Nanotechnology Quotes

‎By 2100, our destiny is to become like the gods we once worshipped and feared. But our tools will not be magic wands and potions but the science of computers, nanotechnology, artificial intelligence, biotechnology, and most of all, the quantum theory.

I asked a professor of nanotechnology what they use to measure the unthinkable small distances of nanospace? He said it was the nanometre. This didn't help me very much. A nanometre is a billionth of a metre. I understood the idea but couldn't visualise what it meant. I said, "What is it roughly?" He thought for a moment and said, "A nanometre is roughly the distance that a man's beard grows in one second". I had never thought about what beards do in a second but they must do something. It takes them all day to grow about a milllimetre. They don't leap out of your face at eight o'clock in the morning. Beards are slow, languid things and our language reflects this. We do not say "as quick as a beard" or "as fast as a bristle". We now have a way of grasping of how slow they are - about a nanometre a second.

Most Muggles lived in a world defined by the limits of what you could do with cars and telephones. Even though Muggle physics explicitly permitted possibilities like molecular nanotechnology or the Penrose process for extracting energy from black holes, most people filed that away in the same section of their brain that stored fairy tales and history books, well away from their personal realities: Long ago and far away, ever so long ago.

The Hedonistic Imperative outlines how genetic engineering and nanotechnology will abolish suffering in all sentient life. This project is ambitious but technically feasible. It is also instrumentally rational and ethically mandatory. The metabolic pathways of pain and malaise evolved only because they once served the fitness of our genes. They will be replaced by a different sort of neural architecture. States of sublime well-being are destined to become the genetically pre-programmed norm of mental health. The world's last aversive experience will be a precisely dateable event.

Incurable diseases will eventually force mankind to justify disruptive nanotech and genetic engineering.

Nope. Kline hasn’t gone public—you can’t buy Kline’s stocks. But back when it was founded, it needed money to develop…ravioli? Is that what you guys do?” “Food nanotechnology.

It is a disturbing sign of the times when the two most transformative science technologies affecting the globe—biotechnology and nanotechnology—are governed by no external ethical or legal frameworks to protect public safety and other public interests, despite the fact that both industries have benefited from heavy taxpayer-funded government support.

Apollo has something to teach us as we enter a new century of genetic modification, artificial intelligence, nanotechnology. It's a cautionary tale about that most fundamentally human of human tragedies .. wanting something so badly that you end up destroying it.

So how can we improve the educational system? We should probably first rethink school curricula, and link them in more obvious ways to social goals (elimination of poverty and crime, elevation of human rights, etc.), technological goals (boosting energy conservation, space exploration, nanotechnology, etc.), and medical goals (cures for cancer, diabetes, obesity, etc.) that we care about as a society.

nanotechnology has the potential to enhance human performance, to bring sustainable development for materials, water, energy, and food, to protect against unknown bacteria and viruses, and even to diminish the reasons for breaking the peace [by creating universal abundance].

Let’s just say it’s magic.” “Let’s just say that I need a little more explanation than that if I’m going to go along with this.” John sighed. “Okay, have you heard of nanotechnology?” “Yeah. Microscopic robots, right?” “Right, and imagine they can make millions of these robots and embed them in a liquid, so that you now have a liquid infused with the power of all these machines. Got it?” “All right.” “Now imagine if, instead of tiny robots, it’s magic.

The bombs disrupted molecular structures. The cocktails included the distribution of nanotechnology to help to speed up the recovery of the earth - nanotechnology that promotes the self-assembly of molecules. The nanotechnology, speed up by DNA, which is an informational material but also excellent at the self-assembly of cells, made our fusing stronger. And the nanotechnology that hit the humans trapped in rubble or scorched land helped them to regenerate.

The fourth industrial revolution, however, is not only about smart and connected machines and systems. Its scope is much wider. Occurring simultaneously are waves of further breakthroughs in areas ranging from gene sequencing to nanotechnology, from renewables to quantum computing. It is the fusion of these technologies and their interaction across the physical, digital and biological domains that make the fourth industrial revolution fundamentally different from previous revolutions. In

The ground for preferring superintelligence to come before other potentially dangerous technologies, such as nanotechnology, is that superintelligence would reduce the existential risks from nanotechnology but not vice versa.4 Hence, if we create superintelligence first, we will face only those existential risks that are associated with superintelligence; whereas if we create nanotechnology first, we will face the risks of nanotechnology and then, additionally, the risks of superintelligence.

Standard engineering delivers artifacts; exploratory engineering delivers knowledge.

A radically unconventional future cannot be accommodated within the framework of plans made for a different world.

We trust nanotechnology, genetic engineering and artificial intelligence to revolutionise production yet again,

Unable to construct genuine nanoassemblers, Xymos was using bacteria to crank out their molecules. This was genetic engineering, not nanotechnology.

To do this, we will have to exploit the fourth wave of science, which consists of artificial intelligence, nanotechnology, and biotechnology.

(Atomic machines are actually found in nature. Cells can swim freely in water because they can wiggle tiny hairs. But when one analyzes the joint between the hair and the cell, one sees that it is actually an atomic machine that allows the hair to move in all directions. So one key to developing nanotechnology is to copy nature, which mastered the art of atomic machines billions of years ago.)

Nanotechnology will enable the design of nanobots: robots designed at the molecular level, measured in microns (millionths of a meter), such as “respirocytes” (mechanical red-blood cells).33 Nanobots will have myriad roles within the human body, including reversing human aging (to the extent that this task will not already have been completed through biotechnology, such as genetic engineering).

Writing is a public act, but is there ever a more private one? Could there ever be a more delicious sensation than the intimacy with the page, a better partner in any sin or crime than the white expanses, the undiscovered country, the unspoiled future where we can pretend for a moment that there are no Redundants, no Immortals, no echoes from the past, poetic, genetic, nanotechnological or otherwise? But the moment we lift the pen, the moment we use language, laden as it is with the past, with the victors of conquests and the blood of the vanquished, all the ghosts come flooding back, and we drown.

By definition, posthumanism (I call it ‘cyberhumanism’) is to replace transhumanism at the center stage circa 2035. By then, mind uploading could become a reality with gradual neuronal replacement, rapid advancements in Strong AI, massively parallel computing, and nanotechnology allowing us to directly connect our brains to the Cloud-based infrastructure of the Global Brain. Via interaction with our AI assistants, the GB will know us better than we know ourselves in all respects, so mind transfer, or rather 'mind migration,' for billions of enhanced humans would be seamless, sometime by mid-century.

As we look twenty years to the future, we can confidently expect to produce and consume far more than we do today. We’ll have to trust nanotechnology, genetic engineering, and artificial intelligence to revolutionize production

With the possible exception of nanotechnology being released upon the world there is nothing in the whole catalogue of disasters that is comparable to AGI. —Eliezer Yudkowsky, Research Fellow, Machine Intelligence Research Institute

Nanotechnology experts are developing a bionic immune system composed of millions of nano-robots, which would inhabit our bodies, open blocked blood vessels, fight viruses and bacteria, eliminate cancerous cells and even reverse ageing processes.

A patent is simply and purely a grant of monopoly. Why would a supposedly enlightened government, which has laws against monopolies in other forms, grant them? The original idea was the opposite: you wanted the inventor to publish a description of the invention instead of keeping it secret. To induce him to, you offered, legally, some of the protection that he would have gotten by keeping the secret, enough to get a good head start on the competition. It's not a bad idea, if it were done right...

We cannot rely on trial-and-error approaches to deal with existential risks… We need to vastly increase our investment in developing specific defensive technologies… We are at the critical stage today for biotechnology, and we will reach the stage where we need to directly implement defensive technologies for nanotechnology during the late teen years of this century… A self-replicating pathogen, whether biological or nanotechnology based, could destroy our civilization in a matter of days or weeks.

Hitler and his ilk planned to create superhumans by means of selective breeding and ethnic cleansing, twenty-first-century techno-humanism hopes to reach that goal far more peacefully, with the help of genetic engineering, nanotechnology and brain–computer interfaces

Another error that prognosticators make is to consider the transformations that will result from a single trend in today’s world as if nothing else will change. A good example is the concern that radical life extension will result in overpopulation and the exhaustion of limited material resources to sustain human life, which ignores comparably radical wealth creation from nanotechnology and strong AI. For example, nanotechnology-based manufacturing devices in the 2020s will be capable of creating almost any physical product from inexpensive raw materials and information.

What will happen to the job market once artificial intelligence outperforms humans in most cognitive tasks? What will be the political impact of a massive new class of economically useless people? What will happen to relationships, families and pension funds when nanotechnology and regenerative medicine turn eighty into the new fifty?

Then, oh shit, nanotech tentacles.

The miracle of yeast is awesome enough to strain credulity. It’s a fungus, a naturally occurring nanotechnological machine that converts sugar to the alcohol we drink. It breeds pretty much everywhere and is one of the organisms on which scientists have built much of our knowledge of how life works . . . and, postscript, it also makes possible the baking of bread.

As Natalie stood there holding the book, I tried to think of any reason why three zombies would be so desperate to get a copy of Little Women. “Ever read it?” she asked me. “Of course,” I answered. “Haven’t you?” She shook her head. “Never interested me.” “Really? Not even in fifth grade?” She laughed. “In fifth grade my favorite book was Emerging Principles of Nanotechnology.

The patenting of genes and other human tissue has already begun to turn human nature into property. The misuse of genetic information will enable insurers and employers to exercise the ultimate form of discrimination.

in 2010, foreign students received more than 50 percent of all Ph.D.’s awarded in every subject in the United States. In the sciences, that figure is closer to 75 percent. Half of all Silicon Valley start-ups have one founder who is an immigrant or first-generation American. America’s potential new burst of productivity, its edge in nanotechnology, biotechnology, its ability to invent the future—all rest on its immigration policies.

In general, the internal structures implanted inside the metamaterial must be smaller than the wavelength of the radiation. For example, microwaves can have a wavelength of about 3 centimeters, so for a metamaterial to bend the path of microwaves, it must have tiny implants embedded inside it that are smaller than 3 centimeters. But to make an object invisible to green light, with a wavelength of 500 nanometers (nm), the metamaterial must have structures embedded within it that are only about 50 nanometers long-and nanometers are atomic-length scales requiring nanotechnology. (One nanometer is a billionth of a meter in length. Approximately five atoms can fit within a single nanometer.) This is perhaps the key problem we face in our attempts to create a true invisibility cloak. The individual atoms inside a metamaterial would have to be modified to bend like a snake.

Nanotubes are lightweight, incredibly strong, and structures made of these extremely fine fibers can be superfast and efficient at conducting electricity and heat. It’s believed and feared that molecular nanotechnology is the future of everything, including war. “Imagine making a small powerful bomb out of nanothermite or super-thermite?” Ernie is saying. “Or how about mini-nukes? Or God forbid bioterrorism delivered in the nano range? Scary shit.

If the next generation of nanotechnology could be used in medicine to repair organs and tissue from inside the human body, then it could just as easily be programmed to destroy them, making it the ultimate weapon of assassination. Imagine clouds of these things flying to their targets to either be breathed in like a virus or ingested with food or drink, and then creating fatal haemorrhages or lesions that lead to death from apparently natural causes.

The bombs disrupted molecular structures. The cocktails included the distribution of nanotechnology to help to speed up the recovery of the earth—nanotechnology that promotes the self-assembly of molecules. The nanotechnology, speeded up by DNA, which is an informational material but also excellent at the self-assembly of cells, made our fusing stronger. And the nanotechnology that hit the humans trapped in rubble or scorched land helped them to regenerate.

Most dangerously, for the first time, these accidents and abuses are widely within the reach of individuals or small groups. They will not require large facilities or rare raw materials. Knowledge alone will enable the use of them.

If she comes back to us, the next phase in her development would be the incorporation of genetic engineering, advanced robotics, biotechnologies, and emerging nanotechnologies.” “You’re saying she’s a weapon of the Fourth Industrial Revolution?” “In essence, yes.” “And when you say genetics, robotics, and bio- and nanotechnologies, you mean the next step is turning her into a person?” “They call it humanoid robotics and it’s coming whether we like it or not.

but religions that lose touch with the technological realities of the day forfeit their ability even to understand the questions being asked. What will happen to the job market once artificial intelligence outperforms humans in most cognitive tasks? What will be the political impact of a massive new class of economically useless people? What will happen to relationships, families and pension funds when nanotechnology and regenerative medicine turn eighty into the new fifty?

We cannot turn back the hands of time. Our 24/7 world is not going to change. Life will only get more intense. New communication tools, nanotechnology, and human engineering will increase the number of tasks an individual can do simultaneously. We will look back with nostalgia at the 24/7 world once these “advances” make 48/7 a reality. If we wish to have a weekly day of rest, it will no longer happen as a societal default. It will happen only as a result of a conscious choice.

Nanotechnology experts are developing a bionic immune system composed of millions of nano-robots, who would inhabit our bodies, open blocked blood vessels, fight viruses and bacteria, eliminate cancerous cells and even reverse ageing processes.13 A few serious scholars suggest that by 2050, some humans will become a-mortal (not immortal, because they could still die of some accident, but a-mortal, meaning that in the absence of fatal trauma their lives could be extended indefinitely).

As the daughter of Perses and Asteria, Hecate (Hekate) was the only of the Titans to remain free under Zeus. She was the mother of the wizard Circe and of the witch Medea, and was considered to be the underworld sorceress of all that is demonic.

Allocate millions more to brain research, and every airport could be equipped with ultra-sophisticated FMRI scanners that could immediately recognise angry and hateful thoughts in people’s brains. Will it really work? Who knows. Is it wise to develop bionic flies and thought-reading scanners? Not necessarily. Be that as it may, as you read these lines, the US Department of Defense is transferring millions of dollars to nanotechnology and brain laboratories for work on these and other such ideas.

In this ultimate identity crisis, we would “no longer have the characteristics that give us human dignity” because, for one thing, “people dehumanized à la Brave New World¼don’t know that they are dehumanized, and, what is worse, would not care if they knew.

lead to nonhuman “persons” and “nonperson” humans, unhinging the existing argument behind intrinsic sanctity of human life and paving the way for such things as harvesting organs from people like Terry Schiavo whenever the loss of cognitive ability equals the dispossession of “personhood.

How long will the Gilgamesh Project – the quest for immortality – take to complete? A hundred years? Five hundred years? A thousand years? When we recall how little we knew about the human body in 1900, and how much knowledge we have gained in a single century, there is cause for optimism. Genetic engineers have recently managed to double the average life expectancy of Caenorhabditis elegans worms.12 Could they do the same for Homo sapiens? Nanotechnology experts are developing a bionic immune system composed of millions of nano-robots, who would inhabit our bodies, open blocked blood vessels, fight viruses and bacteria, eliminate cancerous cells and even reverse ageing processes.13 A few serious scholars suggest that by 2050, some humans will become a-mortal (not immortal, because they could still die of some accident, but a-mortal, meaning that in the absence of fatal trauma their lives could be extended indefinitely). Whether or not Project Gilgamesh succeeds, from a historical perspective it is fascinating to see that most late-modern religions and ideologies have already taken death and the afterlife out of the equation. Until the eighteenth century, religions considered death and its aftermath central to the meaning of life. Beginning in the eighteenth century, religions and ideologies such as liberalism, socialism and feminism lost all interest in the afterlife. What, exactly, happens to a Communist after he or she dies? What happens to a capitalist? What happens to a feminist? It is pointless to look for the answer in the writings of Marx, Adam Smith or Simone de Beauvoir. The only modern ideology that still awards death a central role is nationalism. In its more poetic and desperate moments, nationalism promises that whoever dies for the nation will for ever live in its collective memory. Yet this promise is so fuzzy that even most nationalists do not really know what to make of it. The

wants transgenic chimps and great apes uplifted genetically so that they achieve “personhood.” The underlying goal behind this theory would be to establish that basic cognitive aptitude should equal “personhood” and that this “cognitive standard” and not “human-ness” should be the key to constitutional protections and privileges.

Parsons (born Marvel Whiteside Parsons on October 2, 1914 – died June 17, 1952) was an American rocket propulsion researcher at the California Institute of Technology. He was one of the principal founders of the Jet Propulsion Laboratory and the Aerojet Corp. As an enthusiastic occultist and Thelemite he was one of the first Americans to

Everybody is terrified that the current economic crisis may stop the growth of the economy. So they are creating trillions of dollars, euros and yen out of thin air, pumping cheap credit into the system, and hoping that the scientists, technicians and engineers will manage to come up with something really big, before the bubble bursts. Everything depends on the people in the labs. New discoveries in fields such as biotechnology and nanotechnology could create entire new industries, whose profits could back the trillions of make-believe money that the banks and governments have created since 2008. If the labs do not fulfil these expectations before the bubble bursts, we are heading towards very rough times. Columbus

The human race will possess the technology to create God. Why not build this being? Emerging technologies such as nanotechnological molecular manufacturers will likely be so powerful and potentially destructive that it will take God to master them. God may turn out to be inevitable simply in order for the human race to save itself. If virtue as excellence is ultimately identical with evolutionary perfection, then virtue is ultimately identical to whatever leads evolution towards a higher state of perfection. Virtue as excellence is thus ultimately inseparable from evolutionary ethics. Evolutionary ethics ties or morality with whatever is conductive to evolutionary progress. If politics is control over evolution, then is virtue the values that best steer political control over evolution?

And there were other neural implants being developed back then, including retinal implants, chips that enable a stroke patient to control his computer from his brain, an artificial hippocampus for boosting short-term memory, and many others. If you apply the approximately 30 million–fold increase in capability and over 100,000-fold shrinking in size that has occurred in the past quarter century, we now have much more capable devices that are the size of blood cells. Reader: Still, it’s hard to imagine building something the size of a blood cell that can perform a useful function. Terry2034: Actually, there was a first generation of blood cell–size devices back in your day. One scientist cured type 1 diabetes in rats with a blood cell–size device. It was an excellent example of nanotechnology from

The Pyrenean ibex, an extinct form of wild mountain goat, was brought back to life in 2009 through cloning of dna taken from skin samples. This was followed in June of 2010 by researchers at Jeju National University in Korea cloning a bull that had been dead for two years. Cloning methods are also being studied for use in bringing back Tasmanian tigers, woolly mammoths, and other extinct creatures, and in the March/April 2010 edition of the respected Archaeology magazine, a feature article by Zah Zorich (“Should We Clone Neanderthals?”) called for the resurrection via cloning of what some consider to be man’s closest extinct relative, the Neanderthals. National Geographic confirmed this possibility in its May 2009 special report, “Recipe for a Resurrection,” quoting Hendrik Poinar of McMaster University, an authority on ancient dna who served as a scientific consultant for the movie Jurassic Park, saying: “I laughed when Steven Spielberg said that cloning extinct animals was inevitable. But I’m not laughing anymore.… This is going to happen.

It will change everything. We won't need governments and corporations. The very concepts our economic and social systems are based on: money, wealth, privilege, will be meaningless. What use is money when everyone can build everything they need?'... 'These are people who've spent their whole lives fighting their way to the top and you're just going to tell them that there is no top anymore?... it's you that doesn't understand: they only care about material things as status symbols, to show that they're better than everyone else, that they've beaten everyone else, that's what drives them. They'll never give that up.

Repurposing the world’s molecules using nanotechnology has been dubbed “ecophagy,” which means eating the environment. The first replicator would make one copy of itself, and then there’d be two replicators making the third and fourth copies. The next generation would make eight replicators total, the next sixteen, and so on. If each replication took a minute and a half to make, at the end of ten hours there’d be more than 68 billion replicators; and near the end of two days they would outweigh the earth. But before that stage the replicators would stop copying themselves, and start making material useful to the ASI that controlled them—programmable matter. The waste heat produced by the process would burn up the biosphere, so those of us some 6.9 billion humans who were not killed outright by the nano assemblers would burn to death or asphyxiate. Every other living thing on earth would share our fate. Through it all, the ASI would bear no ill will toward humans nor love. It wouldn’t feel nostalgia as our molecules were painfully repurposed. What would our screams sound like to the ASI anyway, as microscopic nano assemblers mowed over our bodies like a bloody rash, disassembling us on the subcellular level? Or would the roar of millions and millions of nano factories running at full bore drown out our voices?

Future visitors from outer space, who mount archaeological digs of our planet, will surely find ways to distinguish designed machines such as planes and microphones, from evolved machines such as bat wings and ears. It is an interesting exercise to think about how they will make the distinction. They may face some tricky judgements in the messy overlap between natural evolution and human design. If the alien scientists can study living specimens, not just archaeological relics, what will they make of fragile, highly strung racehorses and greyhounds, or snuffling bulldogs who can scarcely breathe and can't be born without Caesarian assistance, of blear-eyed Pekinese baby surrogates, of walking udders such as Friesian cows, walking rashers such as Landrace pigs, or walking woolly jumpers such as Merino sheep? Molecular machines - nanotechnology - crafted for human benefit on the same scale as the bacterial flagellar motor, may pose the alien scientists even harder problems... Given that the illusion of design conjured by Darwinian natural selection is so breathtakingly powerful, how do we, in practice, distinguish its products from deliberately designed artefacts?... [Graham] Cairns-Smith was writing in a different context, but his point works here too. An arch is irreducible in the sense that if you remove part of it, the whole collapses. Yet it is possible to build it gradually by means of scaffolding[, which after] the subsequent removal of the scaffolding... no longer appears in the visible picture...

Thoughts for the 2001 Quadrennial Defense Review If you had been a security policy-maker in the world’s greatest power in 1900, you would have been a Brit, looking warily at your age-old enemy, France. By 1910, you would be allied with France and your enemy would be Germany. By 1920, World War I would have been fought and won, and you’d be engaged in a naval arms race with your erstwhile allies, the U.S. and Japan. By 1930, naval arms limitation treaties were in effect, the Great Depression was underway, and the defense planning standard said ‘no war for ten years.’ Nine years later World War II had begun. By 1950, Britain no longer was the world’s greatest power, the Atomic Age had dawned, and a ‘police action’ was underway in Korea. Ten years later the political focus was on the ‘missile gap,’ the strategic paradigm was shifting from massive retaliation to flexible response, and few people had heard of Vietnam. By 1970, the peak of our involvement in Vietnam had come and gone, we were beginning détente with the Soviets, and we were anointing the Shah as our protégé in the Gulf region. By 1980, the Soviets were in Afghanistan, Iran was in the throes of revolution, there was talk of our ‘hollow forces’ and a ‘window of vulnerability,’ and the U.S. was the greatest creditor nation the world had ever seen. By 1990, the Soviet Union was within a year of dissolution, American forces in the Desert were on the verge of showing they were anything but hollow, the U.S. had become the greatest debtor nation the world had ever known, and almost no one had heard of the internet. Ten years later, Warsaw was the capital of a NATO nation, asymmetric threats transcended geography, and the parallel revolutions of information, biotechnology, robotics, nanotechnology, and high density energy sources foreshadowed changes almost beyond forecasting. All of which is to say that I’m not sure what 2010 will look like, but I’m sure that it will be very little like we expect, so we should plan accordingly. Lin Wells

the military-industrial-scientific complex, because today’s wars are scientific productions. The world’s military forces initiate, fund and steer a large part of humanity’s scientific research and technological development. When World War One bogged down into interminable trench warfare, both sides called in the scientists to break the deadlock and save the nation. The men in white answered the call, and out of the laboratories rolled a constant stream of new wonder-weapons: combat aircraft, poison gas, tanks, submarines and ever more efficient machine guns, artillery pieces, rifles and bombs. 33. German V-2 rocket ready to launch. It didn’t defeat the Allies, but it kept the Germans hoping for a technological miracle until the very last days of the war. {© Ria Novosti/Science Photo Library.} Science played an even larger role in World War Two. By late 1944 Germany was losing the war and defeat was imminent. A year earlier, the Germans’ allies, the Italians, had toppled Mussolini and surrendered to the Allies. But Germany kept fighting on, even though the British, American and Soviet armies were closing in. One reason German soldiers and civilians thought not all was lost was that they believed German scientists were about to turn the tide with so-called miracle weapons such as the V-2 rocket and jet-powered aircraft. While the Germans were working on rockets and jets, the American Manhattan Project successfully developed atomic bombs. By the time the bomb was ready, in early August 1945, Germany had already surrendered, but Japan was fighting on. American forces were poised to invade its home islands. The Japanese vowed to resist the invasion and fight to the death, and there was every reason to believe that it was no idle threat. American generals told President Harry S. Truman that an invasion of Japan would cost the lives of a million American soldiers and would extend the war well into 1946. Truman decided to use the new bomb. Two weeks and two atom bombs later, Japan surrendered unconditionally and the war was over. But science is not just about offensive weapons. It plays a major role in our defences as well. Today many Americans believe that the solution to terrorism is technological rather than political. Just give millions more to the nanotechnology industry, they believe, and the United States could send bionic spy-flies into every Afghan cave, Yemenite redoubt and North African encampment. Once that’s done, Osama Bin Laden’s heirs will not be able to make a cup of coffee without a CIA spy-fly passing this vital information back to headquarters in Langley.

Deep in the nanoscale-size range, however, engineering encounters ultimate, atomic constraints on the size of even the simplest devices. Gears, shafts, and bearings, for example, can’t be made smaller than a few nanometers in diameter, simply because mechanical components must contain enough layers of atoms to provide suitable shapes, surfaces, and mechanical properties for the devices to function.

Within the microblock-size range, larger blocks enable faster assembly, while smaller blocks enable finer-grained customization, and there’s no reason to limit choices to a single size.

The Chemical Abstracts Service of the American Chemical Society maintains a registry that includes (at the moment) descriptions of 67,883,986 “commercially available chemicals” (many are themselves used in synthesis), and 56,703,135 descriptions of synthetic procedures.

The idea that human-transforming technology that mingles the dna of natural and synthetic beings and merges man with machines could somehow be used or even inspired by evil supernaturalism to foment destruction within the material world is for some people so exotic as to be inconceivable. Yet nothing should be more fundamentally clear, as students of

Hackworth took a bite of his sandwich, correctly anticipating that the meat would be gristly and that he would have plenty of time to think about his situation while his molars subdued it. He did have plenty of time, as it turned out; but as frequently happened to him in these situations, he could not bring his mind to bear on the subject at hand. All he could think about was the taste of the sauce. If the manifest of ingredients on the bottle had been legible, it would have read something like this: Water, blackstrap molasses, imported habanero peppers, salt, garlic, ginger, tomato puree, axle grease, real hickory smoke, snuff, butts of clove cigarettes, Guinness Stout fermentation dregs, uranium mill tailings, muffler cores, monosodium glutamate, nitrates, nitrites, nitrotes and nitrutes, nutrites, natrotes, powdered pork nose hairs, dynamite, activated charcoal, match-heads, used pipe cleaners, tar, nicotine, singlemalt whiskey, smoked beef lymph nodes, autumn leaves, red fuming nitric acid, bituminous coal, fallout, printer's ink, laundry starch, drain deaner, blue chrysotile asbestos, carrageenan, BHA, BHT, and natural flavorings.

The latest casualties of the march of technological progress are: the high-street clothes shop, the flushing water closet, the Main Battle Tank, and the first generation of quantum computers. New with the decade are cheap enhanced immune systems, brain implants that hook right into the Chomsky organ and talk to their owners through their own speech centers, and widespread public paranoia about limbic spam. Nanotechnology has shattered into a dozen disjoint disciplines, and skeptics are predicting that it will all peter out before long. Philosophers have ceded qualia to engineers, and the current difficult problem in AI is getting software to experience embarrassment. Fusion power is still, of course, fifty years away.

eight exponentially growing fields were chosen as the core of SU’s curriculum: biotechnology and bioinformatics; computational systems; networks and sensors; artificial intelligence; robotics; digital manufacturing; medicine; and nanomaterials and nanotechnology. Each of these has the potential to affect billions of people, solve grand challenges, and reinvent industries.

National Science Foundation report on the subject pointed out, “nanotechnology has the potential to enhance human performance, to bring sustainable development for materials, water, energy, and food, to protect against unknown bacteria and viruses, and even to diminish the reasons for breaking the peace [by creating universal abundance].

So how can we improve the educational system? We should probably first rethink school curricula, and link them in more obvious ways to social goals (elimination of poverty and crime, elevation of human rights, etc.), technological goals (boosting energy conservation, space exploration, nanotechnology, etc.), and medical goals (cures for cancer, diabetes, obesity, etc.) that we care about as a society. This way the students, teachers, and parents might see the larger point in education and become more enthusiastic and motivated about it. We should also work hard on making education a goal in itself, and stop confusing the number of hours students spend in school with the quality of the education they get. Kids can get excited about many things (baseball, for example), and it is our challenge as a society to make them want to know as much about Nobel laureates as they now know about baseball players. I am not suggesting that igniting a social passion for education is simple; but if we succeed in doing so, the value could be immense.

we proposed eighteen great ideas of science that we felt framed virtually all discoveries of the natural world and all advances in technology. We could not have foreseen many of the remarkable developments of the past two decades—nanotechnology archaea, LEDs, cloning, dark energy, ancient microbial fossils and deep microbial life, evidence for oceans of water on Mars and lakes of methane on Titan, ribozymes, carbon nanotubes, extrasolar planets, and so much more. But all of these unanticipated findings fit into the existing framework of science. The core concepts of science have not changed, and we are unable to point to any fundamentally new scientific principle that has emerged during the 1990s or 2000s. Accordingly, while every chapter has been significantly updated, we have added only a single new chapter on the explosion of advances in biotechnology. We conclude that the experience of the past two decades underscores the value of the great ideas approach to achieving scientific literacy.

Capitalism began as a theory about how the economy functions. It was both descriptive and prescriptive – it offered an account of how money worked and promoted the idea that reinvesting profits in production leads to fast economic growth. But capitalism gradually became far more than just an economic doctrine. It now encompasses an ethic – a set of teachings about how people should behave, educate their children and even think. Its principal tenet is that economic growth is the supreme good, or at least a proxy for the supreme good, because justice, freedom and even happiness all depend on economic growth. Ask a capitalist how to bring justice and political freedom to a place like Zimbabwe or Afghanistan, and you are likely to get a lecture on how economic affluence and a thriving middle class are essential for stable democratic institutions, and about the need therefore to inculcate Afghan tribesmen in the values of free enterprise, thrift and self-reliance. This new religion has had a decisive influence on the development of modern science, too. Scientific research is usually funded by either governments or private businesses. When capitalist governments and businesses consider investing in a particular scientific project, the first questions are usually ‘Will this project enable us to increase production and profits? Will it produce economic growth?’ A project that can’t clear these hurdles has little chance of finding a sponsor. No history of modern science can leave capitalism out of the picture. Conversely, the history of capitalism is unintelligible without taking science into account. Capitalism’s belief in perpetual economic growth flies in the face of almost everything we know about the universe. A society of wolves would be extremely foolish to believe that the supply of sheep would keep on growing indefinitely. The human economy has nevertheless managed to keep on growing throughout the modern era, thanks only to the fact that scientists come up with another discovery or gadget every few years – such as the continent of America, the internal combustion engine, or genetically engineered sheep. Banks and governments print money, but ultimately, it is the scientists who foot the bill. Over the last few years, banks and governments have been frenziedly printing money. Everybody is terrified that the current economic crisis may stop the growth of the economy. So they are creating trillions of dollars, euros and yen out of thin air, pumping cheap credit into the system, and hoping that the scientists, technicians and engineers will manage to come up with something really big, before the bubble bursts. Everything depends on the people in the labs. New discoveries in fields such as biotechnology and nanotechnology could create entire new industries, whose profits could back the trillions of make-believe money that the banks and governments have created since 2008. If the labs do not fulfil these expectations before the bubble bursts, we are heading towards very rough times.

The synthetic minimal cell would enable the production of materials too large or otherwise incompatible with the more elaborate functioning systems of a complex cell. It also represents our best shot at a general nanotech assembler, the dream of Eric Drexler and many nanotechnology enthusiasts since he first described it in his 1986 book Engines of Creation. We could then harness these synthetic minimal cells and put them to use in drug, vaccine, chemical, and biofuel development.

With the advent of nanotechnology, microfabrication has produced novel manmade constructs called metamaterials which exhibit entirely new properties in terms of their effect on light, effects which are not found in conventional materials, or even in nature itself. Early in the 21st century, a chance observation showed that an ultrathin layer of silver on a flat sheet of glass would act like a lens, and from this point, the development of the ‘perfect’ or ‘superlens’ began, with the theoretical possibility to image details such as viruses in living cells with a light microscope, bypassing Abbe’s diffraction limit. Metamaterials have been produced that make this possible, as they have a property previously unimagined in optics, and not found in nature, which is a negative refractive index.

The most complex technology inhabits the smallest dimension in matter.

The fringe will transform the way we live, work, and interact with one another. The confluence of emerging technologies leads to breakthroughs in Ai, neuroscience, robotics, the Internet of Things (IOT), blockchain, nanotechnology, energy storage, and computing, to name a few.

Everything depends on the people in the labs. New discoveries in fields such as biotechnology and nanotechnology could create entire new industries, whose profits could back the trillions of make-believe money that the banks and governments have created since 2008. If the labs do not fulfil these expectations before the bubble bursts, we are heading towards very rough times.

In search of sixty votes, CHIPS grew more expansive. To the White House’s delight, undecided Republican senators bartered for investment in research and development in their home states. The bill began to hark back to the Cold War, when the menace of a foreign enemy provided a pretext for expanding universities and erecting research laboratories. CHIPS now poured billions into the National Science Foundation, to fund research and development in artificial intelligence and nanotechnology. It set money aside to develop a deeper pool of American scientists, mathematicians, and engineers. But

Let me describe how that same thought applies to the world of education. I recently joined a federal committee on incentives and accountability in public education. This is one aspect of social and market norms that I would like to explore in the years to come. Our task is to reexamine the “No Child Left Behind” policy, and to help find ways to motivate students, teachers, administrators, and parents. My feeling so far is that standardized testing and performance-based salaries are likely to push education from social norms to market norms. The United States already spends more money per student than any other Western society. Would it be wise to add more money? The same consideration applies to testing: we are already testing very frequently, and more testing is unlikely to improve the quality of education. I suspect that one answer lies in the realm of social norms. As we learned in our experiments, cash will take you only so far—social norms are the forces that can make a difference in the long run. Instead of focusing the attention of the teachers, parents, and kids on test scores, salaries, and competition, it might be better to instill in all of us a sense of purpose, mission, and pride in education. To do this we certainly can't take the path of market norms. The Beatles proclaimed some time ago that you “Can't Buy Me Love” and this also applies to the love of learning—you can't buy it; and if you try, you might chase it away. So how can we improve the educational system? We should probably first rethink school curricula, and link them in more obvious ways to social goals (elimination of poverty and crime, elevation of human rights, etc.), technological goals (boosting energy conservation, space exploration, nanotechnology, etc.), and medical goals (cures for cancer, diabetes, obesity, etc.) that we care about as a society. This way the students, teachers, and parents might see the larger point in education and become more enthusiastic and motivated about it. We should also work hard on making education a goal in itself, and stop confusing the number of hours students spend in school with the quality of the education they get. Kids can get excited about many things (baseball, for example), and it is our challenge as a society to make them want to know as much about Nobel laureates as they now know about baseball players. I am not suggesting that igniting a social passion for education is simple; but if we succeed in doing so, the value could be immense.

You have to disentangle the details. You have to hold up every one independently, and ask, "How do we know *this* detail?" Someone sketches out a picture of humanity's descent into nanotechnological warfare, where China refuses to abide by an international control agreement, followed by an arms race ... Wait a minute—how do you know it will be China? Is that a crystal ball in your pocket or are you just happy to be a futurist? Where are all these details coming from? Where did *that specific* detail come from?

Nanotechnology experts are developing a bionic immune system composed of millions of nano-robots, who would inhabit our bodies, open blocked blood vessels, fight viruses and bacteria, eliminate cancerous cells and even reverse ageing processes.

—Students are being required in some schools and universities to use biometric id employing rfid for electronic monitoring.

—Will it matter if there is an “enhanced divide” between “new” people classifications?

the immaculate conception of her Son, Jesus

how often the “person” who delivers God’s special words of counsel at just the right moment might actually be an angel on assignment.

Such verses reflect the ancient (and we believe accurate) Jewish belief that God assigns protective angels to those who belong to Him.

There is always a temptation for governments to pursue science with particular commercial aims in view. But this rarely works. Had there been a stated purpose to quantum physics in the 1920s, it would have been deemed a failure. And yet quantum physics has given us the transistor, the laser, the basis of nanotechnology, and much else besides. Building a capacity for advanced technology is not like planning production in a socialist economy, but more like growing a rock garden. Planting, watering, and weeding are more appropriate than five-year plans.

Many, many rules had begun to bend at the hand of nanotechnology, gene therapy, robotics, artificial intelligence. This produced a lot of good, and a lot of bad. This trade-off has always plagued us. When you make waves, you produce peaks and troughs.

Kingdom Age” theology (also known as Reconstructionism, Kingdom Now Theology, Theonomy, Dominion Theology, and most recently, Dominionism), which singularly has wrought some of the most far-reaching destruction within the body of Christ this century.

but by reforming the very essence of our beings: our dna.

—Starting in 2006, the U.S. government began requiring passports to include rfid chips.

If human dna could be universally corrupted or “demonized,” they reasoned, no Savior would be born and mankind would be lost forever.

Conceptually at least, biology is becoming technology. And physically, technology is becoming biology. The two are starting to close on each other, and indeed as we move deeper into genomics and nanotechnology, more than this, they are starting to intermingle.

Modern biomimicry is far more than just copying nature's shapes. It includes systematic design and problem-solving processes, which are now being refined by scientists and engineers in universities and institutes worldwide. The first step in any of these processes is to clearly define the challenge we're trying to solve. Then we can determine whether the problem is related to form, function, or ecosystem. Next, we ask what plant, animal, or natural process solves a similar problem most effectively. For example, engineers trying to design a camera lens with the widest viewing angle possible found inspiration in the eyes of bees, which can see an incredible five-sixths of the way, or three hundred degrees, around their heads. The process can also work in reverse, where the exceptional strategies of a plant, animal, or ecosystem are recognized and reverse engineered. De Mestral's study of the tenacious grip of burrs on his socks is an early example of reverse engineering a natural winner, while researchers' fascination at the way geckos can hang upside down from the ceiling or climb vertical windows has now resulted in innovative adhesives and bandages. Designs based on biomimicry offer a range of economic benefits. Because nature has carried out trillions of parallel, competitive experiments for millions of years, its successful designs are dramatically more energy efficient than the inventions we've created in the past couple of hundred years. Nature builds only with locally derived materials, so it uses little transport energy. Its designs can be less expensive to manufacture than traditional approaches, because nature doesn't waste materials. For example, the exciting new engineering frontier of nanotechnology mirrors nature's manufacturing principles by building devices one molecule at a time. This means no offcuts or excess. Nature can't afford to poison itself either, so it creates and combines chemicals in a way that is nontoxic to its ecosystems. Green chemistry is a branch of biomimicry that uses this do-no-harm principle, to develop everything from medicines to cleaning products to industrial molecules that are safe by design. Learning from the way nature handles materials also allows one of our companies, PaxFan, to build fans that are smaller and lighter while giving higher performance. Finally, nature has methods to recycle absolutely everything it creates. In natures' closed loop of survival on this planet, everything is a resource and everything is recycled-one of the most fundamental components of sustainability. For all these reasons, as I hear one prominent venture capitalist declare, biomimicry will be the business of the twenty-first century. The global force of this emerging and fascinating field is undeniable and building on all societal levels.

This unique text in Matthew connecting the rock upon which the church would be built, the name of Jonah, and the gates of hell is not coincidence.

scientists inside Britain are comfortable now with up to 50/50 animal-human integration.

may be considered a rising religion because of its numerous parallels to religious themes and values involving godlike beings, the plan for eternal life, the religious sense of awe surrounding its promises, symbolic rituals among its members, an inspirational worldview based on faith, and technology that promises to heal the wounded, restore sight to the blind, and give hearing back to the deaf.

apotropaic (an adjective meaning “to ward off evil”) devices

To Peter, He said, “Upon this rock I will build my church; and the gates of hell shall not prevail against it. And I will give unto thee the keys of the kingdom of heaven; and whatsoever thou shalt bind on earth shall be bound in heaven: and whatsoever thou shalt loose on earth shall be loosed in heaven.

Even now, the synthetic forces that will plot man’s wholesale annihilation are quietly under design in leading laboratories, public and private, funded by the most advanced nations on earth, including the official governments of the United States, France, Britain, Australia, and China, to name a few.