Scientific Calculator Quotes

There's a scientific debate about the precise scale of our sleep loss, but the National Sleep Foundation has calculated that the amount of sleep we get has dropped by 20 percent in just a hundred years.

Suppression of our natural responses to disaster is part of the disease of our time. The refusal to acknowledge these responses causes a dangerous splitting. It divorces our mental calculations from our intuitive, emotional, and biological embeddedness in the matrix of life. That split allows us passively to acquiesce in the preparations for our own demise.

Already physicists are doing the basic calculations necessary to make an MRI machine fit into a cell phone.

Every brilliant experiment, like every great work of art, starts with an act of imagination. Unfortunately, our current culture subscribes to a very narrow definition of truth. If something can’t be quantified and calculated, then it can’t be true. Because this strict scientific approach has explained so much, we assume that it can explain everything. But every method, even the experimental method, has limits. Take the human mind. Scientists describe our brain in terms of its physical details; they say we are nothing but a loom of electrical cells and synaptic spaces. What science forgets is that this isn’t how we experience the world. (We feel like the ghost, not like the machine.) It is ironic but true: the one reality science cannot reduce is the only reality we will ever know. This is why we need art. By expressing our actual experience, the artist reminds us that our science is incomplete, that no map of matter will ever explain the immateriality of our consciousness.

Even calling DNA “source code” sells it short—compared to DNA, our most complex programming projects are like pocket calculators.

Obligasyon ko bang pasanin ang mga problema ng math? Bakit? Bababa ba ng bill ko sa internet pag nag-factor ako ng quadratic trinomial? Malulutas ba ng Laws of Exponents ang problema natin sa basura? Mababawasan ba ng Associative Law for Multiplication ang mga krimen sa bansa? Makakabuti ba sa mag-asawa kung malalaman nila ang sum and difference of two cubes? Maganda ba sa sirkulasyon ng dugo ang parallelogram, polynomial at cotangent? Makatwiran bang pakisamahan ang mga irrational numbers? Anak ng scientific calculator!

GPS timing is incredibly precise; of all the problems in engineering, it’s one of the only ones in which engineers have been forced to include both special and general relativity in their calculations.

While researching this answer, I managed to lock up my copy of Mathematica several times on balloon-related differential equations, and subsequently got my IP address banned from Wolfram|Alpha for making too many requests. The ban-appeal form asked me to explain what task I was performing that necessitated so many queries. I wrote, “Calculating how many rental helium tanks you’d have to carry with you in order to inflate a balloon large enough to act as a parachute and slow your fall from a jet aircraft.” Sorry, Wolfram.

Once you go digging into the actual technical mechanisms by which predictability is calculated, you come to understand that its science is, in fact, anti-scientific, and fatally misnamed: predictability is actually manipulation. A website that tells you that because you liked this book you might also like books by James Clapper or Michael Hayden isn’t offering an educated guess as much as a mechanism of subtle coercion.

Isn’t it weird?” he said, glancing up as I measured salt. “All the variety that life offers? Here we sit, me reading expressions of creativity.” He held up the poetry book, which to my dismay, was now worn and dog-eared. “And you doing scientific and magical calculations. We’re thinking, cerebral beings one minute . . . and the next, completely given over to physical acts of passion. How do we do that? Back and forth, mind and body? How can creatures like us go from extreme to extreme?

But an essentially mechanical world would be an essentially meaningless world! Suppose that one assessed the value of a piece of music according to how much of it could be counted, calculated, put into formulas; how absurd such a 'scientific' assessment of music would be! What would one have comprehended, understood, known about it? Nothing, absolutely nothing of what is really 'music' in it!

We are indeed dealing with two entirely different approaches to reality and to solving problems — methods we will here call the rational method and the magical one. The rational approach works quite well in certain situations, such as mass production of goods, or in certain kinds of scientific measurements — but all in all the rational method, as it is understood and used, does not work as an overall approach to life, or in the solving of problems that involve subjective rather than objective measurements or calculations. The magical approach has far greater weight, if you use it and allow yourselves to operate in that fashion, for it has the weight of your basic natural orientation.

When a hypothesis enters a scientist's mind, he checks it by calculation and experiment, that is, by the mimicry and the pantomime of truth. It's plausibility infects others, and the hypothesis is accepted as the true explanation for the given phenomenon, until someone finds its faults.

For the ten-dimensional universe, however, there are apparemtly millions of ways in which to curl up. To calculate which state the ten-dimensional universe prefers, we need to solve the field theory of strings using the theory of phase transitions, the most difficult problem in quantum theory.

Once you go digging into the actual technical mechanisms by which predictability is calculated, you come to understand that its science is, in fact, anti-scientific, and fatally misnamed: predictability is actually manipulation.

How much computing power could we could achieve if the entire world population stopped whatever we are doing right now and started doing calculations? How would it compare to a modern-day computer or smartphone?

In [David] Douglas's success in life ... his great activity, undaunted courage, singular abstemiousness, and energetic zeal, at once pointed him out as an individual eminently calculated to do himself credit as a scientific traveler.

As you all know, love is… complicated for me. It is something that adheres to no scientific or mathematic principles—it cannot be measured, weighed, or calculated. As such, it’s hard to credit that it even exists. I was certain we could find life in the stars before we could find scientific evidence that love was real.

Now I ask you: what can be expected of man since he is a being endowed with strange qualities? Shower upon him every earthly blessing, drown him in a sea of happiness, so that nothing but bubbles of bliss can be seen on the surface; give him economic prosperity, such that he should have nothing else to do but sleep, eat cakes and busy himself with the continuation of his species, and even then out of sheer ingratitude, sheer spite, man would play you some nasty trick. He would even risk his cakes and would deliberately desire the most fatal rubbish, the most uneconomical absurdity, simply to introduce into all this positive good sense his fatal fantastic element. It is just his fantastic dreams, his vulgar folly that he will desire to retain, simply in order to prove to himself—as though that were so necessary—that men still are men and not the keys of a piano, which the laws of nature threaten to control so completely that soon one will be able to desire nothing but by the calendar. And that is not all: even if man really were nothing but a piano-key, even if this were proved to him by natural science and mathematics, even then he would not become reasonable, but would purposely do something perverse out of simple ingratitude, simply to gain his point. And if he does not find means he will contrive destruction and chaos, will contrive sufferings of all sorts, only to gain his point! He will launch a curse upon the world, and as only man can curse (it is his privilege, the primary distinction between him and other animals), may be by his curse alone he will attain his object—that is, convince himself that he is a man and not a piano-key! If you say that all this, too, can be calculated and tabulated—chaos and darkness and curses, so that the mere possibility of calculating it all beforehand would stop it all, and reason would reassert itself, then man would purposely go mad in order to be rid of reason and gain his point! I believe in it, I answer for it, for the whole work of man really seems to consist in nothing but proving to himself every minute that he is a man and not a piano-key! It may be at the cost of his skin, it may be by cannibalism! And this being so, can one help being tempted to rejoice that it has not yet come off, and that desire still depends on something we don’t know?

Owing to the shape of a bell curve, the education system is geared to the mean. Unfortunately, that kind of education is virtually calculated to bore and alienate gifted minds. But instead of making exceptions where it would do the most good, the educational bureaucracy often prefers not to be bothered. In my case, for example, much of the schooling to which I was subjected was probably worse than nothing. It consisted not of real education, but of repetition and oppressive socialization (entirely superfluous given the dose of oppression I was getting away from school). Had I been left alone, preferably with access to a good library and a minimal amount of high-quality instruction, I would at least have been free to learn without useless distractions and gratuitous indoctrination. But alas, no such luck. Let’s try to break the problem down a bit. The education system […] is committed to a warm and fuzzy but scientifically counterfactual form of egalitarianism which attributes all intellectual differences to environmental factors rather than biology, implying that the so-called 'gifted' are just pampered brats who, unless their parents can afford private schooling, should atone for their undeserved good fortune by staying behind and enriching the classroom environments of less privileged students. This approach may appear admirable, but its effects on our educational and intellectual standards, and all that depends on them, have already proven to be overwhelmingly negative. This clearly betrays an ulterior motive, suggesting that it has more to do with social engineering than education. There is an obvious difference between saying that poor students have all of the human dignity and basic rights of better students, and saying that there are no inherent educationally and socially relevant differences among students. The first statement makes sense, while the second does not. The gifted population accounts for a very large part of the world’s intellectual resources. As such, they can obviously be put to better use than smoothing the ruffled feathers of average or below-average students and their parents by decorating classroom environments which prevent the gifted from learning at their natural pace. The higher we go on the scale of intellectual brilliance – and we’re not necessarily talking just about IQ – the less support is offered by the education system, yet the more likely are conceptual syntheses and grand intellectual achievements of the kind seldom produced by any group of markedly less intelligent people. In some cases, the education system is discouraging or blocking such achievements, and thus cheating humanity of their benefits.

It was sort of amazing seeing men who weren't particularly attractive but who believed, more or less correctly, that they could have and do whatever they wanted. I was always calculating with scientific precision the relative beauty of the people I wanted to be with, and would steer clear of the ones who exceeded me too greatly. But then you'd see guys like this one trundling around the world, reaching out, cheerily thoughtless, for whatever shiny thing passed. They didn't feel the need to strike an equitable bargain, they just advanced towards you, grinning a little sheepishly maybe, and their entitlement was so alien and enviable that it was something like charming.

If you cross examine a child of seven or eight on his day's doings (specially when he wants to go to sleep), he will contradict himself very satisfactorily. If each contradiction be set down as a lie and retailed at breakfast, life is not easy. I have known a certain amount of bullying, but this was calculated torture - religious as well as scientific.

Six-Foot-One I've scientifically calculated the height of presumption to be six-foot-one.

engineers have been forced to include both special and general relativity in their calculations.

The result of the scientific work we have been considering was that the outlook of educated men was completely transformed. At the beginning of the century, Sir Thomas Browne took part in trials for witchcraft; at the end, such a thing would have been impossible. In Shakespeare's time, comets were still portents; after the publication of Newton's Principia in 1687, it was known that he and Halley had calculated the orbits of certain comets, and that they were as obedient as the planets to the law of gravitation. The reign of law had established its hold on men's imaginations, making such things as magic and sorcery incredible. In 1700 the mental outlook of educated men was completely modern; in 1600, except among a very few, it was still largely medieval.

Adams and Jefferson lived in an age of quantification. It began with the measurement of time. Time used to be a wheel that turned, and turned again; during the scientific revolution, time became a line. Time, the easiest quantity to measure, became the engine of every empirical inquiry: an axis, an arrow. This new use and understanding of time contributed to the idea of progress—if time is a line instead of a circle, things can get better and even better, instead of forever rising and falling in endless cycles, like the seasons. The idea of progress animated American independence and animated, too, the advance of capitalism. The quantification of time led to the quantification of everything else: the counting of people, the measurement of their labor, and the calculation of profit as a function of time.

Those who are unacquainted with the details of scientific investigation have no idea of the amount of labour expended in the determination of those numbers on which important calculations or inferences depend. They have no idea of the patience shown by a Berzelius in determining atomic weights; by a Regnault in determining coefficients of expansion; or by a Joule in determining the mechanical equivalent of heat.

The nay-sayers insist loudly that they're "climate sceptics", but this is a calculated misnomer – scientific scepticism is the method of investigating whether a particular hypothesis is supported by the evidence. Climate sceptics, by contrast, persist in ignoring empirical evidence that renders their position untenable. This isn't scepticism, it's unadulterated denialism, the very antithesis of critical thought.

Humankind is an instinctive creature that is capable of feelings and rational thoughts, which accounts for why such a rich diversity exists amongst human nature. A person’s unique personality is simply a crystallization of particular aspects of human nature. Freedom of thought and expression ensures that no person replicates another person’s exact persona. Every person is a creature of predicable needs and impulses, infused with the poetry of multifaceted feelings, and ruled by a scientifically calculated instrument capable of precision of thought.

theory of natural selection itself seems calculated to foster selfishness at the expense of public good, violence, callous indifference to suffering, short term greed at the expense of long term foresight. If scientific theories could vote, evolution would surely vote Republican.

When you listen to the beautiful sounds of stereo music, remember that you are listening to the rhythms of trillions of electrons obeying this and other bizarre laws of quantum mechanics. But if quantum mechanics were incorrect, then all of electronics including television sets, computers, radios, stereo, and so on, would cease to function. (In fact, if quantum theory were incorrect, the atoms in our bodies would collapse, and we would instantly disintegrate. According to Maxwell's equations, the electrons spinning in an atom should lose their energy within a microsecond and plunge into the nucleus. This sudden collapse is prevented by quantum theory. Thus the fact that we exist is living proof of the correctness of quantum mechanics.) This also means that there is a finite, calculable probability that "impossible" events will occur. For example, I can calculate the probability that I will unexpectedly disappear and tunnel through the earth and reappear in Hawaii. (The time we would have to wait for such an event to occur, it should be pointed out, is longer than the lifetime of the universe. So we cannot use quantum mechanics to tunnel to vacation spots around the world.)

And Mallow laughed joyously. "You've missed, Sutt, missed as badly as the Commdor himself. You've missed everything, and understood nothing. The Empire has always been a realm of colossal resources. They've calculated everything in planets, in stellar systems, in whole sectors of the Galaxy. Their generators are gigantic because they thought in gigantic fashion. "But we,—we, our little Foundation, our single world almost without metallic resources,—have had to work with brute economy. Our generators have had to be the size of our thumb, because it was all the metal we could afford. We had to develop new techniques and new methods,—techniques and methods the Empire can't follow because they have degenerated past the stage where they can make any vital scientific advance. "With all their nuclear shields, large enough to protect a ship, a city, an entire world; hey could never build one to protect a single man. To supply light and heat to a city, they have motors six stories high,—I saw them—where ours could fit into this room. And when I told one of their nuclear specialists that a lead container the size of a walnut contained a nuclear generator, he almost choked with indignation on the spot. "Why, they don't even understand their own colossi any longer. The machines work from generation to generation automatically and the caretakers are a hereditary caste who would be helpless if a single D-tube in all that vast structure burnt out. "The whole war is a battle between these two systems; between the Empire and the Foundation; between the big and the little. To seize control of a world, they bribe with immense ships that can make war, but lack all economic significance. We, on the other hand, bribe with little things, useless in war, but vital to prosperity and profits. "A king, or a Commdor, will take the ships and even make war. Arbitrary rulers throughout history have bartered their subjects' welfare for what they consider honor, and glory, and conquest. But it's still the little things in life that count—and Asper Argo won't stand up against the economic depression that will sweep all Korell in two or three years.

The Julian calendar, which it replaced, computed the period of the earth’s orbit around the sun at 365.25 days. Pope Gregory XIII’s reform substituted a finer and more accurate calculation: 365.2425 days. Thanks to scientific advances since 1582 we now know that the exact length of the solar year is 365.2422 days.

Logic is our assurance,” MacDonald said calmly. “The only thing worth sending from star to star is information, and the certain profit from such an exchange far outweighs the uncertain advantage from any other kind of behavior. The first benefit is the knowledge of other intelligent creatures in the universe—this alone gives us strength and courage. Then comes information from an alien world; it is like having our own instruments there, even our own scientists, to measure and record, only with the additional advantage of a breadth and duration of measurements under a variety of conditions. Finally comes the cultural and scientific knowledge and development of another race, and the treasure to be gained from this kind of exchange is beyond calculation.

the strangely elusive and counterintuitive character of the quantum world has encouraged some to suggest that the idea of entities like electrons which can be in unpicturable states such as superpositions of being ‘here’ and being ‘there’ is no more than a convenient manner of speaking which facilitates calculations, and that electrons themselves are not to be taken with ontological seriousness. The counterattack of the scientific realist appeals to intelligibility as the key to reality. It is precisely because the assumption of the existence of electrons allows us to understand a vast range of directly accessible phenomena—such as the periodic table in chemistry, the phenomenon of superconductivity at low temperatures and the behaviour of devices such as the laser—that we take their existence seriously.

To impress my Ph.D. students with just how bizarre the quantum theory is, I sometimes ask them to calculate the probability that their atoms will suddenly dissolve and reappear on the other side of a brick wall. Such a teleportation event is impossible under Newtonian physics but is actually allowed under quantum mechanics. The answer, however, is that one would have to wait longer than the lifetime of the universe for this to occur. (If you used a computer to graph the Schrödinger wave of your own body, you would find that it very much resembles all the features of your body, except that the graph would be a bit fuzzy, with some of your waves oozing out in all directions. Some of your waves would extend even as far as the distant stars. So there is a very tiny probability that one day you might wake up on a distant planet.)

The idea that humans will always have a unique ability beyond the reach of non-conscious algorithms is just wishful thinking. The current scientific answer to this pipe dream can be summarised in three simple principles: 1. Organisms are algorithms. Every animal – including Homo sapiens – is an assemblage of organic algorithms shaped by natural selection over millions of years of evolution. 2. Algorithmic calculations are not affected by the materials from which you build the calculator. Whether you build an abacus from wood, iron or plastic, two beads plus two beads equals four beads. 3. Hence there is no reason to think that organic algorithms can do things that non-organic algorithms will never be able to replicate or surpass. As long as the calculations remain valid, what does it matter whether the algorithms are manifested in carbon or silicon?

As we mentioned in the previous chapter, scientific insights into the way our brains and bodies work suggest that our feelings are not some uniquely human spiritual quality, and they do not reflect any kind of 'free will'. Rather, feelings are biochemical mechanisms that all mammals and birds use in order to quickly calculate probabilities of survival and reproduction. Feelings aren't based on intuition, inspiration or freedom they are based on calculation.

In a classic study of how names impact people’s experience on the job market, researchers show that, all other things being equal, job seekers with White-sounding first names received 50 percent more callbacks from employers than job seekers with Black-sounding names.5 They calculated that the racial gap was equivalent to eight years of relevant work experience, which White applicants did not actually have; and the gap persisted across occupations, industry, employer size – even when employers included the “equal opportunity” clause in their ads.6 With emerging technologies we might assume that racial bias will be more scientifically rooted out. Yet, rather than challenging or overcoming the cycles of inequity, technical fixes too often reinforce and even deepen the status quo. For example, a study by a team of computer scientists at Princeton examined whether a popular algorithm, trained on human writing online, would exhibit the same biased tendencies that psychologists have documented among humans. They found that the algorithm associated White-sounding names with “pleasant” words and Black-sounding names with “unpleasant” ones.7 Such findings demonstrate what I call “the New Jim Code”: the employment of new technologies that reflect and reproduce existing inequities but that are promoted and perceived as more objective or progressive than the discriminatory systems of a previous era.

On that basis, the earliest burials in the Forum would be around 1000 BCE, the huts on the Palatine around 750–700 BCE (excitingly close to 753 BCE, as many have observed). But even these dates are far from certain. Recent scientific methods – including ‘radiocarbon dating’, which calculates the age of any organic material by measuring the residual amount of its radioactive carbon isotope – have suggested that they are all too ‘young’, by as much as a hundred years.

As we mentioned in the previous chapter, scientific insights into the way our brains and bodies work suggest that our feelings are not some uniquely human spiritual quality, and they do not reflect any kind of 'free will'. Rather, feelings are biochemical mechanisms that all mammals and birds use in order to quickly calculate probabilities of survival and reproduction. Feelings aren't based on intuition, inspiration or freedom they are based on calculation. (page 36)

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

Since our reason, our scientific experiments and our calculations do not reveal anything definite about the origin of human life and its destinies after bodily death, we ought to concentrate all our energies on the development of our material and intellectual potential and not allow ourselves to be hampered by transcendental ethics and moral postulates based on assumptions which defy scientific proof.' Thus, while Western society did not expressly deny God, it simply no longer had room for Him in its intellectual system.

Roger Bacon, a Franciscan monk, was arguably the greatest mathematician of the thirteenth century. Bishop Robert Grosseteste was the first man to write down the necessary steps for performing a scientific experiment. Jesuits had built the first reflecting telescopes, microscopes, barometers, were first to calculate the constant of gravity, the first to measure the height of the mountains on the moon, the first to develop an accurate method of calculating a planet’s orbit, the first to devise and publish a coherent description of atomic theory.

one can ask why they didn’t explore more vigorously the possible environmental consequences of this unprecedented ecological experiment—an all-out thermonuclear war—for which they were preparing. Or why, more than thirty years since scientists first posited these dangers, and more than ten years since scientific uncertainties about their calculations have been put to rest, our plans have continued to include “options” for detonating hundreds of nuclear explosions near cities, which would loft enough soot and smoke into the upper stratosphere to lead to death by starvation of nearly everyone on earth, including, after all, ourselves.

The reality is that Ada’s contribution was both profound and inspirational. More than Babbage or any other person of her era, she was able to glimpse a future in which machines would become partners of the human imagination, together weaving tapestries as beautiful as those from Jacquard’s loom. Her appreciation for poetical science led her to celebrate a proposed calculating machine that was dismissed by the scientific establishment of her day, and she perceived how the processing power of such a device could be used on any form of information. Thus did Ada, Countess of Lovelace, help sow the seeds for a digital age that would blossom a hundred years later.

Wolfram, one of the most innovative thinkers in scientific computing and in the theory of complex systems, has been best known for the development of Mathematica, a computer program/system that allows a range of calculations not accessible before. After ten years of virtual silence, Wolfram is about to emerge with a provocative book that makes the bold claim that he can replace the basic infrastructure of science. In a world used to more than three hundred years of science being dominated by mathematical equations as the basic building blocks of models for nature, Wolfram proposes simple computer programs instead. He suggests that nature's main secret is the use of simple programs to generate complexity.

The 'astronomical chronology' is a framework of the scientific structure of Egyptian history and, consequently, of the history of the ancient world. . . . The specialists in astronomical chronology made their calculations and announced their expert results. The specialists in pottery took the results of the specialists in Sothic computation as a firm base on which to build. Specialists in the history of religion, philology, and history in general followed. Difficulties were swept away. . . .The readers of cuneiform borrow dates from the readers of hieroglyphics; the Bible exegetes from the archaeologist; the historians from all of them. Thus there came into existence an elaborate entrenched system that bears very little resemblance to the real past. . . . The Sothic scheme of ancient chronology of the world is built on this chronology.

A “scientific” interpretation of the world, as you understand, might therefore still be one of the most stupid of all possible interpretations of the world, meaning that it would be one of the poorest in meaning. This thought is intended for the ears and consciences of our mechanists who nowadays like to pass as philosophers and insist that mechanics is the doctrine of the first and last laws on which all existence must be based as on the ground floor. But an essentially mechanical world would be an essentially meaningless world. Assuming that one estimated the value of a piece of music according to how much of it could be counted, calculated, and expressed in formulas: how absurd would such a “scientific” estimation of music be! What would one have comprehended, understood, grasped of it? Nothing, really nothing of what is “music” in it.

Who among us can predict the future? Who would dare to? The answer to the first question is no one, really, and the answer to the second is everyone, especially every government and business on the planet. This is what that data of ours is used for. Algorithms analyze it for patterns of established behavior in order to extrapolate behaviors to come, a type of digital prophecy that’s only slightly more accurate than analog methods like palm reading. Once you go digging into the actual technical mechanisms by which predictability is calculated, you come to understand that its science is, in fact, anti-scientific, and fatally misnamed: predictability is actually manipulation. A website that tells you that because you liked this book you might also like books by James Clapper or Michael Hayden isn’t offering an educated guess as much as a mechanism of subtle coercion.

In 1604, at the height of his scientific career, Galileo argued that for a rectilinear motion in which speed increases proportionally to distance covered, the law of motion should be just that (x = ct^2) which he had discovered in the investigation of falling bodies. Between 1695 and 1700 not a single one of the monthly issues of Leipzig’s Acta Eruditorum was published without articles of Leibniz, the Bernoulli brothers or the Marquis de l'Hôpital treating, with notation only slightly different from that which we use today, the most varied problems of differential calculus, integral calculus and the calculus of variations. Thus in the space of almost precisely one century infinitesimal calculus or, as we now call it in English, The Calculus, the calculating tool par excellence, had been forged; and nearly three centuries of constant use have not completely dulled this incomparable instrument.

Oppie had found the time to coauthor a paper with Hans Bethe, published in Physical Review, on electron scattering. That year he was nominated for the Nobel Prize in physics—but the Nobel committee evidently hesitated to give the award to someone whose name was so closely associated with Hiroshima and Nagasaki. Over the next four years, he published three more short physics papers and one paper on biophysics. But after 1950, he never published another scientific paper. “He didn’t have Sitzfleisch,” said Murray Gell-Mann, a visiting physicist at the Institute in 1951. “Perseverance, the Germans call it Sitzfleisch, ‘sitting flesh,’ when you sit on a chair. As far as I know, he never wrote a long paper or did a long calculation, anything of that kind. He didn’t have patience for that; his own work consisted of little aperçus, but quite brilliant ones. But he inspired other people to do things, and his influence was fantastic.

It is no different with the faith with which so many materialistic natural scientists rest content nowadays, the faith in a world that is supposed to have its equivalent and its measure in human thought and human valuations—a “world of truth” that can be mastered completely and forever with the aid of our square little reason. What? Do we really want to permit existence to be degraded for us like this—reduced to a mere exercise for a calculator and an indoor diversion for mathematicians? Above all, one should not wish to divest existence of its rich ambiguity; that is a mandate of good taste, gentlemen, the taste of reverence for everything that lies beyond your horizon. That the only justifiable interpretation of the world should be one in which you are justified because one can continue doing research scientifically in your sense (you really mean, mechanistically?)—an interpretation that permits counting, calculating, weighing, seeing, and touching, and nothing more—that is the crudity and naiveté, assuming that it is not a mental illness, an idiocy.

Part of the problem is the extraordinary place that economics currently holds in the social sciences. In many ways it is treated as a kind of master discipline. Just about anyone who runs anything important in America is expected to have some training in economic theory, or at least to be familiar with its basic tenets. As a result, those tenets have come to be treated as received wisdom, as basically beyond question (one knows one is in the presence of received wisdom when, if one challenges some tenet of it, the first reaction is to treat one as simply ignorant—“You obviously have never heard of the Laffer Curve”; “Clearly you need a course in Economics 101”—the theory is seen as so obviously true that no one exposed to it could possibly disagree). What’s more, those branches of social theory that make the greatest claims to “scientific status”—“rational choice theory,” for instance—start from the same assumptions about human psychology that economists do: that human beings are best viewed as self-interested actors calculating how to get the best terms possible out of any situation, the most profit or pleasure or happiness for the least sacrifice or investment—curious, considering experimental psychologists have demonstrated over and over again that these assumptions simply aren’t true.2

In the last few years I have been advocating a methodology of scientific research programmes, which solves some of the problems which both Popper and Kuhn failed to solve. First, I claim that the typical descriptive unit of great scientific achievements is not an isolated hypothesis but rather a research programme. Science is not simply trial and error, a series of conjectures and refutations. ‘All swans are white’ may be falsified by the discovery of one black swan. But such trivial trial and error does not rank as science. Newtonian science, for instance, is not simply a set of four conjectures—the three laws of mechanics and the law of gravitation. These four laws constitute only the ‘hard core’ of the Newtonian programme. But this hard core is tenaciously protected from refutation by a vast ‘protective belt’ of auxiliary hypotheses. And, even more importantly, the research programme also has a ‘heuristic’, that is, a powerful problem-solving machinery, which, with the help of sophisticated mathematical techniques, digests anomalies and even turns them into positive evidence. For instance, if a planet does not move exactly as it should, the Newtonian scientist checks his conjectures concerning atmospheric refraction, concerning propaga­tion of light in magnetic storms, and hundreds of other conjectures which are all part of the programme. He may even invent a hitherto unknown planet and calculate its position, mass and velocity in order to explain the anomaly.

One argument of Uniqueness is that it is not any particular renaissance, revolution, or liberal institution that marks out the West, but its far higher levels of achievement in all the intellectual and artistic spheres of life. I relied on Charles Murray’s book, Human Accomplishment: Pursuit of Excellence in the Arts and Sciences, 800 B.C. to 1950, to make this argument.[1] This book is the first effort to quantify ‘as facts’ the accomplishments of individuals and countries across the world in the arts and sciences, by calculating the amount of space allocated to these individuals in reference works, encyclopaedias, and dictionaries. Murray concludes that ‘whether measured in people or events, 97% of accomplishment in the scientific inventories occurred in Europe and North America’ from 800 BC to 1950.[2] Murray also notes the far higher accomplishments of Europeans in the arts, particularly after 1400. Although Murray does not compare their achievements but compiles separate lists for each civilisation, he notes that the sheer number of ‘significant figures’ in the arts is higher in the West in comparison to the combined number of the other civilisations.[3] In literature, the number in the West is 835; whereas in India, the Arab World, China, and Japan combined, the number is 293. In the visual arts, it is 479 for the West as compared to 192 for China and Japan combined (with no significant figures listed for India and the Arab World). In music, ‘the lack of a tradition of named composers in non-Western civilization means that the Western total of 522 significant figures has no real competition at all’.

Moreland sired some decent sons,” Rothgreb remarked. “And that’s a pretty filly they have for a sister. Not as brainless as the younger girls, either.” “Lady Sophia is very pretty.” Also kind, intelligent, sweet, and capable of enough passion to burn a man’s reason to cinders. “She’s mighty attached to the lad, though.” His uncle shot him a look unreadable in the gloom of the chilly hallways. “Women take on over babies.” “He’s a charming little fellow, but he’s a foundling. I believe she intends to foster him. Watch your step.” He took his uncle’s bony elbow at the stairs, only to have his hand shaken off. “For God’s sake, boy. I can navigate my own home unaided. So if you’re attracted to the lady, why don’t you provide for the boy? You can spare the blunt.” Vim paused at the first landing and held the candle a little closer to his uncle’s face. “What makes you say I’m attracted to Lady Sophia? And how would providing for the child endear me to her?” “Women set store by orphans, especially wee lads still in swaddling clothes. Never hurts to put yourself in a good light when you want to impress a lady.” His uncle went up the steps, leaning heavily on the banister railing. “And why would I want to impress Lady Sophia?” “You ogle her,” Rothgreb said, pausing halfway up the second flight. “I do not ogle a guest under our roof.” “You watch her, then, when you don’t think anybody’s looking. In my day, we called that ogling. You fret over her, which I can tell you as a man married for more than fifty years, is a sure sign a fellow is more than infatuated with his lady.” Vim remained silent, because he did, indeed, fret over Sophie Windham. “And you have those great, strapping brothers of hers falling all over themselves to put the two of you together.” Rothgreb paused again at the top of the steps. Vim paused too, considering his uncle’s words. “They aren’t any more strapping than I am.” Except St. Just was more muscular. Lord Val was probably quicker with his fists than Vim, and Westhaven had a calculating, scientific quality to him that suggested each of his blows would count. “They were all but dancing with each other to see that you sat next to their sister.

To give you a sense of the sheer volume of unprocessed information that comes up the spinal cord into the thalamus, let’s consider just one aspect: vision, since many of our memories are encoded this way. There are roughly 130 million cells in the eye’s retina, called cones and rods; they process and record 100 million bits of information from the landscape at any time. This vast amount of data is then collected and sent down the optic nerve, which transports 9 million bits of information per second, and on to the thalamus. From there, the information reaches the occipital lobe, at the very back of the brain. This visual cortex, in turn, begins the arduous process of analyzing this mountain of data. The visual cortex consists of several patches at the back of the brain, each of which is designed for a specific task. They are labeled V1 to V8. Remarkably, the area called V1 is like a screen; it actually creates a pattern on the back of your brain very similar in shape and form to the original image. This image bears a striking resemblance to the original, except that the very center of your eye, the fovea, occupies a much larger area in V1 (since the fovea has the highest concentration of neurons). The image cast on V1 is therefore not a perfect replica of the landscape but is distorted, with the central region of the image taking up most of the space. Besides V1, other areas of the occipital lobe process different aspects of the image, including: •  Stereo vision. These neurons compare the images coming in from each eye. This is done in area V2. •  Distance. These neurons calculate the distance to an object, using shadows and other information from both eyes. This is done in area V3. •  Colors are processed in area V4. •  Motion. Different circuits can pick out different classes of motion, including straight-line, spiral, and expanding motion. This is done in area V5. More than thirty different neural circuits involved with vision have been identified, but there are probably many more. From the occipital lobe, the information is sent to the prefrontal cortex, where you finally “see” the image and form your short-term memory. The information is then sent to the hippocampus, which processes it and stores it for up to twenty-four hours. The memory is then chopped up and scattered among the various cortices. The point here is that vision, which we think happens effortlessly, requires billions of neurons firing in sequence, transmitting millions of bits of information per second. And remember that we have signals from five sense organs, plus emotions associated with each image. All this information is processed by the hippocampus to create a simple memory of an image. At present, no machine can match the sophistication of this process, so replicating it presents an enormous challenge for scientists who want to create an artificial hippocampus for the human brain.

Similarly, the computers used to run the software on the ground for the mission were borrowed from a previous mission. These machines were so out of date that Bowman had to shop on eBay to find replacement parts to get the machines working. As systems have gone obsolete, JPL no longer uses the software, but Bowman told me that the people on her team continue to use software built by JPL in the 1990s, because they are familiar with it. She said, “Instead of upgrading to the next thing we decided that it was working just fine for us and we would stay on the platform.” They have developed so much over such a long period of time with the old software that they don’t want to switch to a newer system. They must adapt to using these outdated systems for the latest scientific work. Working within these constraints may seem limiting. However, building tools with specific constraints—from outdated technologies and low bitrate radio antennas—can enlighten us. For example, as scientists started to explore what they could learn from the wait times while communicating with deep space probes, they discovered that the time lag was extraordinarily useful information. Wait times, they realized, constitute an essential component for locating a probe in space, calculating its trajectory, and accurately locating a target like Pluto in space. There is no GPS for spacecraft (they aren’t on the globe, after all), so scientists had to find a way to locate the spacecraft in the vast expanse. Before 1960, the location of planets and objects in deep space was established through astronomical observation, placing an object like Pluto against a background of stars to determine its position.15 In 1961, an experiment at the Goldstone Deep Space Communications Complex in California used radar to more accurately define an “astronomical unit” and help measure distances in space much more accurately.16 NASA used this new data as part of creating the trajectories for missions in the following years. Using the data from radio signals across a wide range of missions over the decades, the Deep Space Network maintained an ongoing database that helped further refine the definition of an astronomical unit—a kind of longitudinal study of space distances that now allows missions like New Horizons to create accurate flight trajectories. The Deep Space Network continued to find inventive ways of using the time lag of radio waves to locate objects in space, ultimately finding that certain ways of waiting for a downlink signal from the spacecraft were less accurate than others. It turned to using the antennas from multiple locations, such as Goldstone in California and the antennas in Canberra, Australia, or Madrid, Spain, to time how long the signal took to hit these different locations on Earth. The time it takes to receive these signals from the spacecraft works as a way to locate the probes as they are journeying to their destination. Latency—or the different time lag of receiving radio signals on different locations of Earth—is the key way that deep space objects are located as they journey through space. This discovery was made possible during the wait times for communicating with these craft alongside the decades of data gathered from each space mission. Without the constraint of waiting, the notion of using time as a locating feature wouldn’t have been possible.

The sensational event of the ancient world was the mobilisation of the underworld against the established order. This enterprise of Christianity had no more to do with religion than Marxist socialism has to do with the solution of the social problem. The notions represented by Jewish Christianity were strictly unthinkable to Roman brains. The ancient world had a liking for clarity. Scientific research was encouraged there. The gods, for the Romans, were familiar images. It is some what difficult to know whether they had any exact idea of the Beyond. For them, eternal life was personified in living beings, and it consisted in a perpetual renewal. Those were conceptions fairly close to those which were current amongst the Japanese and Chinese at the time when the Swastika made its appearance amongst them. It was necessary for the Jew to appear on the scene and introduce that mad conception of a life that continues into an alleged Beyond! It enables one to regard life as a thing that is negligible here below—since it will flourish later, when it no longer exists. Under cover of a religion, the Jew has introduced intolerance in a sphere in which tolerance formerly prevailed. Amongst the Romans, the cult of the sovereign intelligence was associated with the modesty of a humanity that knew its limits, to the point of consecrating altars to the unknown god. The Jew who fraudulently introduced Christianity into the ancient world—in order to ruin it—re-opened the same breach in modern times, this time taking as his pretext the social question. It's the same sleight-of-hand as before. Just as Saul was changed into St. Paul, Mardochai became Karl Marx. Peace can result only from a natural order. The condition of this order is that there is a hierarchy amongst nations. The most capable nations must necessarily take the lead. In this order, the subordinate nations get the greater profit, being protected by the more capable nations. It is Jewry that always destroys this order. It constantly provokes the revolt of the weak against the strong, of bestiality against intelligence, of quantity against quality. It took fourteen centuries for Christianity to reach the peak of savagery and stupidity. We would therefore be wrong to sin by excess of confidence and proclaim our definite victory over Bolshevism. The more we render the Jew incapable of harming us, the more we shall protect ourselves from this danger. The Jew plays in nature the rôle of a catalysing element. A people that is rid of its Jews returns spontaneously to the natural order. In 1925 I wrote in Mein Kampf (and also in an unpublished work) that world Jewry saw in Japan an opponent beyond its reach. The racial instinct is so developed amongst the Japanese therefore compelled to act from outside. It would be to the considered interests of England and the United States to come to an understanding with Japan, but the Jew will strive to prevent such an understanding. I gave this warning in vain. A question arises. Does the Jew act consciously and by calculation, or is he driven on by his instinct? I cannot answer that question. The intellectual élite of Europe (whether professors of faculties, high officials, or whatever else) never understood anything of this problem. The élite has been stuffed with false ideas, and on these it lives. It propagates a science that causes the greatest possible damage. Stunted men have the philosophy of stunted men. They love neither strength nor health, and they regard weakness and sickness as supreme values. Since it's the function that creates the organ, entrust the world for a few centuries to a German professor—and you'll soon have a mankind of cretins, made up of men with big heads set upon meagre bodies.

But this 10-to-1 ratio, which shows up in books, magazines, TED talks, and virtually every scientific review on this topic, is a wild guess, based on a back-of-the-envelope calculation that became unfortunately enshrined as fact.

But at keast we know that the Brotherhood was both a scientific academy and a monastic order; that its members led an ascetic communal life where all property was shared, thus anticipating the Essenes and the primitive Christian communities. We know that much of their time was spent in contemplation, and that initiation into the higher mysteries of mathematics, astronomy, and medicine depended upon the purification of spirit and body, which the aspirant had to achieve by abstinences and examinations of conscience. Pythagoras himself, like St. Francis, is said to have preached to animals; the whole surviving tradition indicates that his disciples, while engaged in number-lore and astronomical calculations, firmly believed that a true scientist must be a saint, and that the wish to become one was the motivation of his labours.

Based on the evidence from both observations and theoretical calculations, the scientific community eventually, and maybe reluctantly, has accepted the idea that the universe appear to have begun about fourteen billion years ago--because there is no other explanation that fits the evidence.

Sometimes it feels like there just aren’t enough hours in a day to get everything done. So instead of trying to make your day longer, why not make your life longer by an extra two years? That’s about how long your life span may be increased by eating nuts regularly—one handful (or about 30 grams) five or more days a week.1 Just that one simple and delicious act alone may extend your life. The Global Burden of Disease Study calculated that not eating enough nuts and seeds was the third-leading dietary risk factor for death and disability in the world, killing more people than processed meat consumption. Insufficient nut and seed intake is thought to lead to the deaths of millions of people every year, fifteen times more than all those who die from overdoses of heroin, crack cocaine, and all other illicit drugs combined.2

Correlation is enough,” 2 then-Wired editor in chief Chris Anderson famously declared in 2008. We can, he implied, solve innovation problems by the sheer brute force of the data deluge. Ever since Michael Lewis chronicled the Oakland A’s unlikely success in Moneyball (who knew on-base percentage was a better indicator of offensive success than batting averages?), organizations have been trying to find the Moneyball equivalent of customer data that will lead to innovation success. Yet few have. Innovation processes in many companies are structured and disciplined, and the talent applying them is highly skilled. There are careful stage-gates, rapid iterations, and checks and balances built into most organizations’ innovation processes. Risks are carefully calculated and mitigated. Principles like six-sigma have pervaded innovation process design so we now have precise measurements and strict requirements for new products to meet at each stage of their development. From the outside, it looks like companies have mastered an awfully precise, scientific process. But for most of them, innovation is still painfully hit or miss. And worst of all, all this activity gives the illusion of progress, without actually causing it. Companies are spending exponentially more to achieve only modest incremental innovations while completely missing the mark on the breakthrough innovations critical to long-term, sustainable growth. As Yogi Berra famously observed: “We’re lost, but we’re making good time!” What’s gone so wrong? Here is the fundamental problem: the masses and masses of data that companies accumulate are not organized in a way that enables them to reliably predict which ideas will succeed. Instead the data is along the lines of “this customer looks like that one,” “this product has similar performance attributes as that one,” and “these people behaved the same way in the past,” or “68 percent of customers say they prefer version A over version B.” None of that data, however, actually tells you why customers make the choices that they do.

we do not know the physics of climate system responses to warming well enough to blame most of the warming on human activities. Human causation is simply assumed. The models are designed with the assumption that the climate system was in natural balance before the Industrial Revolution, despite historical evidence to the contrary. They only produce human-caused climate change because that is the way they are designed. This is in spite of abundant evidence of past warm episodes, such as 1,000- to 2,000-year-old tree stumps being uncovered by receding glaciers; temperature proxy evidence for the Roman and Medieval Warm Periods covering that same time frame; and Arctic sea ice proxy evidence for a natural decrease in sea ice starting well before humans could be blamed. Natural warming since the Little Ice Age of a few hundred years ago is simply ignored in the design of climate models, since we do not know what caused it. Simply put, the computerized climate models support human causation of climate change because that’s what they assume from the outset. They are an example of circular reasoning. There is little to no evidence of long-term increases in heat waves, droughts, or floods. Wildfire activity has, if anything, decreased, even though poor land management practices are now making some areas more vulnerable to wildfires even without climate change. Contrary to popular perception and new reports, there is little to no evidence of increased storminess resulting from climate change. This includes tornadoes and hurricanes. Long-term increases in monetary storm damages have indeed occurred, but are due to increasing development, not worsening weather. Sea level has been rising naturally since at least the mid-1800s, well before humans could be blamed. Land subsidence in some areas (e.g. Norfolk, Miami, Galveston-Houston, New Orleans) would result in increasing flooding problems even without any sea-level rise, let alone human-induced sea-level rise causing thermal expansion of the oceans. Some evidence for recent acceleration of sea-level rise might support human causation, but the magnitude of the human component since 1950 has been only 1 inch every 30 years. Ocean acidification is now looking like a non-problem, as the evidence builds that sea life prefers somewhat more CO2, just as vegetation on land does. Given that CO2 is necessary for life on Earth, yet had been at dangerously low levels for thousands of years, the scientific community needs to stop accepting the premise that more CO2 in the atmosphere is necessarily a bad thing. Global greening has been observed by satellites over the last few decades, which is during the period of most rapid rises in atmospheric CO2. The benefits of increasing CO2 to agriculture have been calculated to be in the trillions of dollars. Crop yields continue to break records around the world, due to a combination of human ingenuity and the direct effects of CO2 on plant growth and water use efficiency. Much of this evidence is not known by our citizens, who are largely misinformed by a news media that favors alarmist stories. The scientific community is, in general, biased toward alarmism in order to maintain careers and support desired governmental energy policies. Only when the public becomes informed based upon evidence from both sides of the debate can we expect to make rational policy decisions. I hope my brief treatment of these subjects provides a step in that direction. THE END

I had just spent days, nights, weeks, months cramming information into my tired little brain. It analyzed, memorized, synthesized, calculated ... all for the glory of science. I realized suddenly how parched I was for something greater than logic and scientific rigor. What about love and spirit and humanity and godliness? How could science have become so divorced from them? Could we ever have knowledge without spirit? Ambition without passion? Yearning without love?

Reason #1: Downtime Aids Insights Consider the following excerpt from a 2006 paper that appeared in the journal Science: The scientific literature has emphasized the benefits of conscious deliberation in decision making for hundreds of years… The question addressed here is whether this view is justified. We hypothesize that it is not. Lurking in this bland statement is a bold claim. The authors of this study, led by the Dutch psychologist Ap Dijksterhuis, set out to prove that some decisions are better left to your unconscious mind to untangle. In other words, to actively try to work through these decisions will lead to a worse outcome than loading up the relevant information and then moving on to something else while letting the subconscious layers of your mind mull things over. Dijksterhuis’s team isolated this effect by giving subjects the information needed for a complex decision regarding a car purchase. Half the subjects were told to think through the information and then make the best decision. The other half were distracted by easy puzzles after they read the information, and were then put on the spot to make a decision without having had time to consciously deliberate. The distracted group ended up performing better. Observations from experiments such as this one led Dijksterhuis and his collaborators to introduce unconscious thought theory (UTT)—an attempt to understand the different roles conscious and unconscious deliberation play in decision making. At a high level, this theory proposes that for decisions that require the application of strict rules, the conscious mind must be involved. For example, if you need to do a math calculation, only your conscious mind is able to follow the precise arithmetic rules needed for correctness. On the other hand, for decisions that involve large amounts of information and multiple vague, and perhaps even conflicting, constraints, your unconscious mind is well suited to tackle the issue. UTT hypothesizes that this is due to the fact that these regions of your brain have more neuronal bandwidth available, allowing them to move around more information and sift through more potential solutions than your conscious centers of thinking. Your conscious mind, according to this theory, is like a home computer on which you can run carefully written programs that return correct answers to limited problems, whereas your unconscious mind is like Google’s vast data centers, in which statistical algorithms sift through terabytes of unstructured information, teasing out surprising useful solutions to difficult questions. The implication of this line of research is that providing your conscious brain time to rest enables your unconscious mind to take a shift sorting through your most complex professional challenges. A shutdown habit, therefore, is not necessarily reducing the amount of time you’re engaged in productive work, but is instead diversifying the type of work you deploy.

En Hedu-Anna (CA. 2300 BC, Akkadian) World's first known female astronomer. Her scientific calculations are known to us through her distinguished poetry, which was recorded on cuneiform tablets.

Eratosthenes was the first to use a scientific method to calculate the circumference of the earth

Carefully avoided in many scientific discussions, conferences, government reports, and papers is the issue of human population. Indeed, in many conferences it is deemed to be a subject that is out of bounds. Rising numbers of people, and their desire for higher standards of living, put increasing demands on natural resources. More people are chasing a fixed or declining stock of reef resources: the area of the planet on which coral reefs can grow is limited, after all. In one sense it is really that simple. Some places have a human population doubling time of only 15 years, which reflects medical advances and its highly desirable accompaniments such as increased survival of people, especially infants. However, this means that current scientifically calculated solutions for a particular section of reef shoreline, for example, are negated when the population doubles. Thus the solution is no longer a scientific one, but has become largely a social and political one, and one of planning or zoning reefs and other resources as noted above. Human numbers are a part of the equation, and if we ignore any part of an equation then we cannot solve it.

Pro-risk, aggressive investors, for example, should be expected to make more than the index in good times and lose more in bad times. This is where beta comes in. By the word beta, theory means relative volatility, or the relative responsiveness of the portfolio return to the market return. A portfolio with a beta above 1 is expected to be more volatile than the reference market, and a beta below 1 means it’ll be less volatile. Multiply the market return by the beta and you’ll get the return that a given portfolio should be expected to achieve, omitting nonsystematic sources of risk. If the market is up 15 percent, a portfolio with a beta of 1.2 should return 18 percent (plus or minus alpha). Theory looks at this information and says the increased return is explained by the increase in beta, or systematic risk. It also says returns don’t increase to compensate for risk other than systematic risk. Why don’t they? According to theory, the risk that markets compensate for is the risk that is intrinsic and inescapable in investing: systematic or “non-diversifiable” risk. The rest of risk comes from decisions to hold individual stocks: non-systematic risk. Since that risk can be eliminated by diversifying, why should investors be compensated with additional return for bearing it? According to theory, then, the formula for explaining portfolio performance (y) is as follows: y = α + βx Here α is the symbol for alpha, β stands for beta, and x is the return of the market. The market-related return of the portfolio is equal to its beta times the market return, and alpha (skill-related return) is added to arrive at the total return (of course, theory says there’s no such thing as alpha). Although I dismiss the identity between risk and volatility, I insist on considering a portfolio’s return in the light of its overall riskiness, as discussed earlier. A manager who earned 18 percent with a risky portfolio isn’t necessarily superior to one who earned 15 percent with a lower-risk portfolio. Risk-adjusted return holds the key, even though—since risk other than volatility can’t be quantified—I feel it is best assessed judgmentally, not calculated scientifically.

Die-Face Analysis In the 1930s, J. B. Rhine and his colleagues recognized and took into account the possibility that some dice studies may have been flawed because the probabilities of die faces are not equal. With some dice, it is slightly more likely that one will roll a 6 face than a 1 face because the die faces are marked by scooping out bits of material. The 6 face, for example, has six scoops removed from the surface of that side of the die, so it has slightly less mass than the other die faces. On any random toss, that tiny difference in mass will make the 6 slightly more likely to land face up, followed in decreasing probability by the 5, 4, 3, 2, and 1 faces. Thus, an experiment that relied exclusively upon the 6 face as the target may have been flawed because, unless there were also control tosses with no mental intention applied, we could not tell whether above-chance results were due to a mind-matter interaction or to the slightly higher probability of rolling a 6. To see whether this bias was present in these dice studies, we sifted out all reports for which the published data allowed us to calculate the effective hit rate separately for each of the six die faces used under experimental and control conditions. In fact, the suspected biases were found, as shown in figure 8.3. The hit rates for both experimental and control tosses tended to increase from die faces 1 to 6. However, most of the experimental hit rates were also larger than the corresponding control hit rates, suggested some thing interesting beyond the artifacts caused by die-face biases. For example, for die face 6 the experimental condition was significantly larger than the control with odds against chance of five thousand to one. Figure 8.3. Relationship between die face and hit rates for experimental and control conditions. The error bars are 65 percent confidence intervals. Because of the evidence that the die faces were slightly biased, we examined a subset of studies that controlled for these dice biases—studies using design protocols where die faces were equally distributed among the six targets. We referred to such studies as the “balanced-protocol subset.” Sixty-nine experiments met the balanced-protocol criteria. Our examination of those experiments resulted in three notable points: there was still highly significant evidence for mind-matter interaction, with odds against chance of greater than a trillion to one; the effects were constant across different measures of experimental quality; and the selective-reporting “file drawer” required a twenty-to-one ratio of unretrieved, nonsignificant studies for each observed study. Thus chance, quality, and selective reporting could not explain away the results. Dice Conclusions Our meta-analysis findings led us to conclude that a genuine mind-matter interaction did exist with experiments testing tossed dice. The effect had been successfully replicated in more than a hundred experiments by more than fifty investigators for more than a half-century.

Life without numbers is inconceivable for us. How else would we count objects, tell time, calculate prices, and so on? Our scientifically and technically advanced culture simply would not exist without numbers.

John Maynard Keynes’s famous view about long-term forecasts: ‘About these matters there is no scientific basis on which to form any calculable probability whatever. We simply do not know.

Above all, the story of the Stato da Mar is a saga about trade. Alone in all the world, Venice was organized to buy and sell. The Venetians were merchants to their fingertips; they calculated risk, return, and profit with scientific precision. The red and gold lion banner of Saint Mark fluttered from mastheads like a corporate logo. Trade was their creation myth and their justification, for which they were frequently reviled by more terrestrial neighbors. There exists no more explicit description of the city's raison d'être and its anxieties than the appeal it made to the pope in 1343 for permission to trade with the Muslim world: "Since, by the Grace of God, our city has grown and increased by the labors of merchants creating traffic and profits for us in diverse parts of the world by land and sea and this is our life and that of our sons, because we cannot live otherwise and know not how except by trade, therefore we must be vigilant in all our thoughts and endeavors, as our predecessors were, to make provision in every way lest so much wealth and treasure should disappear." The appeal's gloomy conclusion echoes a manic-depressive streak in the Venetian soul. The city's prosperity rested on nothing tangible — no landholdings, no natural resources, no agricultural production or large population. There was literally no solid ground underfoot. Physical survival depended on a fragile ecological balance. Venice was perhaps the first virtual economy, whose vitality baffled outsiders. It harvested nothing but barren gold and lived in perpetual fear that, if its trade routes were severed, the whole magnificent edifice might simply collapse.

I arrived at the Amsterdam Airport Schiphol at around 11 a.m. I was supposed to meet my friend Ben at the Vondelpark at 3 p.m., so that we could then go and check in to our hostel together. Now, I guess it’s important to note that neither of us had a cellphone that worked in Europe, because I’m not even sure that shit existed back then. We just made a plan and were supposed to do it, which seems reckless and terrifying in retrospect. These days, I text my wife while I’m in line for popcorn at the theater to make sure the seat-finding process is going okay. The fact that I flew to a different continent and was just supposed to meet my friend at a certain place at a certain time feels like something out of the Middle Ages. It’s like when you hear that NASA sent people to the moon with a scientific calculator; that’s what meeting someone without a cellphone seems like to me now.

[...] The statement "Botticelli's Birth of Venus is stunning", for starters, is an unfalsifiable hypothesis, because there is no experiment that might show this statement to be false. Parallax method and equations conventionally determined that the average distance between the Earth and the Moon is 384 400 Km (238 855 miles). Now, if we were to conduct hands-on investigation for its validation or an audit to demonstrate its falsification, direct testing of such a distance measure would require a scientist to physically travel the space with a giant ruler to calculate the scale between the two points. [...] The problem that scientific certainty is a myth still struggles to brush past the academic prejudice of most scientists who are green on critical analysis for its alleged pedagogical irrelevance.

THE GENEALOGY OF MORALS: A POLEMIC The three essays which constitute this genealogy are, as regards expression, aspiration, and the art[Pg 117] of the unexpected, perhaps the most curious things that have ever been written. Dionysus, as you know, is also the god of darkness. In each case the beginning is calculated to mystify; it is cool, scientific, even ironical, intentionally thrust to the fore, intentionally reticent. Gradually less calmness prevails; here and there a flash of lightning defines the horizon; exceedingly unpleasant truths break upon your ears from out remote distances with a dull, rumbling sound,—until very soon a fierce tempo is attained in which everything presses forward at a terrible degree of tension. At the end, in each case, amid fearful thunderclaps, a new truth shines out between thick clouds. The truth of the first essays the psychology of Christianity: the birth of Christianity out of the spirit of resentment, not, as is supposed, out of the "Spirit,"—in all its essentials, a counter-movement, the great insurrection against the dominion of noble values. The second essay contains the psychology of conscience: this is not, as you may believe, "the voice of God in man"; it is the instinct of cruelty, which turns inwards once it is unable to discharge itself outwardly. Cruelty is here exposed, for the first time, as one of the oldest and most indispensable elements in the foundation of culture. The third essay replies to the question as to the origin of the formidable power of the ascetic ideal, of the priest ideal, despite the fact that this ideal is essentially detrimental, that it is a will to nonentity and to decadence. Reply: it flourished not because God was active behind the priests, as is generally believed, but because it was[Pg 118] a faute de mieux—from the fact that hitherto it has been the only ideal and has had no competitors. "For man prefers to aspire to nonentity than not to aspire at all." But above all, until the time of Zarathustra there was no such thing as a counter-ideal. You have understood my meaning. Three decisive overtures on the part of a psychologist to a Transvaluation of all Values.—This book contains the first psychology of the priest.

THE GENEALOGY OF MORALS: A POLEMIC The three essays which constitute this genealogy are, as regards expression, aspiration, and the art of the unexpected, perhaps the most curious things that have ever been written. Dionysus, as you know, is also the god of darkness. In each case the beginning is calculated to mystify; it is cool, scientific, even ironical, intentionally thrust to the fore, intentionally reticent. Gradually less calmness prevails; here and there a flash of lightning defines the horizon; exceedingly unpleasant truths break upon your ears from out remote distances with a dull, rumbling sound,—until very soon a fierce tempo is attained in which everything presses forward at a terrible degree of tension. At the end, in each case, amid fearful thunderclaps, a new truth shines out between thick clouds. The truth of the first essays the psychology of Christianity: the birth of Christianity out of the spirit of resentment, not, as is supposed, out of the "Spirit,"—in all its essentials, a counter-movement, the great insurrection against the dominion of noble values. The second essay contains the psychology of conscience: this is not, as you may believe, "the voice of God in man"; it is the instinct of cruelty, which turns inwards once it is unable to discharge itself outwardly. Cruelty is here exposed, for the first time, as one of the oldest and most indispensable elements in the foundation of culture. The third essay replies to the question as to the origin of the formidable power of the ascetic ideal, of the priest ideal, despite the fact that this ideal is essentially detrimental, that it is a will to nonentity and to decadence. Reply: it flourished not because God was active behind the priests, as is generally believed, but because it was[Pg 118] a faute de mieux—from the fact that hitherto it has been the only ideal and has had no competitors. "For man prefers to aspire to nonentity than not to aspire at all." But above all, until the time of Zarathustra there was no such thing as a counter-ideal. You have understood my meaning. Three decisive overtures on the part of a psychologist to a Transvaluation of all Values.—This book contains the first psychology of the priest.

Interrogation is a science because there are specific scientific techniques to follow and model. It is an art because, in a real sense, it is theater for one. It is also a discipline in that it follows a system of organization.

Then, too, I am constantly confronted by students, some of whom have already rejected all ways but the scientific to come to know the world, and who seek only a deeper, more dogmatic indoctrination in that faith (although the world is no longer in their vocabulary). Other students suspect that not even the entire collection of machines and instruments at MIT can significantly give meaning to their lives. They sense the presence of a dilemma in an education polarized around science and technology, an education that implicitly claims to open a privileges access-path to fact, but that cannot tell them how to decide what to count as fact. Even while they recognize the genuine importance of learning their craft, they rebel at working on projects that appear to address themselves neither to answering interesting questions of fact nor to solving problems in theory.

CEO Bill Hewlett personally authorized a $1 million crash program to develop a miniature, hand-held successor to the successful 9100 series desktop scientific calculator launched four years earlier. By that time, the HP catalog listed some 1,600 products, none of which sold more than ten units per day. Within six months of its launch in January 1972, the new HP-35 was selling 1,000 per day, and a year later accounted for a staggering 41 percent of the company’s total profits.

One day, many years after the siege was lifted and the war was over, two nutritionists met by chance. They introduced themselves. One, Alexei Bezzubov, had worked at Leningrad’s Vitamin Institute, seeking out new sources of protein for the hungry. The other, as it turned out, was Ernst Ziegelmeyer, deputy quartermaster of Hitler’s army, the man who’d been assigned to calculate how quickly Leningrad would fall without food deliveries. Now these two men met in peace: the one who had tried to starve a city, and the other who had tried to feed it. Ziegelmeyer pressed Bezzubov incredulously: “However did you hold out? How could you? It’s quite impossible! I wrote a deposition that it was physically impossible to live on such a ration.” Bezzubov could not provide a scientific, purely nutritive answer. There was none. Instead, he “talked of faith in victory, of the spiritual reserves of Leningraders, which had not been accounted for in the German professor’s

to DNA, our most complex programming projects are like pocket calculators.

Binet himself worried about the potential misuse of the tests he designed. He insisted they were not a measurement, properly speaking. He argued that intelligence comes in many different forms, only some of them testable by his or by any test. His understanding of different skills, aptitudes, or forms of intelligence was probably closer to that of educator Howard Gardner’s concept of “multiple intelligences” than to anything like a rigid, measurable standard reducible to a single numerical score.21 His words of caution fell on deaf ears. Less than a year after Binet’s death in 1911, the German psychologist William Stern argued that one could take the scores on Binet’s standardized tests, calculate them against the age of the child tested, and come up with one number that defined a person’s “intelligence quotient” (IQ).22 Adapted in 1916 by Lewis Terman of Stanford University and renamed the Stanford-Binet Intelligence Scale, this method, along with Binet’s test, became the gold standard for measuring not aptitude or progress but innate mental capacity, IQ. This was what Binet had feared. Yet his test and that metric continue to be used today, not descriptively as a relative gauge of academic potential, but as a purportedly scientific grading of innate intelligence.

The Talmud describes rabbis debating over which remains fixed and which revolves, the constellations or the solid sky (Pesachim 94b),[106] as well as how to calculate the thickness of the firmament scientifically (Pesab. 49a) and Biblically (Genesis Rabbah 4.5.2).[107] While the Talmud is not the definitive interpretation of the Bible, it certainly illustrates how ancient Jews of that time period understood the term, which can be helpful in learning the Hebrew cultural context. When the Scriptures talk poetically of this vault of heaven it uses the same terminology of stretching out the solid surface of the heavens over the earth as it does of stretching out an ANE desert tent over the flat ground (Isa. 54:2; Jer. 10:20)—not like an expanding Einsteinian time-space

The real Truth has depth. Beyond the shallow scientific media mind-control which has no mystery and no imagination. It is in fact a pompous retelling of lies and fabrications. The Mythos is not simply about information. It is about resonance and memory. The Mythos is here to awaken, not necessarily to inform exactly. There is no exact mathematical calculation to understand the Mythos, it is not based on numbers and code, but the intellect to decode, to decrypt – it has to be decrypted by the heart.

... the development of mathematics, for the sciences and for everybody else, does not often come from pure math. It came from the physicists, engineers, and applied mathematicians. The physicists were on to many ideas which couldn’t be proved, but which they knew to be right, long before the pure mathematicians sanctified it with their seal of approval. Fourier series, Laplace transforms, and delta functions are a few examples where waiting for a rigorous proof of procedure would have stifled progress for a hundred years. The quest for rigor too often meant rigor mortis. The physicists used delta functions early on, but this wasn’t really part of mathematics until the theory of distributions was invoked to make it all rigorous and pure. That was a century later! Scientists and engineers don’t wait for that: they develop what they need when they need it. Of necessity, they invent all sorts of approximate, ad hoc methods: perturbation theory, singular perturbation theory, renormalization, numerical calculations and methods, Fourier analysis, etc. The mathematics that went into this all came from the applied side, from the scientists who wanted to understand physical phenomena. [...] So much of mathematics originates from applications and scientific phenomena. But we have nature as the final arbiter. Does a result agree with experiment? If it doesn’t agree with experiment, something is wrong.

The most important use to which he had put his memory was that he had stuffed an unprecedented number of mathematical constants and equations into it. Most of us have very few mathematical constants in our mind, perhaps only the up-to-twelve-times multiplication table. Johnny had put in his mind layers and layers of algebraic verities. These were the explanation of his extraordinary powers of mental calculation.

Two writings of al-Hassār have survived. The first, entitled Kitāb al-bayān wa t-tadhkār [Book of proof and recall] is a handbook of calculation treating numeration, arithmetical operations on whole numbers and on fractions, extraction of the exact or approximate square root of a whole of fractionary number and summation of progressions of whole numbers (natural, even or odd), and of their squares and cubes. Despite its classical content in relation to the Arab mathematical tradition, this book occupies a certain important place in the history of mathematics in North Africa for three reasons: in the first place, and notwithstanding the development of research, this manual remains the most ancient work of calculation representing simultaneously the tradition of the Maghrib and that of Muslim Spain. In the second place, this book is the first wherein one has found a symbolic writing of fractions, which utilises the horizontal bar and the dust ciphers i.e. the ancestors of the digits that we use today (and which are, for certain among them, almost identical to ours) [Woepcke 1858-59: 264-75; Zoubeidi 1996]. It seems as a matter of fact that the utilisation of the fraction bar was very quickly generalised in the mathematical teaching in the Maghrib, which could explain that Fibonacci (d. after 1240) had used in his Liber Abbaci, without making any particular remark about it [Djebbar 1980 : 97-99; Vogel 1970-80]. Thirdly, this handbook is the only Maghribian work of calculation known to have circulated in the scientific foyers of south Europe, as Moses Ibn Tibbon realised, in 1271, a Hebrew translation. [Mathematics in the Medieval Maghrib: General Survey on Mathematical Activities in North Africa]

Now the peculiar modern Western form of capitalism has been, at first sight, strongly influenced by the development of technical possibilities. Its rationality is to-day essentially dependent on the calculability of the most important technical factors. But this means fundamentally that it is dependent on the peculiarities of modern science, especially the natural sciences based on mathematics and exact and rational experiment. On the other hand, the development of these sciences and of the technique resting upon them now receives important stimulation from these capitalistic interests in its practical economic application. It is true that the origin of Western science cannot be attributed to such interests. Calculation, even with decimals, and algebra have been carried on in India, where the decimal system was invented. But it was only made use of by developing capitalism in the West, while in India it led to no modern arithmetic or book-keeping. Neither was the origin of mathematics and mechanics determined by capitalistic interests. But the technical utilization of scientific knowledge, so important for the living conditions of the mass of people, was certainly encouraged by economic considerations, which were extremely favourable to it in the Occident. But this encouragement was derived from the peculiarities of the social structure of the Occident.

Chinese mathematicians before our era calculated rapidly with bamboo counting rods, using red rods for positive numbers (cheng) and black rods for negative numbers (fu).

Professor David Nutt, the former chief scientific adviser to the British government on drugs, published a study in The Lancet—Britain’s27 leading medical journal—going through every recreational drug, and calculating how likely it was to harm you, and to cause you to harm other people. He found that one drug was quite far ahead of all the others. It had a harm score of 72. The next most harmful drug was heroin—and it had a harm score of 55, just ahead of crack at 54 and methamphetamine at 32. It wasn’t even close. The most harmful drug was alcohol.

Obesity is so rampant that it seems contagious. It’s an epidemic now, and it’s spreading to other countries— the British are gaining, the Chinese are gaining, even the French are gaining— which makes it a pandemic. There are frantic efforts to make it stop. Weight Watchers and Overeaters Anonymous were just early tactics in a long war that would go on to include the Pritikin Principle, the Scarsdale Medical Diet, Slimfast, the Atkins Diet, the South Beach Diet, The Zone, Nutrisystem, Jenny Craig, the Blood Type Diet, the Mediterranean Diet, the Master Cleanse, the DASH diet, the Cabbage Soup Diet, the Paleo Diet, and the Raw Diet. Americans have eaten fat- burning grapefruits, consumed cabbage soup for seven straight days, calculated their daily points target, followed the easy and customizable menu plan, dialed the 1- 800 number to speak to a live weight- loss counselor, taken cider vinegar pills, snacked strategically, eliminated high- glycemic vegetables during the fourteen- day induction phase, achieved a 40:30:30 calorie ratio, brought insulin and glucagon into balance, sought scientific guidance from celebrities, abstained from the deadly cultural practice known as cooking, tanned and then bled themselves to more fully mimic the caveman state, asked that the chef please prepare the omelet with no yolks, and attained the fat- burning metabolic nirvana known as ketosis. It has all been a terrible, amazing failure.

Based on my review of the scientific literature, I suggest that you aim for a daily carbohydrate intake target that is based on your training workload as indicated by Table 6.1. Be sure to use your optimal racing weight instead of your current weight to make these calculations, as you’re not trying to fuel your excess fat stores for optimal performance!

In his 1993 book Technopoly, Neil Postman distilled the main tenets of Taylor’s system of scientific management. Taylorism, he wrote, is founded on six assumptions: “that the primary, if not the only, goal of human labor and thought is efficiency; that technical calculation is in all respects superior to human judgment; that in fact human judgment cannot be trusted, because it is plagued by laxity, ambiguity, and unnecessary complexity; that subjectivity is an obstacle to clear thinking; that what cannot be measured either does not exist or is of no value; and that the affairs of citizens are best guided and conducted by experts.

Through difficult calculations of merciless precision that call upon the full power of modern computer technology, they've shown that unbendable equations of high symmetry account convincingly and in quantitative detail for the existence of protons and neutrons, and for their properties. They've demonstrated the origin of the proton's mass, and thereby the lioness's share of our mass. I believe this is one of the greatest scientific achievements of all time.

In the age of computer simulation, when flows in everything from jet turbines to heart valves are modeled on supercomputers, it is hard to remember how easily nature can confound an experimenter. In fact, no computer today can completely simulate even so simple a system as Libchaber's liquid helium cell. Whenever a good physicist examines a simulation, he must wonder what bit of reality was left out, what potential surprise was sidestepped. Libchaber liked to say that he would not want to fly in a simulated airplane-he would wonder what had been missed. Furthermore, he would say that computer simulations help to build intuition or to refine calculations, but they do not give birth to genuine discovery. This, at any rate, is the experimenter's creed. His experiment was so immaculate, his scientific goals so abstract, that there were still physicists who considered Libchaber's work more philosophy or mathematics than physics. He believed, in turn, that the ruling standards of his field were reductionist, giving primacy to the properties of atoms. "A physicist would ask me, How does this atom come here and stick there? And what is the sensitivity to the surface? And can you write the Hamiltonian of the system? "And if I tell him, I don't care, what interests me is this shape, the mathematics of the shape and the evolution, the bifurcation from this shape to that shape to this shape, he will tell me, that's not physics, you are doing mathematics. Even today he will tell me that. Then what can I say? Yes, of course, I am doing mathematics. But it is relevant to what is around us. That is nature, too." The patterns he found were indeed abstract. They were mathematical. They said nothing about the properties of liquid helium or copper or about the behavior of atoms near absolute zero. But they were the patterns that Libchaber's mystical forbears had dreamed of. They made legitimate a realm of experimentation in which many scientists, from chemists to electrical engineers, soon became explorers, seeking out the new elements of motion. The patterns were there to see the first time eh succeeded in raising the temperature enough to isolate the first period-doubling, and the next, and the next. According to the new theory, the bifurcations should have produced a geometry with precise scaling, and that was just what Libchaber saw, the universal Feigenbaum constants turning in that instant from a mathematical ideal to a physical reality, measurable and reproducible. He remembered the feeling long afterward, the eerie witnessing of one bifurcation after another and then the realization that he was seeing an infinite cascade, rich with structure. It was, as he said, amusing.

Her exposition took the form of notes lettered A through G, extending to nearly three times the length of Menabrea’s essay. They offered a vision of the future more general and more prescient than any expressed by Babbage himself. How general? The engine did not just calculate; it performed operations, she said, defining an operation as “any process which alters the mutual relation of two or more things,” and declaring: “This is the most general definition, and would include all subjects in the universe.” The science of operations, as she conceived it, is a science of itself, and has its own abstract truth and value; just as logic has its own peculiar truth and value, independently of the subjects to which we may apply its reasonings and processes.… One main reason why the separate nature of the science of operations has been little felt, and in general little dwelt on, is the shifting meaning of many of the symbols used. Symbols and meaning: she was emphatically not speaking of mathematics alone. The engine “might act upon other things besides number.” Babbage had inscribed numerals on those thousands of dials, but their working could represent symbols more abstractly. The engine might process any meaningful relationships. It might manipulate language. It might create music. “Supposing, for instance, that the fundamental relations of pitched sounds in the science of harmony and of musical composition were susceptible of such expression and adaptations, the engine might compose elaborate and scientific pieces of music of any degree of complexity or extent.