Quark Quotes

There is no universe per se. Nor is there a beginning, Big Bang or otherwise. We live in an energy field that recycles quarks, which format with given configurations, because they've done that before.

Each time Olan Chapman comes to life, his anti-quarks remain on the far side of the Time Wall. After his life cycle ends, his quarks collapse back to these roots, and – presto – America's most wanted man is ready for his next adventure.

Nothing would be easier without you, because you are everything, all of it- sprinkles, quarks, giant donuts, eggs sunny-side up- you are the ever-expanding universe to me.

Thermodynamic miracles... events with odds against so astronomical they're effectively impossible, like oxygen spontaneously becoming gold. I long to observe such a thing. And yet, in each human coupling, a thousand million sperm vie for a single egg. Multiply those odds by countless generations, against the odds of your ancestors being alive; meeting; siring this precise son; that exact daughter... Until your mother loves a man she has every reason to hate, and of that union, of the thousand million children competing for fertilization, it was you, only you, that emerged. To distill so specific a form from that chaos of improbability, like turning air to gold... that is the crowning unlikelihood. The thermodynamic miracle. But...if me, my birth, if that's a thermodynamic miracle... I mean, you could say that about anybody in the world!. Yes. Anybody in the world. ..But the world is so full of people, so crowded with these miracles that they become commonplace and we forget... I forget. We gaze continually at the world and it grows dull in our perceptions. Yet seen from the another's vantage point. As if new, it may still take our breath away. Come...dry your eyes. For you are life, rarer than a quark and unpredictable beyond the dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly. Dry your eyes... and let's go home.

Marveling at the perfection of that leaf, I was reminded that aesthetic beauty is as much about how and whether you look as what you see. From the quark to the supernova, the wonders do not cease. It is our attentiveness that is in short supply, our ability and willingness to do the work that awe requires.

We inhabit a universe where atoms are made in the centers of stars; where each second a thousand suns are born; where life is sparked by sunlight and lightning in the airs and waters of youthful planets; where the raw material for biological evolution is sometimes made by the explosion of a star halfway across the Milky Way; where a thing as beautiful as a galaxy is formed a hundred billion times - a Cosmos of quasars and quarks, snowflakes and fireflies, where there may be black holes and other universe and extraterrestrial civilizations whose radio messages are at this moment reaching the Earth. How pallid by comparison are the pretensions of superstition and pseudoscience; how important it is for us to pursue and understand science, that characteristically human endeavor.

Three quarks for Muster Mark!

I believe in God the way I believe in quarks. People whose business it is to know about quantum physics or religion tell me they have good reason to believe that quarks and God exist. And they tell me that if I wanted to devote my life to learning what they've learned, I'd find quarks and God just like they did.

For you are life, rarer than a quark and unpredictable beyond the dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly.

You are life, rarer than a quark and unpredictable beyond the dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly.

Beyond the corridor of our space-time there are infinite numbers of universes, each of them is governed by its own set of laws and physics.

Quarkbeasts, for all their fearsome looks, are obedient to a fault. They are nine-tenths velociraptor and kitchen blender and one-tenth Labrador. It was the Labrador tenth that I valued most.

Every atom in your body is the same quark in different places at the same moment in time.

A quark is not the smallest thing. The smallest thing is the regret you will feel on your deathbed for not having worked more.

Newtonian physics runs into problems at the subatomic level. Down there--in the land of hadrons, quarks, and Schrödinger's cat--things gent freaky. The cool rationality of Isaac Newton gives way to the bizarre unpredictability of Lewis Carroll.

Quark!

My clothes are made of monosodium glutamate and hexachlorophene. My food is made of polyester, rayon and lurex. My rug lotions contain vitamins. Do my vitamins feature cleaning agents? I hope so. My brain is gimmicked by a microprocessor the size of a quark, and costing ten pee and running the whole deal. I am made of — junk, I’m just junk.

I saw the whole universe laid out before me, a vast shining machine of indescribable beauty and complexity. Its design was too intricate for me to understand, and I knew I could never begin to grasp more than the smallest idea of its purpose. But I sensed that every part of it, from quark to quasar, was unique and - in some mysterious way - significant.

Come...dry your eyes, for you are life, rarer than a quark and unpredictable beyond dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly.

Fifty-five crystal spheres geared to God’s crankshaft is my idea of a satisfying universe. I can’t think of anything more trivial than quarks, quasars, big bangs, and black holes.

So if we're all quarks and electrons ..." he begins. What?" We could make love and it would be nothing more than quarks and electrons rubbing together." Better than that," I say. "Nothing really 'rubs together' in the microscopic world. Matter never really touches other matter, so we could make love without any of our atoms touching at all. Remember that electrons sit on the outside of atoms, repelling other electrons. So we could make love and actually repel each other at the same time.

Scientific vocabulary can be so weird. The Large Hadron Collider at CERN has just recorded an example of a subatomic particle called the anti-beauty quark. Could it be that ugly people now have something tangible to blame?

It's all—let's use a very specific word here—miraculous. You, me, love, quarks, sex, chocolate, the speed of light—it's all miraculous, and it always has been.

The scientific creation story has majesty, power and beauty. and is infused with a powerful message capable of lifting our spirits in a way that its multitudinous supernatural counterparts are incapable of matching. It teaches us that we are the products of 13.7 billion years of cosmic evolution and the mechanism by which meaning entered the universe, if only for a fleeting moment in time. Because the universe means something to me, and the fact that we are all agglomerations of quarks and electrons in a complex and fragile pattern that can perceive the beauty of the universe with visceral wonder, is, I think, a thought worth raising a glass to this Christmas.

Aesthetic beauty is as much about how and whether you look as what you see. From the quark to the supernova, the wonders do not cease. It is our attentiveness that is in short supply, our ability and willingness to do the work that awe requires.

No we talked about matter- most notably quarks, those tiniest possible components of everything.They come in six flavors, you know: up, down, top, bottom, charm and strange. I'll admit those talks helped me, and when i read about the sea quarks, I understood why. They contained particles of matter and antimatter, and where the two touch exists this constant stream of creation and annihilation. Scientist call this place "the sea," and it's what pitches inside of me as I hurry away from Mr. Byles, ignoring his furrowed brow, his worried frown. I am of the sea. I am of instability. I am of harsh, choppy waves roiling with all the up-ness, down-ness, top-ness, bottom-ness contained within my being. I am of charm and strange. Annihilation. Creation. Annihilation.

It was here that the thaum, hitherto believed to be the smallest possible particle of magic, was succesfully demonstrated to be made up of /resons/ (Lit.: 'Thing-ies') or reality fragments. Currently research indicates that each reson is itself made up of a combination of at least five 'flavours', known as 'up', 'down', 'sideways', 'sex appeal' and 'peppermint'.

The world of the quark has everything to do with a jaguar circling in the night.

We, and the visible universe around us, may exist only because of a difference in the ninth decimal place between the numbers of quarks and of antiquarks.

The leptons most familiar to the non-physicist are the electron and perhaps the neutrino; and the most familiar quarks are . . . well, there are no familiar quarks.

Quarks are quirky beasts. Unlike protons, each with an electric charge of +1, and electrons, with a charge of –1, quarks have fractional charges that come in thirds.

The origin of the name is an enigmatic quotation from James Joyce: “Three quarks for Muster Mark!

A proton or neutron is made up of three quarks, one of each color. A proton contains two up quarks and one down quark; a neutron contains two down and one up.

For three decades, Einstein sought a unified theory of physics, one that would interweave all of nature's forces and material constituents within a single theoretical tapestry. He failed. Now, at the dawn of the new millennium, proponents of string theory claim that the threads of this elusive unified tapestry finally have been revealed. String theory has the potential to show that all of the wondrous happenings in the universe—from the frantic dance of subatomic quarks to the stately waltz of orbiting binary stars, from the primordial fireball of the big bang to the majestic swirl of heavenly galaxies—are reflections of one grand physical principle, one master equation.

Die rohen Kraftbrühen der Natur sind Ihro Gnaden zartem Makronenmagen noch zu hart. - Er muss sie erst in der höllischen Pestilenzküche der Bellatristen künstlich aufkochen lassen. Ins Feuer mit dem Quark.

The number two, he thought, was an ominous number. Two is a reflection or duplication of one, the most perfect of the natural numbers. Two is all echo and counterpoise; two is the beginning of multiplicity, the way the universal oneness differentiates itself and breaks apart into strings and quarks and photons, all the separate and component pieces of life. Two is a symbol of becoming as opposed to pure being...

In 1963, when I assigned the name "quark" to the fundamental constituents of the nucleon, I had the sound first, without the spelling, which could have been "kwork." Then, in one of my occasional perusals of Finnegans Wake, by James Joyce, I came across the word "quark" in the phrase "Three quarks for Muster Mark." Since "quark" (meaning, for one thing, the cry of a gull) was clearly intended to rhyme with "Mark," as well as "bark" and other such words, I had to find an excuse to pronounce it as "kwork." But the book represents the dreams of a publican named Humphrey Chimpden Earwicker. Words in the text are typically drawn from several sources at once, like the "portmanteau words" in Through the Looking Glass. From time to time, phrases occur in the book that are partially determined by calls for drinks at the bar. I argued, therefore, that perhaps one of the multiple sources of the cry "Three quarks for Muster Mark" might be "Three quarts for Mister Mark," in which case the pronunciation "kwork" would not be totally unjustified. In any case, the number three fitted perfectly the way quarks occur in nature.

Come, dry your eyes, for you are LIFE, rarer than a quark and unpredictable beyond the dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly. Dry your eyes, and let's go home.

Think of it this way: no scientist has ever seen an electron, but all scientists agree that electrons exist. No physicist has ever seen a quark, but all physicists believe that quarks are real. Why? Because when they look into their microscopes, they see things happening that could only happen if quarks and electrons existed. I believe in the reality of God the way scientists believe in the reality of electrons. I see things happening that would not happen unless there is a God.

During the quark–lepton era the universe was dense enough for the average separation between unattached quarks to rival the separation between attached quarks.

The more we learn of outer space and inner space, of quasars and quarks, of Big Bangs and Little Blips, the more remote, abstract and intellectually inconsequential it all becomes.

quarks,” a collective term that encompasses all particles that are governed by the strong nuclear force.

His colleague Richard Feynman wanted to call these new basic particles partons16, as in Dolly, but was over-ruled. Instead they became known as quarks.

Electrons, quarks, photons, and gluons are the components of everything that sways in the space around us. They are the “elementary particles” studied in particle physics.

Notation on Quark Manipulation as Applied to the Time/Space Continuum.

In my NDE state, I realized that the entire universe is composed of unconditional love, and I’m an expression of this. Every atom, molecule, quark, and tetraquark, is made of love. I can be nothing else, because this is my essence and the nature of the entire universe. Even things that seem negative are all part of the infinite, unconditional spectrum of love.

What happened out there?” “I almost got quarking toasted by a dragon.” “A dragon,” he repeats, scandalized. “Are you mad? Or have you been skulking around the bars of Barbary XIII?

Hell, no. A church is the one thing we don't have. Physics is the religion around here. Use the Lord's name in vain all you like,' he laughed, 'just don't slander any quarks or mesons.

Here's the plain truth, at least as it has been shown to me: We are never far from wonders. I remember when my son was about two, we were walking in the woods one November morning. We were along a ridge, looking down at a forest in the valley below, where a cold haze seemed to hug the forest floor. I kept trying to get my oblivious two-year-old to appreciate the landscape. At one point, I picked him up and pointed out toward the horizon and said, "Look at that, Henry, just look at it!" And he said, "Weaf!" I said, "What?" And again he said, "Weaf," and then reached out and grabbed a single brown oak leaf from the little tree next to us. I wanted to explain to him that you can see a brown oak leaf anywhere in the eastern United States in November, that nothing in the forest was less interesting. But after watching him look at it, I began to look as well, and I soon realized it wasn't just a brown leaf. Its veins spidered out red and orange and yellow in a pattern too complex for my brain to synthesize, and the more I looked at that leaf with Henry, the more I was compelled into an aesthetic contemplation I neither understood nor desired, face-to-face with something commensurate to my capacity for wonder. Marveling at the perfection of that leaf, I was reminded that aesthetic beauty is as much about how and whether you look as what you see. From the quark to the supernova, the wonders do not cease. It is our attentiveness that is in short supply, our ability and willingness to do the work that awe requires.

It is cer­tain­ly for­tu­nate for us that the num­bers (of quarks and antiquarks) are un­equal be­cause, if they had been the same, near­ly all the quarks and an­ti­quarks would have an­ni­hi­lat­ed each oth­er in the ear­ly uni­verse and left a uni­verse filled with ra­di­ation but hard­ly any mat­ter. There would then have been no galax­ies, stars, or plan­ets on which hu­man life could have de­vel­oped.

Everything from quarks to quasars, butterflies to brain cells, was created so that you and I might delight in the display of divine glory. We alone can glorify God by rejoicing in the beauty His creative handiwork and relishing the splendor of His-revelation in the Person and redemptive work of Jesus Christ.

No creo que tu vida no tenga sentido. He cambiado de opinión. Los milagros termodinámicos… son unos sucesos con unas probabilidades tan remotas de que lleguen a producirse que prácticamente resulta imposible que acaben dándose. Por ejemplo: que el oxígeno se transforme de manera espontánea en oro. Tengo muchas ganas de ver algo así. Y aún así, en cada apareamiento humano, mil millones de espermatozoides compiten para llegar a un solo óvulo. Multiplica esas posibilidades por las innumerables generaciones que ha habido de seres humanos, por las posibilidades de que tus antepasados vivieran, se conocieran, engendraran a ese hijo en concreto, a esa hija exactamente… hasta llegar a tu madre, que se enamorará de un hombre al que tiene todas las razones del mundo para odiar y de esa unión, de los miles de millones de niños que compiten para lograr fecundar el óvulo, fuiste tú, sólo tú, la que surgió. Destilar una forma tan específica a partir de tal caos de improbabilidades resulta tan difícil como que el aire se transforme en oro… El cenit de lo imposible. Un milagro termodinámico. Se podría decir eso de cualquier persona del mundo. Pero el planeta está tan lleno de gente, tan repleto de milagros, que acabamos considerándolos algo normal y olvidamos lo que son… Yo lo olvidé. Contemplamos la Tierra día tras día hasta que acaba convirtiéndose en un lugar al que consideramos monótono. Pero visto desde otro punto de vista, como si fuera algo nuevo, aún es capaz de asombrarnos. Ven, seca tus lágrimas, porque eres vida, algo más excepcional que un quark y más impredecible que lo que Heisenberg soñó jamás: la arcilla en la que las fuerzas que dan forma a todas las cosas dejan sus huellas de un modo más claro. Seca tus lágrimas… y volvamos a casa." Dr. Manhattan, WATCHMEN, Alan Moore

an­ti­quarks? Why are there not equal num­bers of each? It is cer­tain­ly for­tu­nate for us that the num­bers are un­equal be ear­ly uni­verse and left a uni­verse filled with ra­di­ation but hard­ly any mat­ter. There would then have been no galax­ies, stars, or plan­ets on which hu­man life could have de­vel­oped.

Three quarks for Muster Mark!” One thing quarks do have going for them: all their names are simple—something chemists, biologists, and especially geologists seem incapable of achieving when naming their own stuff.

What keeps me going when I think of ex-friends is that we’re all really going through several lifetimes, often at the same time, all with different people; that we draw towards and push away from each other when we have to, like fucking quarks and particles, and sometimes that drawing and the pushing heals, and sometimes it just hurts.

Shortly before, during, and after the strong and electroweak forces parted company, the universe was a seething soup of quarks, leptons, and their antimatter siblings, along with bosons, the particles that enable their interactions.

No one is completely worthless, for they can always serve as a horrible example. LM

Hence our decline of insight as we shift our gaze from human to ant to quark. Our decline of insight should not be mistaken for an insight into decline—a progressive poverty inherent in objective reality. The decline is in our interface, in our perceptions. But we externalize it; we pin it on reality. Then we erect, from this erroneous reification, an ontology of physicalism.

Sure relationships can be fun at first, but then you get to know each others quirks, and those quirks become quarks, and those quarks combine and become hadrons and scientists love to combine hadrons in giant hadron colliders and they create black holes!

I have never liked the phrase that says we’re just made of dust and return to dust. We are energy, which is interchangeable with light. We are fire and water and earth. We are air and atoms and quarks. Moreover, we are dreams, hopes, and fears held together by wisdom and driven apart by folly. So much more than dust. The biblical verse should say, “Miracle thou art and to Mystery returneth.

Quantum physicists discovered that physical atoms are made up of vortices of energy that are constantly spinning and vibrating; each atom is like a wobbly spinning top that radiates energy. Because each atom has its own specific energy signature (wobble), assemblies of atoms (molecules) collectively radiate their own identifying energy patterns. So every material structure in the universe, including you and me, radiates a unique energy signature. If it were theoretically possible to observe the composition of an actual atom with a microscope, what would we see? Imagine a swirling dust devil cutting across the desert’s floor. Now remove the sand and dirt from the funnel cloud. What you have left is an invisible, tornado-like vortex. A number of infinitesimally small, dust devil–like energy vortices called quarks and photons collectively make up the structure of the atom. From far away, the atom would likely appear as a blurry sphere. As its structure came nearer to focus, the atom would become less clear and less distinct. As the surface of the atom drew near, it would disappear. You would see nothing. In fact, as you focused through the entire structure of the atom, all you would observe is a physical void. The atom has no physical structure—the emperor has no clothes! Remember the atomic models you studied in school, the ones with marbles and ball bearings going around like the solar system? Let’s put that picture beside the “physical” structure of the atom discovered by quantum physicists. No, there has not been a printing mistake; atoms are made out of invisible energy not tangible matter! So in our world, material substance (matter) appears out of thin air. Kind of weird, when you think about it. Here you are holding this physical book in your hands. Yet if you were to focus on the book’s material substance with an atomic microscope, you would see that you are holding nothing. As it turns out, we undergraduate biology majors were right about one thing—the quantum universe is mind-bending. Let’s look more closely at the “now you see it, now you don’t” nature of quantum physics. Matter can simultaneously be defined as a solid (particle) and as an immaterial force field (wave). When scientists study the physical properties of atoms, such as mass and weight, they look and act like physical matter. However, when the same atoms are described in terms of voltage potentials and wavelengths, they exhibit the qualities and properties of energy (waves). (Hackermüller, et al, 2003; Chapman, et al, 1995; Pool 1995) The fact that energy and matter are one and the same is precisely what Einstein recognized when he concluded that E = mc2. Simply stated, this equation reveals that energy (E) = matter (m, mass) multiplied by the speed of light squared (c2). Einstein revealed that we do not live in a universe with discrete, physical objects separated by dead space. The Universe is one indivisible, dynamic whole in which energy and matter are so deeply entangled it is impossible to consider them as independent elements.

A millionth of a second has passed since the beginning. This tepid universe was no longer hot enough or dense enough to cook quarks, and so they all grabbed dance partners, creating a permanent new family of heavy particles called hadrons (from the Greek hadros, meaning “thick”).

In fact, meta- and particle physicists have more in common than one might suppose: both tug, if in slightly different directions, at the knots which hold the cosmos together, both look beyond the immediate world of sense perception into one where cause can only be deduced from effect - a quark is as invisible as an angel; both are confronted by Manichaean polarities - miracles and black magic, cheap energy versus total destruction.

How do I know that a table still exists if I go out of the room and can’t see it? What does it mean to say that things we can’t see, such as electrons or quarks—the particles that are said to make up the proton and neutron—exist? One could have a model in which the table disappears when I leave the room and reappears in the same position when I come back, but that would be awkward, and what if something happened when I was out, like the ceiling falling in? How, under the table-disappears-when-I-leave-the-room model, could I account for the fact that the next time I enter, the table reappears broken, under the debris of the ceiling? The model in which the table stays put is much simpler and agrees with observation. That is all one can ask.

The convert will understand. How do they translate ºyw in your English interpretation?” “Atom,” said the convert. “You don’t find that strange, considering atoms were unknown in the sixth century?” The convert chewed her lip. “I never thought of that,” she said. “You’re right. There’s no way atom is the original meaning of that word.” “Ah.” Vikram held up two fingers in a sign of benediction. He looked, Alif thought, like some demonic caricature of a saint. “But it is. In the twentieth century, atom became the original meaning of ºyw, because an atom was the tiniest object known to man. Then man split the atom. Today, the original meaning might be hadron. But why stop there? Tomorrow, it might be quark. In a hundred years, some vanishingly small object so foreign to the human mind that only Adam remembers its name. Each of those will be the original meaning of ºyw.” Alif snorted. “That’s impossible. ºyw must refer to some fundamental thing. It’s attached to an object.” “Yes it is. The smallest indivisible particle. That is the meaning packaged in the word. No part of it lifts out—it does not mean smallest, nor indivisible, nor particle, but all those things at once. Thus, in man’s infancy, ºyw was a grain of sand. Then a mote of dust. Then a cell. Then a molecule. Then an atom. And so on. Man’s knowledge of the universe may grow, but ºyw does not change.” “That’s . . .” The convert trailed off, looking lost. “Miraculous. Indeed.

I believe in God the way I believe in quarks,” she said coolly. “People whose business it is to know about quantum physics or religion tell me they have good reason to believe that quarks and God exist. And they tell me that if I wanted to devote my life to learning what they’ve learned, I’d find quarks and God just like they did.

There are two foundational pillars upon which modern physics rests. One is Albert Einstein's general relativity, which provides a theoretical framework for understanding the universe on the largest of scales: stars, galaxies, clusters of galaxies, and beyond to the immense expanse of the universe itself. The other is quantum mechanics, which provides a theoretical framework for understanding the universe on the smallest of scales: molecules, atoms, and all the way down to subatomic particles like electrons and quarks. Through years of research, physicists have experimentally confirmed to almost unimaginable accuracy virtually all predictions made by each of these theories. But these same theoretical tools inexorably lead to another disturbing conclusion: As they are currently formulated, general relativity and quantum mechanics cannot both be right.

Reasonableness is a matter of degree. Beliefs can be very reasonable (Japan exists), fairly reasonable (quarks exist), not unreasonable (there's intelligent life on other planets) or downright unreasonable (fairies exist). There's a scale of reasonableness, if you like, with very reasonable beliefs near the top and deeply unreasonable ones towards the bottom. Notice a belief can be very high up the scale, yet still be open to some doubt. And even when a belief is low down, we can still acknowledge the remote possibility it might be true. How reasonable is the belief that God exists? Atheists typically think it very unreasonable. Very low on the scale. But most religious people say it is at least not unreasonable (have you ever met a Christian who said 'Hey, belief in God is no more reasonable than belief in fairies, but I believe it anyway!'?) They think their belief is at least halfway up the scale of reasonableness. Now, that their belief is downright unreasonable might, in fact, be established empirically. If it turned out that not only is there no good evidence of an all-powerful, all-good God, there's also overwhelming evidence against (from millions of years of unimaginable and pointless animal suffering, including several mass extinctions - to thousands of children being crushed to death or buried alive in Pakistan earthquake, etc. etc. etc.) then it could be empirically confirmed that there's no God. Would this constitute a 'proof' that there's no God? Depends what you mean by 'proof'. Personally I think these sorts of consideration do establish beyond any reasonable doubt that there is no all-powerful all-good God. So we can, in this sense, prove there's no God. Yet all the people quoted in my last blog say you cannot 'scientifically' prove or disprove God's existence. If they mean prove beyond any doubt they are right. But then hardly anything is provable in that sense, not even the non-existence of fairies.

The real issues aren’t the quarks that hold together our physical bodies. The real issue is our own personal nonlinearity - the real us. We can’t see our real selves; we only see the containers we happen to be in right now. The real “us” is software, not hardware, which means it’s without mass, which means it has no time. We are eternal - saved or not. That’s the problem, because we each have an eternity ahead of us. Where will we spend it?

Every cell in your body, she said, was a quark, a sort of vibrating string. And through their thoughts and intentions, human beings had an almost magnetic power to attract similar strings out in the universe. As the number and intensity of these attracted strings build, a critical mass is reached and the want, whatever that may be, comes into being. “Most of us are more powerful than we know. We are each in charge of our own vibrating energy.

My own opinion is that the intellect of modern man isn’t that superior. IQs aren’t that much different. Those Indians and medieval men were just as intelligent as we are, but the context in which they thought was completely different. Within that context of thought, ghosts and spirits are quite as real as atoms, particles, photons and quarks are to a modern man. In that sense I believe in ghosts. Modern man has his ghosts and spirits too, you know.

(The string is extremely tiny, at the Planck length of 10 ^-33 cm, a billion billion times smaller than a proton, so all subatomic particles appear pointlike.) If we were to pluck this string, the vibration would change; the electron might turn into a neutrino. Pluck it again and it might turn into a quark. In fact, if you plucked it hard enough, it could turn into any of the known subatomic particles. Strings can interact by splitting and rejoining, thus creating the interactions we see among electrons and protons in atoms. In this way, through string theory, we can reproduce all the laws of atomic and nuclear physics. The "melodies" that can be written on strings correspond to the laws of chemistry. The universe can now be viewed as a vast symphony of strings.

The cherry trees are disconsolate lovers; they can't hold their pink smiles after the unkindness of that night. The wind here is straight from Chicago - it will snap you unless you bend. The news from far-off money towns is the clamor of falling towers. Yet my woolly dog is happy chasing a well-chewed stick and a wet spaniel, a green-headed duck is talking quarks with a brown-headed duck on the lake shore, and my friend is reading poems of spring in a language she knows only in dreams. The wild cherries will bloom again.

If I look at a forest from afar, I see a dark green velvet. As I move toward it, the velvet breaks up into trunks, branches and leaves: the bark of the trunks, the moss, the insects, the teeming complexity. In every eye of every ladybug, there is an extremely elaborate structure of cells connected to neurons that guide and enable them to live. Every cell is a city, every protein a castle of atoms; in each atomic nucleus an inferno of quantum dynamics is stirring, quarks and gluons swirl, excitations of quantum fields. This is only a small wood on a small planet that revolves around a little star, among one hundred billion stars in one of the thousand billion galaxies constellated with dazzling cosmic events. In every corner of the universe we find vertiginous wells of layers of reality.

Anybody in the world. ..But the world is so full of people, so crowded with these miracles that they become commonplace and we forget... I forget. We gaze continually at the world and it grows dull in our perceptions. Yet seen from the another's vantage point. As if new, it may still take our breath away. Come...dry your eyes. For you are life, rarer than a quark and unpredictable beyond the dreams of Heisenberg; the clay in which the forces that shape all things leave their fingerprints most clearly. Dry your eyes... and let's go home.

Atheism is the default position in any scientific inquiry, just as a-quarkism or a-neutrinoism was. That is, any entity has to earn its admission into a scientific account either via direct evidence for its existence or because it plays some fundamental explanatory role. Before the theoretical need for neutrinos was appreciated (to preserve the conservation of energy) and then later experimental detection was made, they were not part of the accepted physical account of the world. To say physicists in 1900 were 'agnostic' about neutrinos sounds wrong: they just did not believe there were such things. As yet, there is no direct experimental evidence of a deity, and in order for the postulation of a deity to play an explanatory role there would have to be a lot of detail about how it would act. If, as you have suggested, we are not “good judges of how the deity would behave,” then such an unknown and unpredictable deity cannot provide good explanatory grounds for any phenomenon. The problem with the 'minimal view' is that in trying to be as vague as possible about the nature and motivation of the deity, the hypothesis loses any explanatory force, and so cannot be admitted on scientific grounds. Of course, as the example of quarks and neutrinos shows, scientific accounts change in response to new data and new theory. The default position can be overcome.

Before World War II, when physics was primarily a European enterprise, physicists used the Greek language to name particles. Photon, electron, meson, baryon, lepton, and even hadron originated from the Greek. But later brash, irreverent, and sometimes silly Americans took over, and the names lightened up. Quark is a nonsense word from James Joyce’s Finnegan’s Wake, but from that literary high point, things went downhill. The distinctions between the different quark types are referred to by the singularly inappropriate term flavor. We might have spoken of chocolate, strawberry, vanilla, pistachio, cherry, and mint chocolate chip quarks but we don’t. The six flavors of quarks are up, down, strange, charmed, bottom, and top. At one point, bottom and top were considered too risqué, so for a brief time they became truth and beauty.

If we had a microscope powerful enough, we could see that electrons, quarks, neutrinos, etc. are nothing but vibrations on minuscule loops resembling rubber bands. If we pluck the rubber band enough times and in different ways, we eventually create all the known subatomic particles in the universe. This means that all the laws of physics can be reduced to the harmonies of these strings. Chemistry is the melodies one can play on them. The universe is a symphony. And the mind of God, which Einstein eloquently wrote about, is cosmic music resonating throughout space-time.

How do fields express their principles? Physicists use terms like photons, electrons, quarks, quantum wave functions, relativity, and energy conservation. Astronomers use terms like planets, stars, galaxies, Hubble shift, and black holes. Thermodynamicists use terms like entropy, first law, second law, and Carnot cycle. Biologists use terms like phylogeny, ontology, DNA, and enzymes. Each of these terms can be considered to be the thread of a story. The principles of a field are actually a set of interwoven stories about the structure and behavior of field elements, the fabric of the multiverse.

What makes a person "the same" person across life's tectonic upheavals of circumstance and character? Amid the chaos and decay toward which the universe inclines, we grasp for stability and permanence by trying to carve out a solid sense of self in our blink of existence. But there is no solidity. Every quark of every atom of every cell in your body had been replaced since the time of your first conscious memory, your first word, your first kiss. In the act of living, you come to dream different dreams, value different values, love different loves. In a sense, you are reborn with each new experience.

To me it is truly remarkable that on a single sheet of paper one can write down the laws that govern all known physical phenomena, covering forty-three orders of magnitude, from the farthest reaches of the cosmos over 10 billion light-years away to the microworld of quarks and neutrinos. On that sheet of paper would be just two equations, Einstein’s theory of gravity and the Standard Model. To me this reveals the ultimate simplicity and harmony of nature at the fundamental level. The universe could have been perverse, random, or capricious. And yet it appears to us to be whole, coherent, and beautiful.

The gossip theory might sound like a joke, but numerous studies support it. Even today the vast majority of human communication – whether in the form of emails, phone calls or newspaper columns – is gossip. It comes so naturally to us that it seems as if our language evolved for this very purpose. Do you think that history professors chat about the reasons for the First World War when they meet for lunch, or that nuclear physicists spend their coffee breaks at scientific conferences talking about quarks? Sometimes. But more often, they gossip about the professor who caught her husband cheating, or the quarrel between the head of the department and the dean, or the rumours that a colleague used his research funds to buy a Lexus. Gossip usually focuses on wrongdoings. Rumour-mongers are the original fourth estate, journalists who inform society about and thus protect it from cheats and freeloaders. Most

Oh, you’re going to zap me with penicillin and pesticides. Spare me that and I’ll spare you the bomb and aerosols. But don’t confuse progress with perfectibility. A great poet is always timely. A great philosopher is an urgent need. There’s no rush for Isaac Newton. We were quite happy with Aristotle’s cosmos. Personally, I preferred it. Fifty-five crystal spheres geared to God’s crankshaft is my idea of a satisfying universe. I can’t think of anything more trivial than the speed of light. Quarks, quasars—big bangs, black holes—who gives a shit? How did you people con us out of all that status? All that money? And why are you so pleased with yourselves?

I'd finally reached the end of myself, all my self-reliance and denial and pride unraveling into nothingness, leaving only a blank Alison-shaped space behind. It was finished. I was done. But just as I felt myself dissolving on the tide of my own self-condemnation, the dark waves receded, and I floated into a celestial calm. I saw the whole universe laid out before me, a vast shining machine of indescribable beauty and complexity. Its design was too intricate for me to understand, and I knew I could never begin to grasp more than the smallest idea of its purpose. But I sensed that every part of it, from quark to quasar, was unique and - in some mysterious way - significant. I heard the universe as an oratorio sung by a master choir of stars, accompanied by the orchestra of the planets and the percussion of satellites and moons. The aria they performed was a song to break the heart, full of tragic dissonance and deferred hope, and yet somewhere beneath it all was a peircing refrain of glory, glory, glory. And I sensed that not only the grand movements of the cosmos, but everything that had happened in my life, was a part of that song. Even the hurts that seemed most senseless, the mistakes I would have done anything to erase - nothing could make those things good, but good could still come out of them all the same, and in the end the oratorio would be no less beautiful for it. I realized then that even though I was a tiny speck in an infinite cosmos, a blip on the timeline of eternity, I was not without purpose. And as long as I had a part in the music of the spheres, even if it was only a single grace not, I was not worthless. Nor was I alone. God help me, I prayed as I gathered up my raw and weary sense, flung them into the wormhole - And at last, found what I'd been looking for.

Whatever you want," he said. "Will you please come here now?" I slipped a piece of protective tissue over my drawing and flipped the book closed. A piece of blue scratch paper slid out, the line I'd copied from Edward;s poetry book. "Hey. Translate for me, Monsieur Bainbridge." I set the sketchbook on my stool and joined him on the chaise. He tugged me onto his lap and read over his head. "'Qu'ieu sui avinen, leu lo sai.' 'That I am handsome, I know." "Verry funny." "Very true." He grinned. "The translation. That's what it says. Old-fashionedly." I thought of Edward's notation on the page, the reminder to read the poem to Diana in bed, and rolled my eyes. You're so vain.I bet you think this song is about you..."Boy and their egos." Alex cupped my face in his hands. "Que tu est belle, tu le sais." "Oh,I am not-" "Shh," he shushed me, and leaned in. The first bell came way too soon. I reluctantly loosened my grip on his shirt and ran my hands over my hair. He prompty thrust both hands in and messed it up again. "Stop," I scolded, but without much force. "I have physics," he told me. "We're studying weak interaction." I sandwiched his open hand between mine. "You know absolutely nothing about that." "Don't be so quick to accept the obvious," he mock-scolded me. "Weak interaction can actually change the flavor of quarks." The flavor of quirks, I thought, and vaguely remembered something about being charmed. I'd sat through a term of introductory physics before switching to basic biology. I'd forgotten most of that as soon as I'd been tested on it,too. "I gotta go." Alex pushed me to my feet and followed. "Last person to get to class always gets the first question, and I didn't do the reading." "Go," I told him. "I have history. By definition, we get to history late." "Ha-ha. I'll talk to you later." He kissed me again, then walked out, closing the door quietly behind him.

The leading (and to my mind, only) candidate is called string theory, which posits the universe was not made of point particles but of tiny vibrating strings, with each note corresponding to a subatomic particle. If we had a microscope powerful enough, we could see that electrons, quarks, neutrinos, etc. are nothing but vibrations on minuscule loops resembling rubber bands. If we pluck the rubber band enough times and in different ways, we eventually create all the known subatomic particles in the universe. This means that all the laws of physics can be reduced to the harmonies of these strings. Chemistry is the melodies one can play on them. The universe is a symphony. And the mind of God, which Einstein eloquently wrote about, is cosmic music resonating throughout space-time.

What do you mean, words whose meanings evolved?" asked Alif. "That doesn't make sense. The Quran is the Quran." Vikram folded his legs-Alif did not watch this operation closely-and smiled at his audience. "The convert will understand. How do they translate ذرة in your English interpretation?" "Atom," said the convert. You don't find that strange, considering atoms were unknown in the sixth century?" The convert chewed her lip. "I never thought of that," she said. "You're right. There's no way atom is the original meaning of that word." "Ah." Vikram held up two fingers in a sign of benediction. He looked, Alif thought, like some demonic caricature of a saint. "But it is. In the twentieth century, atom became the original meaning of ذرة, because an atom was the tiniest object known to man. Then man split the atom. Today, the original meaning might be hadron. But why stop there? Tomorrow, it might be quark. In a hundred years, some vanishingly small object so foreign to the human mind that only Adam remembers its name. Each of those will be the original meaning of ذرة. Alif snorted. "That's impossible. ذرة must refer to some fundamental thing. It's attached to an object." "Yes it is. The smallest indivisible particle. That is the meaning packaged in the word. No part of it lifts out-it does not mean smallest, nor indivisible, nor particle, but all those things at once. Thus, in man's infancy, ذرة was a grain of sand. Then a mote of dust. Then a cell. Then a molecule. Then an atom. And so on. Man's knowledge of the universe may grow, but ذرة does not change." "That's..."The convert trailed off, looking lost. "Miraculous. Indeed.

All organisms can make the most basic distinctions--between food and not-food, danger and safety, light and dark, same-species and not-same. But only people can use language to make the highly complex categorizations of, say, animals or physical forces, or however many different kinds of quarks there are now, putting them in separate piles and naming the piles. It's how we proceed; it's how we communicate. Organization into categories is, at bottom, human.

Superstition [is] cowardice in the face of the Divine,’ wrote Theophrastus, who lived during the founding of the Library of Alexandria. We inhabit a universe where atoms are made in the centers of stars; where each second a thousand suns are born; where life is sparked by sunlight and lightning in the airs and waters of youthful planets; where the raw material for biological evolution is sometimes made by the explosion of a star halfway across the Milky Way; where a thing as beautiful as a galaxy is formed a hundred billion times - a Cosmos of quasars and quarks, snowflakes and fireflies, where there may be black holes and other universes and extraterrestrial civilizations whose radio messages are at this moment reaching the Earth. How pallid by comparison are the pretensions of superstition and pseudoscience; how important it is for us to pursue and understand science, that characteristically human endeavor.

The scientific world of matter can be reduced, in some sense, to its fundamental constituent elements: molecules, atoms, even quarks. However, the world of experience has primal constituents, as well. These are the necessary elements whose interactions define drama and fiction. One of these is chaos. Another is order. The third (as there are three) is the process that mediates between the two, which appears identical to what modern people call consciousness.

In sum, the fruition of 50 years of research, and several hundred million dollars in government funds, has given us the following picture of sub-atomic matter. All matter consists of quarks and leptons, which interact by exchanging different types of quanta, described by the Maxwell and Yang-Mills fields. In one sentence, we have captured the essence of the past century of frustrating investigation into the subatomic realm, From this simple picture one can derive, from pure mathematics alone, all the myriad and baffling properties of matter. (Although it all seems so easy now, Nobel laureate Steven Weinberg, one of the creators of the Standard Model, once reflected on how tortuous the 50-year journey to discover the model had been. He wrote, "There's a long tradition of theoretical physics, which by no means affected everyone but certainly affected me, that said the strong interactions [were] too complicated for the human mind.")

The difference between supermind and Big Mind (if we take Big Mind to mean the state experience of nondual Suchness, or turiyatita) is that Big Mind can be experienced or recognized at virtually any lower level or rung. Magic to Integral. In fact, one can be at, say, the Pluralistic stage, and experience several core characteristics of the entire sequence of state-stages (gross to subtle to causal to Witnessing to Nondual), although, of course, the entire sequence, including nondual Suchness, will be interpreted in Pluralistic terms. This is unfortunate in many ways—interpreting Dharma in merely Pluralistic terms (or Mythic terms, or Rational, and so on)—because it is so ultimately reductionistic; but it happens all the time, given the relative independence of states and structures at 1st and 2nd tier. Supermind, on the other hand, as a basic structure-rung (conjoined with nondual Suchness) can only be experienced once all the previous junior levels have emerged and developed, and as in all structure development, stages cannot be skipped. Therefore, unlike Big Mind, supermind can only be experienced after all 1st-, 2nd-, and 3rd-tier junior stages have been passed through. While, as Genpo Roshi has abundantly demonstrated, Big Mind state experience is available to virtually anybody at almost any age (and will be interpreted according to the View of their current stage), supermind is an extremely rare recognition. Supermind, as the highest structure-rung to date, has access to all previous structures, all the way back to Archaic—and the Archaic itself, of course, has transcended and included, and now embraces, every major structural evolution going all the way back to the Big Bang. (A human being literally enfolds and embraces all the major transformative unfoldings of the entire Kosmic history—strings to quarks to subatomic particles to atoms to molecules to cells, all the way through the Tree of Life up to its latest evolutionary emergent, the triune brain, the most complex structure in the known natural world.) Supermind, in any given individual, is experienced as a type of “omniscience”—the supermind, since it transcends and includes all of the previous structure-rungs, and inherently is conjoined with the highest nondual Suchness state, has a full and complete knowledge of all of the potentials in that person. It literally “knows all,” at least for the individual.

What about the dissolution transporter?” suggested Ms. Minnian. “Is it still checked out?” “Let’s see.” Doc went over to a card file and flipped through it. “No, it’s back downstairs in the Chresto. Excellent idea.” “What’s a dissolution transporter?” I asked. “Sort of like a fax machine for objects,” said Dr. Rust. “What’s a fax machine, then?” “Oh, you young people!” said Ms. Minnian. “Never mind about the fax,” said Doc. “A dissolution transporter deconstructs an object—in this case, you—taking note of its exact structure and composition. Then it transfers that information to another location, where the object is reassembled from material there.” “Kind of like the transporter on Star Trek except it only works one way,” said Jaya. That sounded alarming. “But if we’re deconstructed here and reassembled someplace else, won’t we turn into other people?” “Technically, yes. But you’ll be other people with the exact same memories. And exact duplicates of your bodies, down to the last quark,” said Ms. Minnian. “Yes, but I’ll be dead! Just because someone else has my memories, that doesn’t mean it’s me!” I objected. “It’s okay, Leo,” said Jaya. “I’ve used the diss tran a zillion times and I still feel like myself.” “Of course you do. You have all of the original Jaya’s memories, so of course you think you’re her. That doesn’t mean you are.” “What makes you so sure you’re the same Leo who went to bed last night?” said Ms. Minnian. “Dissolution transportation is no more discontinuous than falling asleep and waking up again. But you don’t have to go if you’re afraid.

We have already seen that gauge symmetry that characterizes the electroweak force-the freedom to interchange electrons and neturinos-dictates the existence of the messenger electroweak fields (photon, W, and Z). Similarly, the gauge color symmetry requires the presence of eight gluon fields. The gluons are the messengers of the strong force that binds quarks together to form composite particles such as the proton. Incidentally, the color "charges" of the three quarks that make up a proton or a neutron are all different (red, blue, green), and they add up to give zero color charge or "white" (equivalent to being electrically neutral in electromagnetism). Since color symmetry is at the base of the gluon-mediated force between quarks, the theory of these forces has become known as quantum chromodynamics. The marriage of the electroweak theory (which describes the electromagnetic and weak forces) with quantum chromodynamics (which describes the strong force) produced the standard model-the basic theory of elementary particles and the physical laws that govern them.

I am Ding Yi.” He opened up two folding chairs and motioned for us to sit down, then returned to his chair. He said, “Before you tell me why you’ve come, let me discuss with you a dream I’ve just had.… No, you’ve got to listen. It was a wonderful dream, which you interrupted. In the dream I was sitting here, a knife in my hand, around so long, like for cutting watermelon. Next to me was this tea table. But there wasn’t an ashtray or anything on it. Just two round objects, yea big. Circular, spherical. What do you think they were?” “Watermelon?” “No, no. One was a proton, the other a neutron. A watermelon-sized proton and neutron. I cut the proton open first. Its charge flowed out onto the table, all sticky, with a fresh fragrance. After I cut the proton in half, the quarks inside tumbled out, tinkling. They were about the size of walnuts, in all sorts of colors. They rolled about on the table, and some of them fell onto the floor. I picked up a white one. It was very hard, but with effort, I was able to bite into it. It tasted like a manaizi grape.… And right then, you woke me up.

When they were about a hundred meters from the death lines, Yifan waved Cheng Xin to a stop. Each death line was about twenty or thirty meters in diameter, and from here, they resembled death columns. “These are probably the darkest things in the universe,” Cheng Xin said. The death lines showed no details except an exceptional blackness showing the boundaries of the zero-lightspeed region, with no real surface. Looking up, the lines showed up clearly even against the dark backdrop of space. “These are the deadest things in the universe as well,” said Guan Yifan. “Zero-lightspeed means absolute, one hundred percent death. Inside it, every fundamental particle, every quark is dead. There is no vibration. Even without a source of gravity inside, each death line is a black hole. A zero-gravity black hole. Anything that falls in cannot reemerge.” Yifan picked up a rock and tossed it toward one of the death lines. The rock disappeared inside the absolute darkness. “Can your lightspeed ships produce death lines?” Cheng Xin asked. “Far from it.” “So you’ve seen these before, then?” “Yes, but only rarely.” Cheng

Music of the Grid: A Poem in Two Equations _________________________ The masses of particles sound the frequencies with which space vibrates, when played. This Music of the Grid betters the old mystic mainstay, "Music of the Spheres," both in fantasy and in realism. LET US COMBINE Einstein's second law m=E/C^2 (1) with another fundamental equation, the Planck-Einstein-Schrodinger formula E = hv The Planck-Einstein-Schrodinger formula relates the energy E of a quantum-mechanical state to the frequency v at which its wave function vibrates. Here h is Planck's constant. Planck introduced it in his revolutionary hypothesis (1899) that launched quantum theory: that atoms emit or absorb light of frequency v only in packets of energy E = hv. Einstein went a big step further with his photon hypothesis (1905): that light of frequency v is always organized into packets with energy E = hv. Finally Schrodinger made it the basis of his basic equation for wave functions-the Schrodinger equation (1926). This gave birth to the modern, universal interpretation: the wave function of any state with energy E vibrates at a frequency v given by v = E/h. By combining Einstein with Schrodinger we arrive at a marvelous bit of poetry: (*) v = mc^2/h (*) The ancients had a concept called "Music of the Spheres" that inspired many scientists (notably Johannes Kepler) and even more mystics. Because periodic motion (vibration) of musical instruments causes their sustained tones, the idea goes, the periodic motions of the planets, as they fulfill their orbits, must be accompanied by a sort of music. Though picturesque and soundscape-esque, this inspiring anticipation of multimedia never became a very precise or fruitful scientific idea. It was never more than a vague metaphor, so it remains shrouded in equation marks: "Music of the Spheres." Our equation (*) is a more fantastic yet more realistic embodiment of the same inspiration. Rather than plucking a string, blowing through a reed, banging on a drumhead, or clanging a gong, we play the instrument that is empty space by plunking down different combinations of quarks, gluons, electrons, photons,... (that is, the Bits that represent these Its) and let them settle until they reach equilibrium with the spontaneous activity of Grid. Neither planets nor any material constructions compromise the pure ideality of our instrument. It settles into one of its possible vibratory motions, with different frequencies v, depending on how we do the plunking, and with what. These vibrations represent particles of different mass m, according to (*). The masses of particles sound the Music of the Grid.

If we shuffle three colored quarks and the equations remain the same, then we say that the equations possess something called SU(3) symmetry. The 3 represents the fact that we have three types of colors, and the SU stands for a specific mathematical property of the symmetry. We say that there are three quarks in a multiplet. The quarks in a multiplet can be shuffled among one another without changing the physics of the theory. Similarly, the weak force governs the properties of two particles, the electron and the neutrino. The symmetry that interchanges these particles, yet leaves the equation the same, is called SU(2). This means that a multiplet of the weak force contains an electron and a neutrino, which can be rotated into each other. Finally, the electromagnetic force has U(1) symmetry, which rotates the components of the Maxwell field into itself. Each of these symmetries is simple and elegant. However, the most controversial aspect of the Standard Model is that it "unifies" the three fundamental forces by simply splicing all three theories into one large symmetry. SU(3) X SU(2) X U(1), which is just the product of the symmetries of the individual forces. (This can be compared to assembling a jigsaw puzzle. If we have three jigsaw pieces that don't quite fit, we can always take Scotch tape and splice them together by hand. This is how the Standard Model is formed, by taping three distinct multiplets together. This may not be aesthetically pleasing, but at least the three jigsaw puzzles now hang together by tape.) Ideally, one might have expected that "the ultimate theory" would have all the particles inside just a single multiplet. Unfortunately, the Standard Model has three distinct multiplets, which cannot be rotated among one another.

The only distinguishing characteristic of a literature professor at the millennium was that he or she wrote about other people's writing. Apart from that, the writing he wrote about didn't even need to be literature, or writing about literature, or even writing about writing about literature. He needed theory...In the unflickering glare, at the center of a severe perspective, Nelson suddenly felt the visceral truth of the world as text; he apperceived the fundamentally linguistic nature of reality. Everything was text, at every level of existence, all the way up from quarks to queer theory. Words arranged in lines; lines arrayed on pages; pages pressed together, bound, and trimmed in books; books arranged cover to cover along a shelf like the words in a line of text; shelves stacked one atop the other like lines of text on a page; rows of shelves pressed together, with just the barest passage for the reader, like the pages of a book.

The world is made of fields—substances spread through all of space that we notice through their vibrations, which appear to us as particles. The electric field and the gravitational field might seem familiar, but according to quantum field theory even particles like electrons and quarks are really vibrations in certain kinds of fields. • The Higgs boson is a vibration in the Higgs field, just as a photon of light is a vibration in the electromagnetic field. • The four famous forces of nature arise from symmetries—changes we can make to a situation without changing anything important about what happens. (Yes, it makes no immediate sense that “a change that doesn’t make a difference” leads directly to “a force of nature” . . . but that was one of the startling insights of twentieth-century physics.) • Symmetries are sometimes hidden and therefore invisible to us. Physicists often say that hidden symmetries are “broken,” but they’re still there in the underlying laws of physics—they’re simply disguised in the immediately observable world. • The weak nuclear force, in particular, is based on a certain kind of symmetry. If that symmetry were unbroken, it would be impossible for elementary particles to have mass. They would all zip around at the speed of light. • But most elementary particles do have mass, and they don’t zip around at the speed of light. Therefore, the symmetry of the weak interactions must be broken. • When space is completely empty, most fields are turned off, set to zero. If a field is not zero in empty space, it can break a symmetry. In the case of the weak interactions, that’s the job of the Higgs field. Without it, the universe would be an utterly different place.   Got