then jumps in with a flying kick to knock Blanka’s green head off. But as he’s moving through the air he hears a soft tapping. Theo’s tapping the punch button on his control pad. He’s charging up an electricity defense so when Ryu’s foot makes contact with Blanka’s head it’s going to be Ryu who gets KO’d with 10,000 volts charging through his system. This is the split second before Game Over. Leo’s heard the noise. He knows he’s fucked. He has time to blurt ‘I’m toast’ before Ryu is lit up and thrown backwards across the screen, flashing like a Christmas tree, a charred skeleton. Toast. The split second is the moment you comprehend you’re just about to die. Different people react to it in different ways. Some swear and rage. Some sigh or gasp. Some scream. I’ve heard a lot of screams over the twelve years I’ve been addicted to video games. I’m sure that this moment provides a rare insight into the way people react just before they really do die. The game taps into something pure and beyond affectations. As Leo hears the tapping he blurts, ‘I’m toast.’ He says it quickly, with resignation and understanding. If he were driving down the M1 and saw a car spinning into his path I think he’d in react the same way. Personally, I’m a rager. I fling my joypad across the floor, eyes clenched shut, head thrown back, a torrent of abuse pouring from my lips. A couple of years ago I had a game called Alien 3. It had a great feature. When you ran out of lives you’d get a photo-realistic picture of the Alien with saliva dripping from its jaws, and a digitized voice would bleat, ‘Game over, man!’ I really used to love that.

In the Negev in Israel, Israeli authorities have refused to legally recognize 35 Palestinian Bedouin communities, making it impossible for their 90,000 or so residents to live lawfully in the communities they have lived in for decades. Instead, authorities have sought to concentrate Bedouin communities in larger recognized townships in order, as expressed in governmental plans and statements by officials, to maximize the land available for Jewish communities. Israeli law considers all buildings in these unrecognized villages to be illegal, and authorities have refused to connect most to the national electricity or water grids or to provide even basic infrastructure such as paved roads or sewage systems. The communities do not appear on official maps, most have no educational facilities, and residents live under constant threat of having their homes demolished. Israeli authorities demolished more than 10,000 Bedouin homes in the Negev between 2013 and 2019, according to government data. They razed one unrecognized village that challenged the expropriation of its lands, al-Araqib, 185 times.

Humans think they’re in control, but cats and dogs seem to have humanity well-trained. Dawn’s cat gets fed twice a day, his kitty litter is changed, and he gets to sit on her lap, purring while she watches television. Is that what life is like for AI? Humans care for their computer servers, provide them with electricity and play with them, but instead of dangling a toy on a string, it’s an electronic task that needs to be accomplished. Or is it humanity that’s the cat? Maybe, one day, when artificial intelligence achieves actual sentience, it’ll be humans that become pets.

I used to be like that once. I never gave anybody a second chance. It’s a very sad way to live your life.” “Do you believe the dragons should provide patternform technology to humans?” “Yes, I do. Denise is convinced that because we didn’t create it for ourselves we won’t be able to handle it properly, that it will be constantly misused. To me it’s completely irrelevant that we didn’t work out every little detail for ourselves.” “Why?” “Other than pride? We know the scientific principles behind technology. If we don’t understand this particular theory, I trust in us to learn it soon enough. There’s very little we can’t grasp once it’s fully explained and broken down into its basic equations. But that’s just the clinical analysis. From a moral point of view, consider this: when the Americans first sent a man to the Moon, there were people living in Africa and South America and Asia who had never seen a lightbulb, or known of electricity or antibiotics. There were even Americans who didn’t have running water to their houses, or an indoor toilet. Does that mean they shouldn’t have been given access to electricity or modern medicine, because they personally didn’t invent it? It might not have been their local community’s knowledge, but it was human knowledge. We don’t have a clue how to build the nullvoid drive that the Ring Empire’s Outbounds employed in their intergalactic ships, but the knowledge is there, developed by sentient entities. Why shouldn’t we have access to that? Because it’s a shortcut? Because we don’t have to spend centuries of time developing it for ourselves? In what way will using ideas other than our own demean and diminish us? All knowledge should be cherished, not denied.” “I believe you would make an excellent dragon, Lawrence.” A

Scientists tell us that rats, if deprived of toys and fellow rats, will give themselves painful electric shocks rather than endure prolonged boredom. Even this electric shock self-torture can provide some pleasure, it seems: the anticipation of torment is exciting in itself, and then there’s the thrill that accompanies risky behaviour. But more importantly, rats will do almost anything to create events for themselves in an otherwise eventless time-space. So will people: we not only like our plots, we need our plots, and to some extent we are our plots. A story-of-my-life without a story is not a life.

And this is one of the first things one learns from Musk’s example—he is relentless in his pursuit of the bold and, the bigger point, totally unfazed by scale. When he couldn’t get a job, he started a company. When Internet commerce stalled, he reinvented banking. When he couldn’t find decent launch services for his Martian greenhouse, he went into the rocket business. And as a kicker, because he never lost interest in the problem of energy, he started both an electric car and a solar energy company. It is also worth pointing out that Tesla is the first successful car company started in America in five decades and that SolarCity has become one of the nation’s largest residential solar providers.9 All told, in slightly less than a dozen years, Musk’s appetite for bold has created an empire worth about $30 billion.10 So what’s his secret? Musk has a few, but none are more important to him than passion and purpose. “I didn’t go into the rocket business, the car business, or the solar business thinking this is a great opportunity. I just thought, in order to make a difference, something needed to be done. I wanted to have an impact. I wanted to create something substantially better than what came before.

Countries measured their success by the size of their territory, the increase in their population and the growth of their GDP – not by the happiness of their citizens. Industrialised nations such as Germany, France and Japan established gigantic systems of education, health and welfare, yet these systems were aimed to strengthen the nation rather than ensure individual well-being. Schools were founded to produce skilful and obedient citizens who would serve the nation loyally. At eighteen, youths needed to be not only patriotic but also literate, so that they could read the brigadier’s order of the day and draw up tomorrow’s battle plans. They had to know mathematics in order to calculate the shell’s trajectory or crack the enemy’s secret code. They needed a reasonable command of electrics, mechanics and medicine in order to operate wireless sets, drive tanks and take care of wounded comrades. When they left the army they were expected to serve the nation as clerks, teachers and engineers, building a modern economy and paying lots of taxes. The same went for the health system. At the end of the nineteenth century countries such as France, Germany and Japan began providing free health care for the masses. They financed vaccinations for infants, balanced diets for children and physical education for teenagers. They drained festering swamps, exterminated mosquitoes and built centralised sewage systems. The aim wasn’t to make people happy, but to make the nation stronger. The country needed sturdy soldiers and workers, healthy women who would give birth to more soldiers and workers, and bureaucrats who came to the office punctually at 8 a.m. instead of lying sick at home. Even the welfare system was originally planned in the interest of the nation rather than of needy individuals. When Otto von Bismarck pioneered state pensions and social security in late nineteenth-century Germany, his chief aim was to ensure the loyalty of the citizens rather than to increase their well-being. You fought for your country when you were eighteen, and paid your taxes when you were forty, because you counted on the state to take care of you when you were seventy.30 In 1776 the Founding Fathers of the United States established the right to the pursuit of happiness as one of three unalienable human rights, alongside the right to life and the right to liberty. It’s important to note, however, that the American Declaration of Independence guaranteed the right to the pursuit of happiness, not the right to happiness itself. Crucially, Thomas Jefferson did not make the state responsible for its citizens’ happiness. Rather, he sought only to limit the power of the state.

In 1976, while involved in research at the New York Public Library, I stumbled upon a strange text entitled Return of the Dove which claimed that there was a man not born of this planet who landed as a baby in the mountains of Croatia in 1856. Raised by “earth parents,” an avatar had arrived for the sole purpose of inaugurating the New Age. By providing humans with a veritable cornucopia of inventions, he had created, in essence, the technological backbone of the modern era.1 His name was Nikola Tesla, and his inventions included the induction motor, the electrical-power distribution system, fluorescent and neon lights, wireless communication, remote control, and robotics.

About his madmen Mr. Lecky was no more certain. He knew less than the little to be learned of the causes or even of the results of madness. Yet for practical purposes one can imagine all that is necessary. As long as maniacs walk like men, you must come close to them to penetrate so excellent a disguise. Once close, you have joined the true werewolf. Pick for your companion a manic-depressive, afflicted by any of the various degrees of mania - chronic, acute, delirious. Usually more man than wolf, he will be instructive. His disorder lies in the very process of his thinking, rather than in the content of his thought. He cannot wait a minute for the satisfaction of his fleeting desires or the fulfillment of his innumerable schemes. Nor can he, for two minutes, be certain of his intention or constant in any plan or agreement. Presently you may hear his failing made manifest in the crazy concatenation of his thinking aloud, which psychiatrists call "flight of ideas." Exhausted suddenly by this riotous expense of speech and spirit, he may subside in an apathy dangerous and morose, which you will be well advised not to disturb. Let the man you meet be, instead, a paretic. He has taken a secret departure from your world. He dwells amidst choicest, most dispendious superlatives. In his arm he has the strength to lift ten elephants. He is already two hundred years old. He is more than nine feet high; his chest is of iron, his right leg is silver, his incomparable head is one whole ruby. Husband of a thousand wives, he has begotten on them ten thousand children. Nothing is mean about him; his urine is white wine; his faeces are always soft gold. However, despite his splendor and his extraordinary attainments, he cannot successfully pronounce the words: electricity, Methodist Episcopal, organization, third cavalry brigade. Avoid them. Infuriated by your demonstration of any accomplishment not his, he may suddenly kill you. Now choose for your friend a paranoiac, and beware of the wolf! His back is to the wall, his implacable enemies are crowding on him. He gets no rest. He finds no starting hole to hide him. Ten times oftener than the Apostle, he has been, through the violence of the unswerving malice which pursues him, in perils of waters, in perils of robbers, in perils of his own countrymen, in perils by the heathen, in perils in the city, in perils in the wilderness, in perils in the sea, in perils among false brethren, in weariness and painfulness, in watchings often, in hunger and thirst, in fastings often, in cold and nakedness. Now that, face to face with him, you simulate innocence and come within his reach, what pity can you expect? You showed him none; he will certainly not show you any. Lighten our darkness, we beseech thee, 0 Lord; and by thy great mercy defend us from all the perils and dangers of this night; for the love of thy only Son, our Saviour, Jesus Christ. Amen. Mr. Lecky's maniacs lay in wait to slash a man's head half off, to perform some erotic atrocity of disembowelment on a woman. Here, they fed thoughtlessly on human flesh; there, wishing to play with him, they plucked the mangled Tybalt from his shroud. The beastly cunning of their approach, the fantastic capriciousness of their intention could not be very well met or provided for. In his makeshift fort everywhere encircled by darkness, Mr. Lecky did not care to meditate further on the subject.

Enviva used impact quantification in its introduction and later under its climate change theme. It makes the point that it has avoided the release of 31 million metric tons of carbon dioxide equivalent emissions since its inception and equates them to four equivalent metrics. 3.5 billion gallons of gasoline not consumed. 34.5 billion pounds of coal not burned. 72.4 million barrels of oil not consumed. 5.3 million homes not using electricity for one year. This use of impacts is part of the straight line it draws from the 16 million metric tons of coal displaced to the avoided emissions and the equivalent measures. All of this illustrates its role in providing biomass to help customers reduce their carbon footprint.

Facebook’s “Like” feature, some version of which now exists on every platform, is the equivalent of a car battery hooked up to that sociometer. It gives whoever controls the electric jolts tremendous power over our behavior. It’s not just that “likes” provide the social validation we spend so much of our energy pursuing; it’s that they offer it at an immediacy and scale heretofore unknown in the human experience. Off-line, explicit validation is relatively infrequent. Even rarer is hearing it announced publicly, which is the most powerful form of approval because it conveys our value to the broader community. When’s the last time fifty, sixty, seventy people publicly applauded you off-line? Maybe once every few years—if ever? On social media, it’s a normal morning. Further,

Her body swelled and stilled. There would be a moment when she would breathe for the last time. An exhalation. There would be that moment, her prize of air, her still lake, her sweet boat floating away away, her body warping wood, swale and heavy, a sinking thing. He sat beside her, a helpless observer, his only power in witness, some bleak ability to watch and record the event in his own brain, which sent the order to his lungs to breathe with her while she still breathed, channels rising, sparks of interior electrical connection fading with the mind's fool hope that it could create some kind of measurable response, to provide some worth of warmth. Her body beside his, swell and still. He thought of her still. He thought of holding her absolutely still. He loved, he loved her. He loved her, still.

The former South African archbishop Desmond Tutu used to famously say, “We are prisoners of hope.” Such a statement might be taken as merely rhetorical or even eccentric if you hadn’t seen Bishop Tutu stare down the notorious South African Security Police when they broke into the Cathedral of St. George’s during his sermon at an ecumenical service. I was there and have preached about the dramatic story of his response more times than I can count. The incident taught me more about the power of hope than any other moment of my life. Desmond Tutu stopped preaching and just looked at the intruders as they lined the walls of his cathedral, wielding writing pads and tape recorders to record whatever he said and thereby threatening him with consequences for any bold prophetic utterances. They had already arrested Tutu and other church leaders just a few weeks before and kept them in jail for several days to make both a statement and a point: Religious leaders who take on leadership roles in the struggle against apartheid will be treated like any other opponents of the Pretoria regime. After meeting their eyes with his in a steely gaze, the church leader acknowledged their power (“You are powerful, very powerful”) but reminded them that he served a higher power greater than their political authority (“But I serve a God who cannot be mocked!”). Then, in the most extraordinary challenge to political tyranny I have ever witnessed, Archbishop Desmond Tutu told the representatives of South African apartheid, “Since you have already lost, I invite you today to come and join the winning side!” He said it with a smile on his face and enticing warmth in his invitation, but with a clarity and a boldness that took everyone’s breath away. The congregation’s response was electric. The crowd was literally transformed by the bishop’s challenge to power. From a cowering fear of the heavily armed security forces that surrounded the cathedral and greatly outnumbered the band of worshipers, we literally leaped to our feet, shouted the praises of God and began…dancing. (What is it about dancing that enacts and embodies the spirit of hope?) We danced out of the cathedral to meet the awaiting police and military forces of apartheid who hardly expected a confrontation with dancing worshipers. Not knowing what else to do, they backed up to provide the space for the people of faith to dance for freedom in the streets of South Africa.

Fifty tons of vaporised nuclear fuel were thrown into the atmosphere, destined to be carried away in a poisonous cloud that would spread across most of Europe. The mighty explosion ejected a further 700 tons of radioactive material - mostly graphite - from the periphery of the core, scattering it across an area of a few square kilometers. This included the roofs of the turbine hall, Unit 3, and the ventilation stack it shared with Unit 4, all of which erupted into flames. The reactor fuel’s extreme temperature, combined with air rushing into the gaping hole, ignited the core’s remaining graphite and generated an inferno that burned for weeks. Most lights, windows and electrical systems throughout the severely damaged Unit 4 were blown out, leaving only a smattering of emergency lighting to provide illumination.124

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.

One of Sherrington's greatest pupils, Sir John Eccles, held similar views. Eccles won a Nobel Prize for his seminal contributions to our understanding of how nerve cells communicate across synapses, or nerve junctions. In his later years, he worked toward a deeper understanding of the mechanisms mediating the interaction of mind and brain-including the elusive notion of free will. Standard neurobiology tells us that tiny vesicles in the nerve endings contain chemicals called neurotransmitters; in response to an electrical impulse, some of the vesicles release their contents, which cross the synapse and transmit the impulse to the adjoining neuron. In 1986 Eccles proposed that the probability of neurotransmitter release depended on quantum mechanical processes, which can be influenced by the intervention of the mind. This, Eccles said, provided a basis for the action of a free will.

Like charges, charges of the same sign, strongly repel one another. We can think of it as a dedicated mutual aversion to their own kind, a little as if the world were densely populated by anchorites and misanthropes. Electrons repel electrons. Protons repel protons. So how can a nucleus stick together? Why does it not instantly fly apart? Because there is another force of nature: not gravity, not electricity, but the short-range nuclear force, which, like a set of hooks that engage only when protons and neutrons come very close together, thereby overcomes the electrical repulsion among the protons. The neutrons, which contribute nuclear forces of attraction and no electrical forces of repulsion, provide a kind of glue that helps to hold the nucleus together. Longing for solitude, the hermits have been chained to their grumpy fellows and set among others given to indiscriminate and voluble amiability.

just seven years later Henry Ford began to sell his Model T, the first mass-produced affordable and durable passenger car, and in 1911 Charles Kettering, who later played a key role in developing leaded gasoline, designed the first practical electric starter, which obviated dangerous hand cranking (fig. 2.2). And although hard-topped roads were still in short supply even in the eastern part of the US, their construction began to accelerate, with the country’s paved highway length more than doubling between 1905 and 1920. No less important, decades of crude oil discoveries accompanied by advances in refining provided the liquid fuels needed for the expansion of the new transportation, and in 1913 Standard Oil of Indiana introduced William Burton’s thermal cracking of crude oil, the process that increased gasoline yield while reducing the share of volatile compounds that make up the bulk of natural gasolines.

By the end of the year 2000, Israeli settlers in the West Bank and Gaza numbered 225,000. The best offer to the Palestinians—by Clinton, not Barak—had been to withdraw 20 percent of the settlers, leaving more than 180,000 in 209 settlements, covering about 10 percent of the occupied land, including land to be “leased” and portions of the Jordan River valley and East Jerusalem. The percentage figure is misleading, since it usually includes only the actual footprints of the settlements. There is a zone with a radius of about four hundred meters around each settlement within which Palestinians cannot enter. In addition, there are other large areas that would have been taken or earmarked to be used exclusively by Israel, roadways that connect the settlements to one another and to Jerusalem, and “life arteries” that provide the settlers with water, sewage, electricity, and communications. These range in width from five hundred to four thousand meters, and Palestinians cannot use or cross many of these connecting links. This honeycomb of settlements and their interconnecting conduits effectively divide the West Bank into at least two noncontiguous areas and multiple fragments, often uninhabitable or even unreachable, and control of the Jordan River valley denies Palestinians any direct access eastward into Jordan. About one hundred military checkpoints completely surround Palestine and block routes going into or between Palestinian communities, combined with an uncountable number of other roads that are permanently closed with large concrete cubes or mounds of earth and rocks. There was no possibility that any Palestinian leader could accept such terms and survive, but official statements from Washington and Jerusalem were successful in placing the entire onus for the failure on Yasir Arafat. Violence in the Holy Land continued.

Like every tokamak, ITER has central solenoid coils, large toroidal and poloidal magnets (respectively around and along the doughnut shape). The basic specifications are a vacuum vessel plasma of 6.2 meter radius and 830 cubic meters in volume, with a confining magnetic field of 5.3 tesla and a rated fusion power of 500 MW (thermal). This heat output would correspond to Q ≥ 10 (it would require the injection of 50 MW to heat the hydrogen plasma to about 150 million degrees) and hence would achieve, for the first time on Earth, a burning plasma of the kind required for any continuously operating fusion reactor. ITER would generate burning plasmas during pulses lasting 400 to 600 seconds, time spans sufficient to demonstrate the feasibility of building an actual electricity-generating fusion power plant. But it is imperative to understand that ITER is an experimental device designed to demonstrate the feasibility of net energy generation and to provide the foundation for larger, and eventually commercial, fusion designs, not to be a prototype of an actual energy-generating device.

General Hamza, I am pleased that we have finally secured Jerusalem. General Malik, you bring up a major concern. Have we been able to get our laser defense systems operational yet?” “Yes, we have about 40% of them back online. The Americans were able to destroy ten of our sixteen ground-based sites with cruise missiles. The majority of our mobile defense systems are at the frontline, leaving us vulnerable. We have started to pull some of them to help protect our critical infrastructure. The Russians are helping by connecting their power transmission nodes into ours. As they are able to provide more electricity, we should have the rest of our laser batteries operational,” explained General Malik with an optimistic look on his face. “It was a smart move on the Americans’ part to destroy our power plants. Aside from shutting down our laser defense systems, it has plunged most of the Republic into the dark.” “Fortunately, we also have a lot of industrial grade generators and two Russian nuclear powered ships in port--they are providing a substantial amount of power,” said Admiral Mustafa.

The Proofs Human society has devised a system of proofs or tests that people must pass before they can participate in many aspects of commercial exchange and social interaction. Until they can prove that they are who they say they are, and until that identity is tied to a record of on-time payments, property ownership, and other forms of trustworthy behavior, they are often excluded—from getting bank accounts, from accessing credit, from being able to vote, from anything other than prepaid telephone or electricity. It’s why one of the biggest opportunities for this technology to address the problem of global financial inclusion is that it might help people come up with these proofs. In a nutshell, the goal can be defined as proving who I am, what I do, and what I own. Companies and institutions habitually ask questions—about identity, about reputation, and about assets—before engaging with someone as an employee or business partner. A business that’s unable to develop a reliable picture of a person’s identity, reputation, and assets faces uncertainty. Would you hire or loan money to a person about whom you knew nothing? It is riskier to deal with such people, which in turn means they must pay marked-up prices to access all sorts of financial services. They pay higher rates on a loan or are forced by a pawnshop to accept a steep discount on their pawned belongings in return for credit. Unable to get bank accounts or credit cards, they cash checks at a steep discount from the face value, pay high fees on money orders, and pay cash for everything while the rest of us enjoy twenty-five days interest free on our credit cards. It’s expensive to be poor, which means it’s a self-perpetuating state of being. Sometimes the service providers’ caution is dictated by regulation or compliance rules more than the unwillingness of the banker or trader to enter a deal—in the United States and other developed countries, banks are required to hold more capital against loans deemed to be of poor quality, for example. But many other times the driving factor is just fear of the unknown. Either way, anything that adds transparency to the multi-faceted picture of people’s lives should help institutions lower the cost of financing and insuring them.

To show just how all pervasive the Committee of 300 is, a few words about the Federal Emergency Management Agency (FEMA), a Club of Rome creation and the test it ran against a nuclear power station at Three Mile Island (TMI) Harrisburg, Pennsylvania, seems in order. Termed “an accident” by a hysterical media, this was not an accident, but a deliberately designed plot to reverse favorable public opinion to nuclear power generated electricity. TMI was a crisis test for FEMA. An additional benefit was the fear and hysteria provoked by the news media, which had people fleeing the area, when in fact they were never in any danger. Bear in mind that nobody died as a result of the TMI “accident,” nor were any serious injuries reported. The stage-managed incident bore all the hall marks of a similar incident when Orson Wells scared New York and New Jersey half to death with claims that the world was being invaded by alien beings from Mars. Actually, the radio play was an adaptation of H.G. Wells “War of Worlds.” TMI was considered a success and gained favor with the anti-nuclear forces, as it provided the rallying point for the so-called “environmentalists,” well financed by Atlantic Richfield and other major oil companies and

Peter Galison provides a thought-provoking study of the technological ethos in his book Einstein’s Clocks, Poincaré’s Maps. Clock coordination was in the air at the time. Bern had inaugurated an urban time network of electrically synchronized clocks in 1890, and a decade later, by the time Einstein had arrived, finding ways to make them more accurate and coordinate them with clocks in other cities became a Swiss passion. In addition, Einstein’s chief duty at the patent office, in partnership with Besso, was evaluating electromechanical devices. This included a flood of applications for ways to synchronize clocks by using electric signals. From 1901 to 1904, Galison notes, there were twenty-eight such patents issued in Bern. One of them, for example, was called “Installation with Central Clock for Indicating the Time Simultaneously in Several Places Separated from One Another.” A similar application arrived on April 25, just three weeks before Einstein had his breakthrough conversation with Besso; it involved a clock with an electromagnetically controlled pendulum that could be coordinated with another such clock through an electric signal. What these applications had in common was that they used signals that traveled at the speed of light.

I will give technology three definitions that we will use throughout the book. The first and most basic one is that a technology is a means to fulfill a human purpose. For some technologies-oil refining-the purpose is explicit. For others- the computer-the purpose may be hazy, multiple, and changing. As a means, a technology may be a method or process or device: a particular speech recognition algorithm, or a filtration process in chemical engineering, or a diesel engine. it may be simple: a roller bearing. Or it may be complicated: a wavelength division multiplexer. It may be material: an electrical generator. Or it may be nonmaterial: a digital compression algorithm. Whichever it is, it is always a means to carry out a human purpose. The second definition I will allow is a plural one: technology as an assemblage of practices and components. This covers technologies such as electronics or biotechnology that are collections or toolboxes of individual technologies and practices. Strictly speaking, we should call these bodies of technology. But this plural usage is widespread, so I will allow it here. I will also allow a third meaning. This is technology as the entire collection of devices and engineering practices available to a culture. Here we are back to the Oxford's collection of mechanical arts, or as Webster's puts it, "The totality of the means employed by a people to provide itself with the objects of material culture." We use this collective meaning when we blame "technology" for speeding up our lives, or talk of "technology" as a hope for mankind. Sometimes this meaning shades off into technology as a collective activity, as in "technology is what Silicon Valley is all about." I will allow this too as a variant of technology's collective meaning. The technology thinker Kevin Kelly calls this totality the "technium," and I like this word. But in this book I prefer to simply use "technology" for this because that reflects common use. The reason we need three meanings is that each points to technology in a different sense, a different category, from the others. Each category comes into being differently and evolves differently. A technology-singular-the steam engine-originates as a new concept and develops by modifying its internal parts. A technology-plural-electronics-comes into being by building around certain phenomena and components and develops by changing its parts and practices. And technology-general, the whole collection of all technologies that have ever existed past and present, originates from the use of natural phenomena and builds up organically with new elements forming by combination from old ones.

(i) Social benefits. When we first started writing about higher education, we had a good deal of sympathy for the first justification. We no longer do. In the interim we have tried to induce the people who make this argument to be specific about the alleged social benefits. The answer is almost always simply bad economics. We are told that the nation benefits by having more highly skilled and trained people, that investment in providing such skills is essential for economic growth, that more trained people raise the productivity of the rest of us. These statements are correct. But none is a valid reason for subsidizing higher education. Each statement would be equally correct if made about physical capital (i.e., machines, factory buildings, etc.), yet hardly anyone would conclude that tax money should be used to subsidize the capital investment of General Motors or General Electric. If higher education improves the economic productivity of individuals, they can capture that improvement through higher earnings, so they have a private incentive to get the training. Adam Smith's invisible hand makes their private interest serve the social interest. It is against the social interest to change their private interest by subsidizing schooling. The extra students—those who will only go to college if it is subsidized—are precisely the ones who judge that the benefits they receive are less than the costs. Otherwise they would be willing to pay the costs themselves.

A more complex example is a cooking recipe. An algorithm for preparing vegetable soup may tell us: 1.​Heat half a cup of oil in a pot. 2.​Finely chop four onions. 3.​Fry the onion until golden. 4.​Cut three potatoes into chunks and add to the pot. 5.​Slice a cabbage into strips and add to the pot. And so forth. You can follow the same algorithm dozens of times, each time using slightly different vegetables, and therefore getting a slightly different soup. But the algorithm remains the same. A recipe by itself cannot make soup. You need a person to read the recipe and follow the prescribed set of steps. But you can build a machine that embodies this algorithm and follows it automatically. Then you just need to provide the machine with water, electricity and vegetables – and it will prepare the soup by itself. There aren’t many soup machines around, but you are probably familiar with beverage vending machines. Such machines usually have a slot for coins, an opening for cups, and rows of buttons. The first row has buttons for coffee, tea and cocoa. The second row is marked: no sugar, one spoon of sugar, two spoons of sugar. The third row indicates milk, soya milk, no milk. A man approaches the machine, inserts a coin into the slot and presses the buttons marked ‘tea’, ‘one sugar’ and ‘milk’. The machine kicks into action, following a precise set of steps. It drops a tea bag into a cup, pours boiling water, adds a spoonful of sugar and milk, and ding! A nice cup of tea emerges. This is an algorithm.17

The Memory Business Steven Sasson is a tall man with a lantern jaw. In 1973, he was a freshly minted graduate of the Rensselaer Polytechnic Institute. His degree in electrical engineering led to a job with Kodak’s Apparatus Division research lab, where, a few months into his employment, Sasson’s supervisor, Gareth Lloyd, approached him with a “small” request. Fairchild Semiconductor had just invented the first “charge-coupled device” (or CCD)—an easy way to move an electronic charge around a transistor—and Kodak needed to know if these devices could be used for imaging.4 Could they ever. By 1975, working with a small team of talented technicians, Sasson used CCDs to create the world’s first digital still camera and digital recording device. Looking, as Fast Company once explained, “like a ’70s Polaroid crossed with a Speak-and-Spell,”5 the camera was the size of a toaster, weighed in at 8.5 pounds, had a resolution of 0.01 megapixel, and took up to thirty black-and-white digital images—a number chosen because it fell between twenty-four and thirty-six and was thus in alignment with the exposures available in Kodak’s roll film. It also stored shots on the only permanent storage device available back then—a cassette tape. Still, it was an astounding achievement and an incredible learning experience. Portrait of Steven Sasson with first digital camera, 2009 Source: Harvey Wang, From Darkroom to Daylight “When you demonstrate such a system,” Sasson later said, “that is, taking pictures without film and showing them on an electronic screen without printing them on paper, inside a company like Kodak in 1976, you have to get ready for a lot of questions. I thought people would ask me questions about the technology: How’d you do this? How’d you make that work? I didn’t get any of that. They asked me when it was going to be ready for prime time? When is it going to be realistic to use this? Why would anybody want to look at their pictures on an electronic screen?”6 In 1996, twenty years after this meeting took place, Kodak had 140,000 employees and a $28 billion market cap. They were effectively a category monopoly. In the United States, they controlled 90 percent of the film market and 85 percent of the camera market.7 But they had forgotten their business model. Kodak had started out in the chemistry and paper goods business, for sure, but they came to dominance by being in the convenience business. Even that doesn’t go far enough. There is still the question of what exactly Kodak was making more convenient. Was it just photography? Not even close. Photography was simply the medium of expression—but what was being expressed? The “Kodak Moment,” of course—our desire to document our lives, to capture the fleeting, to record the ephemeral. Kodak was in the business of recording memories. And what made recording memories more convenient than a digital camera? But that wasn’t how the Kodak Corporation of the late twentieth century saw it. They thought that the digital camera would undercut their chemical business and photographic paper business, essentially forcing the company into competing against itself. So they buried the technology. Nor did the executives understand how a low-resolution 0.01 megapixel image camera could hop on an exponential growth curve and eventually provide high-resolution images. So they ignored it. Instead of using their weighty position to corner the market, they were instead cornered by the market.

At that moment, remarkably, there was a man in the expansive reactor hall of Unit 4 who witnessed all this.121 Night Shift Chief of the Reactor Shop Valeriy Perevozchenko saw the top of the reactor - a 15-meter-wide disk comprised of 2000 individual metal covers which cap safety valves - begin to jump up and down. He ran. The reactor’s uranium fuel was increasing power exponentially, reaching some 3,000°C, while pressure rose at a rate of 15 atmospheres per second. At precisely 01:23:58, a mere 18 seconds after Akimov pressed the SCRAM button, steam pressure overwhelmed Chernobyl’s incapacitated fourth reactor. A steam explosion blew the 450-ton, 3-meter-thick upper biological shield clear off the reactor before it crashed back down, coming to rest at a steep angle in the raging maw it left behind. The core was exposed.122 A split second later, steam and inrushing air reacted with the fuel’s ruined zirconium cladding to create a volatile mixture of hydrogen and oxygen, which triggered a second, far more powerful explosion.123 Fifty tons of vaporised nuclear fuel were thrown into the atmosphere, destined to be carried away in a poisonous cloud that would spread across most of Europe. The mighty explosion ejected a further 700 tons of radioactive material - mostly graphite - from the periphery of the core, scattering it across an area of a few square kilometers. This included the roofs of the turbine hall, Unit 3, and the ventilation stack it shared with Unit 4, all of which erupted into flames. The reactor fuel’s extreme temperature, combined with air rushing into the gaping hole, ignited the core’s remaining graphite and generated an inferno that burned for weeks. Most lights, windows and electrical systems throughout the severely damaged Unit 4 were blown out, leaving only a smattering of emergency lighting to provide illumination.124

Modern electrical power distribution technology is largely the fruit of the labors of two men—Thomas Edison and Nikola Tesla. Compared with Edison, Tesla is relatively unknown, yet he invented the alternating electric current generation and distribution system that supplanted Edison's direct current technology and that is the system currently in use today. Tesla also had a vision of delivering electricity to the world that was revolutionary and unique. If his research had come to fruition, the technological landscape would be entirely different than it is today. Power lines and the insulated towers that carry them over thousands of country and city miles would not distract our view. Tesla believed that by using the electrical potential of the Earth, it would be possible to transmit electricity through the Earth and the atmosphere without using wires. With suitable receiving devices, the electricity could be used in remote parts of the planet. Along with the transmission of electricity, Tesla proposed a system of global communication, following an inspired realization that, to electricity, the Earth was nothing more than a small, round metal ball. [...] With $150,000 in financial support from J. Pierpont Morgan and other backers, Tesla built a radio transmission tower at Wardenclyffe, Long Island, that promised—along with other less widely popular benefits—to provide communication to people in the far corners of the world who needed no more than a handheld receiver to utilize it. In 1900, Italian scientist Guglielmo Marconi successfully transmitted the letter "S" from Cornwall, England, to Newfoundland and precluded Tesla's dream of commercial success for transatlantic communication. Because Marconi's equipment was less costly than Tesla's Wardenclyffe tower facility, J. P. Morgan withdrew his support. Moreover, Morgan was not impressed with Tesla's pleas for continuing the research on the wireless transmission of electrical power. Perhaps he and other investors withdrew their support because they were already reaping financial returns from those power systems both in place and under development. After all, it would not have been possible to put a meter on Tesla's technology—so any investor could not charge for the electricity!

Wherever you go, Provincetown will always take you back, at whatever age and in whatever condition. Because time moves somewhat differently there, it is possible to return after ten years or more and run into an acquaintance, on Commercial or at the A&P, who will ask mildly, as if he’d seen you the day before yesterday, what you’ve been doing with yourself. The streets of Provincetown are not in any way threatening, at least not to those with an appetite for the full range of human passions. If you grow deaf and blind and lame in Provincetown, some younger person with a civic conscience will wheel you wherever you need to go; if you die there, the marshes and dunes are ready to receive your ashes. While you’re alive and healthy, for as long as it lasts, the golden hands of the clock tower at Town Hall will note each hour with an electric bell as we below, on our purchase of land, buy or sell, paint or write or fish for bass, or trade gossip on the post office steps. The old bayfront houses will go on dreaming, at least until the emptiness between their boards proves more durable than the boards themselves. The sands will continue their slow devouring of the forests that were the Pilgrims’ first sight of North America, where man, as Fitzgerald put it, “must have held his breath in the presence of this continent, compelled into an aesthetic contemplation he neither understood nor desired, face to face for the last time in history with something commensurate to his capacity for wonder.” The ghost of Dorothy Bradford will walk the ocean floor off Herring Cove, draped in seaweed, surrounded by the fleeting silver lights of fish, and the ghost of Guglielmo Marconi will tap out his messages to those even longer dead than he. The whales will breach and loll in their offshore world, dive deep into black canyons, and swim south when the time comes. Herons will browse the tidal pools; crabs with blue claws tipped in scarlet will scramble sideways over their own shadows. At sunset the dunes will take on their pink-orange light, and just after sunset the boats will go luminous in the harbor. Ashes of the dead, bits of their bones, will mingle with the sand in the salt marsh, and wind and water will further disperse the scraps of wood, shell, and rope I’ve used for Billy’s various memorials. After dark the raccoons and opossums will start on their rounds; the skunks will rouse from their burrows and head into town. In summer music will rise up. The old man with the portable organ will play for passing change in front of the public library. People in finery will sing the anthems of vanished goddesses; people who are still trying to live by fishing will pump quarters into jukeboxes that play the songs of their high school days. As night progresses, people in diminishing numbers will wander the streets (where whaling captains and their wives once promenaded, where O’Neill strode in drunken furies, where Radio Girl—who knows where she is now?—announced the news), hoping for surprises or just hoping for what the night can be counted on to provide, always, in any weather: the smell of water and its sound; the little houses standing square against immensities of ocean and sky; and the shapes of gulls gliding overhead, white as bone china, searching from their high silence for whatever they might be able to eat down there among the dunes and marshes, the black rooftops, the little lights tossing on the water as the tides move out or in.

The MTA had limited flexibility to cut its expenses. The subways had very high fixed costs and the Transit Authority needed to provide enough services for the four-hour peak commuting period. While a private business would have tried to replace full-time workers with part-time workers or scaled back salaries and benefits, those were not feasible options for a state-run enterprise whose workers were politically influential. Instead, a new union contract in 1968 allowed transit workers to retire with half pay after twenty years of work, exacerbating the MTA’s financial problems and affecting service quality after most of the car maintenance workers and 40 percent of the electrical workers retired in the next two years.75 With

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Emerging Possibilities for Space Propulsion Breakthroughs Originally published in the Interstellar Propulsion Society Newsletter, Vol. I, No. 1, July 1, 1995.  Marc. G. Millis, Space Propulsion Technology Division, NASA Lewis Research Center Cleveland, Ohio “New perspectives on the connection between gravity and electromagnetism have just emerged. A theory published in February 1994 (ref 11) suggests that inertia is nothing but an electromagnetic illusion. This theory builds on an earlier work (ref 12) that asserts that gravity is nothing other than an electromagnetic side-effect. Both of these works rely on the perspective that all matter is fundamentally made up of electrically charged particles, and they rely on the existence of Zero Point Energy. Zero Point Energy (ZPE) is the term used to describe the random electromagnetic oscillations that are left in a vacuum after all other energy has been removed (ref 13). This can be explained in terms of quantum theory, where there exists energy even in the absolute lowest state of a harmonic oscillator. The lowest state of an electromagnetic oscillation is equal to one-half the Planck constant times the frequency. If all the energy for all the possible frequencies is summed up, the result is an enormous energy density, ranging from 1036 to 1070 Joules/m3. In simplistic terms there is enough energy in a cubic centimeter of the empty vacuum to boil away Earth's oceans. First predicted in 1948, ZPE has been linked to a number of experimental observations. Examples include the Casimir effect (ref 14), Van der Waal forces (ref 15), the Lamb-Retherford Shift (ref 10, p. 427), explanations of the Planck blackbody radiation spectrum (ref 16), the stability of the ground state of the hydrogen atom from radiative collapse (ref 17), and the effect of cavities to inhibit or enhance the spontaneous emission from excited atoms (ref 18). Regarding the inertia and gravity theories mentioned earlier, they take the perspective that all matter is fundamentally constructed of electrically charged particles and that these particles are constantly interacting with this ZPE background. From this perspective the property of inertia, the resistance to change of a particle's velocity, is described as a high- frequency electromagnetic drag against the Zero Point Fluctuations. Gravity, the attraction between masses, is described as Van der Waals forces between oscillating dipoles, where these dipoles are the charged particles that have been set into oscillation by the ZPE background. It should be noted that these theories were not written in the context of propulsion and do not yet provide direct clues for how to electromagnetically manipulate inertia or gravity. Also, these theories are still too new to have either been confirmed or discounted. Despite these uncertainties, typical of any fledgling theory, these theories do provide new approaches to search for breakthrough propulsion physics.

Actions Summary The following list of new institutions, policies and actions is my best effort at envisaging what is required for Australia to survive the climate emergency. • A National Target and Plan for 95% or more of electricity to be supplied by renewables by 2030. • State plans to electrify all transport, beginning with the swift retirement of non-electric buses and including a plan for 50% of all new car sales to be EVs by 2030. • Implement planned changes to how we work and live so as to minimise unnecessary travel. • A plan for clean hydrogen to replace bunker fuel in shipping. • A plan for the adoption of e-fuels for aviation, with an aim to have all domestic flights running on e-fuel by 2030. • A National Commission for Climate Adaptation, with a Coastal Defence Fund and a Commission for Primary Production operating under its umbrella. • A National Initiative on Drawdown Innovation to provide leadership in early stage research and fund some on-ground projects. • The Federal Government to help convene a Global Working Group on Geoengineering.

The private sector is ill suited to provide most of these services (subways, streetcars, light rail systems, energy efficient affordable housing along transit lines, smart electrical grids carrying renewable energy, research efforts to ensure we are using the best methods possible) because they require large up-front investments, and if they are to be genuinely accessible to all, some very well may not be profitable. They are, however, decidedly in the public interest, which is why they should come from the public sector.

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Yet I am writing this in Oxford, England, where winter nights are likewise often cold enough to kill any human unprotected by clothing and other technology. So, while intergalactic space would kill me in a matter of seconds, Oxfordshire in its primeval state might do it in a matter of hours – which can be considered ‘life support’ only in the most contrived sense. There is a life-support system in Oxfordshire today, but it was not provided by the biosphere. It has been built by humans. It consists of clothes, houses, farms, hospitals, an electrical grid, a sewage system and so on. Nearly the whole of the Earth’s biosphere in its primeval state was likewise incapable of keeping an unprotected human alive for long.

The first solar photovoltaic panel built by Bell Labs in 1954 cost $1,000 per watt of power it could produce.128 In 2008, modules used in solar arrays cost $3.49 per watt; by 2018, they cost 40 cents per watt.129 According to a pattern known as Swanson’s Law, the price of solar photovoltaic modules tends to fall by 20 percent for every doubling of cumulative shipped volume. The full price of solar electricity (including land, labor to deploy the solar panels, and other equipment required) falls by about 15 percent with every doubling. The amount of solar-generated power has been doubling every two years or less for the past forty years—as costs have been falling.130 At this rate, solar power is only five doublings—or less than twelve years—away from being able to meet 100 percent of today’s energy needs. Power usage will keep increasing, so this is a moving target. Taking that into account, inexpensive renewable sources can potentially provide more power than the world needs in less than twenty years. This is happening because of the momentum that solar has already gained and the constant refinements to the underlying technologies, which are advancing on exponential curves. What Ray Kurzweil said about Craig Venter’s progress when he had just sequenced 1 percent of the human genome—that Venter was actually halfway to 100 percent because on an exponential curve, the time required to get from 0.01 percent to 1 percent is equal to the time required to get from 1 percent to 100 percent—applies to solar capture too.

None of us likes our electric utility or our cell-phone provider or our cable-broadband company in the way we love Apple or enjoy Ben & Jerry’s ice cream. Behind all of these unpopular institutions and sectors lies a frustrating combination of onerous regulations, quasi-monopolistic franchises (often government sanctioned) or ownership of scarce real estate (radio spectrum, medallions, permits, etc.), and politically powerful special interests.

A.I. will provide similar benefits—and take over human jobs—in most areas in which data are processed and decisions required. WIRED magazine’s founding editor, Kevin Kelly, likened A.I. to electricity: a cheap, reliable, industrial-grade digital smartness running behind everything. He said that it “will enliven inert objects, much as electricity did more than a century ago. Everything that we formerly electrified we will now ‘cognitize.’ This new utilitarian A.I. will also augment us individually as people (deepening our memory, speeding our recognition) and collectively as a species. There is almost nothing we can think of that cannot be made new, different, or interesting by infusing it with some extra IQ.

F: stands for the Falls, better known as Niagara Falls also in the province of Ontario. People come from all over the world to see the majestic, rapid flowing Falls we share with our neighbours the United States. The Falls provide much of Ontario their hydro electric power.

President Pitzer, Mr. Vice President, Governor, Congressman Thomas, Senator Wiley, and Congressman Miller, Mr. Webb. Mr. Bell, scientists, distinguished guests, and ladies and gentlemen: I appreciate your president having made me an honorary visiting professor, and I will assure you that my first lecture will be very brief. I am delighted to be here and I'm particularly delighted to be here on this occasion. We meet at a college noted for knowledge, in a city noted for progress, in a State noted for strength, and we stand in need of all three, for we meet in an hour of change and challenge, in a decade of hope and fear, in an age of both knowledge and ignorance. The greater our knowledge increases, the greater our ignorance unfolds. Despite the striking fact that most of the scientists that the world has ever known are alive and working today, despite the fact that this Nation's own scientific manpower is doubling every 12 years in a rate of growth more than three times that of our population as a whole, despite that, the vast stretches of the unknown and the unanswered and the unfinished still far out-strip our collective comprehension. No man can fully grasp how far and how fast we have come, but condense, if you will, the 50,000 years of man's recorded history in a time span of but a half century. Stated in these terms, we know very little about the first 40 years, except at the end of them advanced man had learned to use the skins of animals to cover them. Then about 10 years ago, under this standard, man emerged from his caves to construct other kinds of shelter. Only 5 years ago man learned to write and use a cart with wheels. Christianity began less than 2 years ago. The printing press came this year, and then less than 2 months ago, during this whole 50-year span of human history, the steam engine provided a new source of power. Newton explored the meaning of gravity. Last month electric lights and telephones and automobiles and airplanes became available. Only last week did we develop penicillin and television and nuclear power, and now if America's new spacecraft succeeds in reaching Venus, we will have literally reached the stars before midnight tonight. This is a breathtaking pace, and such a pace cannot help but create new ills as it dispels old, new ignorance, new problems, new dangers. Surely the opening vistas of space promise high costs and hardships, as well as high reward. So it is not surprising that some would have us stay where we are a little longer to rest, to wait. But this city of Houston, this State of Texas, this country of the United States was not built by those who waited and rested and wished to look behind them. This country was conquered by those who moved forward-and so will space. William Bradford, speaking in 1630 of the founding of the Plymouth Bay Colony, said that all great and honorable actions are accompanied with great difficulties, and both must be enterprised and overcome with answerable courage. If this capsule history of our progress teaches us anything, it is that man, in his quest for knowledge and progress, is determined and cannot be deterred. The exploration of space will go ahead, whether we join in it or not, and it is one of the great adventures of all time, and no nation which expects to be the leader of other nations can expect to stay behind in this race for space. Those who came before us made certain that this country rode the first waves of the industrial revolutions, the first waves of modern invention, and the first wave of nuclear power, and this generation does not intend to founder in the backwash of the coming age of space. We mean to be a part of it - we mean to lead it. For the eyes of the world now look into space, to the moon and to the planets beyond, and we have vowed that we shall not see it governed by a hostile flag of conquest, but by a banner of freedom and peace...

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Where could she have gotten these notions, except from the bits and pieces of electric dreams that she watched on a great screen I’d provided for her?

Flow through the nerves of society as electricity providing sentience, rush through the veins of society as blood providing energy, and work in the bones of society as calcium providing stability.

What I found most interesting about Session C was the unique window it provided the CEO into the business. It was "boundaryless" before the word came into favor as a GE company value. It was functionally agnostic and part of a more extensive system managed by the top executive with ties to the board of directors, corporate and operating executives, and various management levels. No one could claim outright ownership for it, but everyone was intimately involved.

The share of global power that comes from burning coal (roughly 40 percent) hasn’t changed in 30 years. Oil and natural gas together have been hovering around 26 percent for three decades. All told, fossil fuels provide two-thirds of the world’s electricity. Solar and wind, meanwhile, account for 7 percent.

Water generates electrical and magnetic energy inside each and every cell of the body--it provides the power to live.

General Electric (GE) shed 100,000 employees over eleven years to bring total employment down to 268,000 in 1992. During that same period, its sales went up from $27 billion to $62 billion, and net income from $1.5 billion to $4.7 billion.9 GE became smaller only in terms of the number of employees who shared the benefits of its growth in profits and market share. It shed its commitment to provide productive and well-remunerated employment for 100,000 people and their families. It retained its technical, financial, and market power.

To change what you’re feeling, you need to use your imagination to turn your bills into something that makes you feel better. You can imagine they’re not really bills at all but instead you’ve decided to donate money to each company or person out of the goodness of your heart, because of the wonderful service they provide. Imagine your bills are checks you’re receiving. Or use gratitude and give thanks to the company who sent you the bill, by thinking about how you’ve benefited from their service – for electricity or being able to live in a home. You can write across the front of a bill when you pay it, “Thank you – paid.

of climate change. What was needed was a massive nudge in the right direction. In the past, the stick of regulation and the rod of taxation were the methods that environmentalists believed could break the fossil fuel economy. But the Inflation Reduction Act doesn’t rely on such punitive tactics, because Manchin culled them from the bill. Instead, it imagined that the United States could become the global leader of a booming climate economy, if the government provided tax credits and subsidies, a lucrative set of incentives. There was a cost associated with the bill. By the Congressional Budget Office’s score, it offered $386 billion in tax credits to encourage the production of wind turbines, solar panels, geothermal plants, and battery storage. Tax credits would reduce the cost of electric vehicles so that they would become the car of choice for Middle America. But $386 billion was an estimate, not a price tag, since the legislation didn’t cap the amount of money available in tax credits. If utilities wanted to build more wind turbines or if demand for electric vehicles surged, the government would keep spending. When Credit Suisse studied the program, it estimated that so many businesses and consumers will avail themselves of the tax credits that the government could spend nearly $800 billion. If Credit Suisse is correct, then the tax credits will unleash $1.7 trillion in private sector spending on green technologies. Within six years, solar and wind energy produced by the US will be the cheapest in the world. Alternative energies will cross a threshold: it will become financially irresponsible not to use them. Even though Joe Biden played a negligible role in the final negotiations, the Inflation Reduction Act exudes his preferences. He romanticizes the idea of factories building stuff. It is a vision of the Goliath of American manufacturing, seemingly moribund, sprung back to life. At the same time that the legislation helps to stall climate change, it allows the United States to dominate the industries of the future. This was a bill that, in the end, climate activists and a broad swath of industry could love. Indeed, strikingly few business lobbies, other than finance and pharma, tried to stymie the bill in its final stages. It was a far cry from the death struggles over energy legislation in the Clinton and Obama administrations, when industry scuppered transformational legislation. The Inflation Reduction Act will allow the United States to prevent its own decline. And not just economic decline. Without such a meaningful program, the United States would have had no standing to prod other countries to respond more aggressively to climate change. It would have been a marginal player in shaping the response to the planet’s greatest challenge. The bill was an investment in moral authority.

She had thought that industrial production was a value not to be questioned by anyone; she had thought that these men’s urge to expropriate the factories of others was their acknowledgment of the factories’ value. She, born of the industrial revolution, had not held as conceivable, had forgotten along with the tales of astrology and alchemy, what these men knew in their secret, furtive souls, knew not by means of thought, but by means of that nameless muck which they called their instincts and emotions: that so long as men struggle to stay alive, they’ll never produce so little but that the man with the club won’t be able to seize it and leave them still less, provided millions of them are willing to submit—that the harder their work and the less their gain, the more submissive the fiber of their spirit—that men who live by pulling levers at an electric switchboard, are not easily ruled, but men who live by digging the soil with their naked fingers, are—that the feudal baron did not need electronic factories in order to drink his brains away out of jeweled goblets, and neither did the rajahs of the People’s State of India. She saw what they wanted and to what goal their “instincts,” which they called unaccountable, were leading them. She saw that Eugene Lawson, the humanitarian, took pleasure at the prospect of human starvation—and Dr. Ferris, the scientist, was dreaming of the day when men would return to the hand-plow.

The explosion At first the crew thought a meteoroid had hit them. As well as the noise of an explosion, the electrics were going haywire and the attitude control thrusters had fired. In fact, a short circuit had ignited some insulation in the Number 2 oxygen tank of the Service Module. The Service Module provided life support, power and other systems to the Command Module, which held the astronauts as they travelled to and from lunar orbit. The Lunar Module was a separate, though connected, craft that would be used to ferry the men to the lunar surface and back. The fire caused a surge in pressure that ruptured the tank, flooding the fuel cell bay with gaseous oxygen. This surge blew the bolts holding on the outer panel, which tore off free and spun into space, damaging a communications antenna. Contact with Earth was lost for 1.8 seconds, until the system automatically switched to another antenna. The shock also ruptured a line from the Number 1 oxygen tank. Two hours later all of the Service Module’s oxygen supply had leaked into the void. As the Command Module’s fuel cells used oxygen with hydrogen to generate electricity, it could now only run on battery power. The crew had no option but to shut down the Command Module completely and move into the Lunar Module. They would then use this as a ‘lifeboat’ for the journey back to Earth before rejoining the Command Module for re-entry. As for the mission, the Service Module was so badly damaged that a safe return from a lunar landing was impossible. These men would not be landing on the Moon. 320,000 km from home The Flight Director immediately aborted the mission. Now he just had to get the men home. The quickest way would be a Direct Abort trajectory, using the Service Module engine to essentially reverse the craft. But it was too late:

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Raleigh is an unusual case. The ship was almost lost even with moderate damage. The Commander Battleships commended the captain and crew for saving the ship by remedial actions. The ship's force and repair ships repaired most of the inside damage to the ship, after removing almost all of the fuel, oil, and water which were aboard. It was not until 3 January that the Navy Yard had Drydock Number One available. Then the Yard completed permanent repairs to the hull and bulkheads until undocking on 14 February. Soon Raleigh departed on one engine for Mare Island where new engine parts were provided and electrical repairs made.

Damage to Curtiss resulted from an enemy aircraft colliding with the forward crane. The enemy plane burned on the boat deck. This occurred at 0905. Another bombing attack occurred at 0912. One bomb fell on the mooring buoy aft and two bombs fell alongside. Fragment damage from these three bombs was considerable. Another bomb struck the starboard side of the boat deck, passed through three decks, and exploded on the main deck causing considerable damage. These bombs were about 250 kilograms, measured about 12 inches in diameter, and carried about 130 pounds of TNT. They were released by dive-bombers from a height of about 300 to 400 feet. The widespread damage caused by fragments to the piping, electric wires, steam lines, and ammunition supply, etc. overshadowed entirely the structural damage which they caused. Even the after engine room was affected by fragments from the bomb hit. Many fires were started and these were difficult to extinguish due to smoldering cork insulation and poor lighting. Much of the fragment damage could have been prevented by use of some armor, which was forbidden in auxiliary vessels under the arms limitation treaties. Later designs provided two-inch splinter protection for sixty percent of the length, as well as splinter protection for gun, fire control, and ship control stations. The Navy Yard undertook repairs to Curtiss on two separate availabilities; the first was from 19 to 27 December. When replacement parts were received, Curtiss was in the Yard from 26 April to 28 May 1942. At that time final repairs were made. 9. U.S.S. HELM, DESTROYER (LAUNCHED IN 1937) We have seen how Helm got underway promptly and patrolled the waters for submarines

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