21 March 2014

Notes - final Chapter Seven / usable inflation / added notes from Doug /

          
         Late morning. You have finished the final Chapter Seven draft. Add and post. – Amorella

***
Chapter Seven
Contemplation

The Supervisor has a little saying:
                                    Ring-a-ring o'rosies
                                    A pocket full of posies
                                    "A-tishoo! A-tishoo!"
                                    We all fall down!

                                    We rise from clay
                                    On Judgment Day
                                    Be we dead or still alive.

            I, Merlyn, have this little ditty above memorized to the point it sets stemmed in letters out of which each four-leafed chapter dreams grow to clover size. I knead the dreams into a word stream of music for the heart and soul and mind with hope that when read, these stories cast a light into those living with an imagination that casts no shadow.





The Dead 7

         Merlyn stands by the chair rock in his sanctuary and looks west, looks through the heather and between oak and birch to the cold river water. He conjures lifelong memories of fishing from such rivers. I see exciting great catches of salmon, trout, northern pike and arctic charr. The size, shape and colors of the many fish quickly slide away. They are but bait for memories to grab at those many daydreams. Youthfully fantasies stirred my body's male nature through lonely and sometime surreal surroundings hot kettled in my budding druidic spirit. What be the name that is alphabetized first, Vivian. We are such human creatures of familiar habits -- toys we are to one another whether in embrace or no. Such souls as we dance within our spirits so close that we share sanctuaries sometimes unknown to one another, especially in this place, this link to the Living.

         The billiard table rises. Merlyn stares at the grouped balls near the side rail. The yellow one sets to the left of the orange striped thirteen and the purple striped twelve ball. To the right of the striped are three solids, the blue two, green six and maroon seven. What is the meaning of how these balls lie, he wonders. Am I like the ancient Greek prognosticator stirring recent entrails of intention within romance or an astrologer looking at the alignment of billiard balls rather than the cognation behind this illusionary table. Yet what am I to see would be reflected as a vision by any other name but my own.

         "You are captivated by my presence, Merlyn," says Vivian in a modest though clearly suggestive voice."

         She faces me within this intimate heart interval and my tongueless tongue freezes.

         "Which of these vividly hued balls would you have me be, Merlyn, when I am myself the table on which you dress your endearing and passionate contemplations?  No need of cue stick or billiard balls to roll in me, my dear man," winked the shrewd foxy-tailed apparition, this Druidess Vivian pre-fixed in Druid.

         'My dear man,' those were the last words Vivian said to my living ears. I had heard those last words with living ears.

         "This is not so, Merlyn," whispered a voice of consciousness. His ears increased and he felt his facial muscles seemingly materialize from spirit. Merlyn looked left towards his privacy hut realizing what he had known since death, there are no mirrors. The Dead reflect only through the closest of friends. Even among the Living I cannot be seen nor can I see myself other than by fanciful contemplation. I feel my physical body grown but I have no proof. I have no witness other than this string theory of words alone.

         Vivian presses her warm lips lightly against the flesh of his right ear and whispered seductively, "We are attached souls, married as a blacksmith’s blade is married copper and iron."
         Merlyn carefully turns his head away from his natural abode and composed his tongue to say, "How do you mean these words?" The wonder roars through his mind and heart while white lightning bolts glacially slow between the lines, 'She has me still and in an enchantment.'

         Vivian whispers, ”Our souls are twinned not intertwined. You used to say our love was but a thread entwined many times over, solidified by experience and memory, but you are wrong though the word 'entwined' is near." Vivian gives another quick press of her warm moist lips on his now equally warm ear. "I am but a gift of love’s giving.”

         I evaporate from ice to air, eyes Merlyn. I, the once master, am taught a lesson by my once student. Vivian exists with-on-me, with-beside-me, but not within the completed soul. Rings we are in a timeless chain. The spiritual passageways are macro-webbed tunnels. For what uses was this is in secret told. It would seem to make no difference among we the Dead, but among the Living such a twinning of spidery macro-soul grooms tighter, and ever so insect-like around the world. Such invisible intent cannot be known in physics but among the seeming starlight in souls it is as far spread and resolute as gravity. Grammar is the physics of thought, and Vivian as my Muse might, dreams my dreams into the dreams of others.



The Brothers 7

            The next day while at Robert and Connie's home, the brothers sauntered out of the kitchen into the dining room to rid themselves from their wives chatter on the seemingly consistent recipes for roast beef and gravy as well as graham cracker pie, essentially the same recipes from their grandparents' time. Each recipe begins: "This is a family recipe. Do Not Share. "
“Good brownies,” states Robert as the stood by the dining room table nibbling the freshly baked goodies on the plate.
            “Yeah, this is my third one.”
            “I agree. Connie makes the best brownies.”
            “No question on that, but Cyndi Bleacher makes the best chocolate chip cookies,” smiled Richard.
            “Your wife makes one hell of a cookie. I agree,” replies Robert who then continues sipping his half a glass of skim milk. He pauses, "I'm working a new poem on blacksmithing — welding.“
            Surprised, Richard comments, ”You haven't used that as a subject before."
            "You're right."
            "So, why now?"
            "I was thinking about how it was on Uncle Doc and Auntie's farm when we were kids. Their neighbor was a smithy when he needed to be. I remember he came over and welded the plow more than once. The arc, the welding light, was the brightest thing I had ever seen.
            "We were told to never look directly at it,” counters Richard.
            "I only did once. Never forgotten. So I need to shade that flash of memory in permanent ink."
            “I've been thinking about the mausoleum as a poetic theme,” says Richard.
            "I go for the bright light and you for stained glass.”
            Richard retorted, “What about the stained glass?”
            “What about it?”
            “I like the symbolism.”
            “I do too, my interest peaked with the three women and subsided with the angels having green wings.”
            Richard grins, “The artist’s ladies were waiting for the resurrection and it already had taken place.”
            “You know,” comments Robert. “I never got that. Why were they going to the tomb if they had any sense that he wasn’t going to be there?”
            “I suppose they were checking just like we did at the mausoleum.
            “True enough,”  Richard. “True enough.”
            Cyndi walks in from the kitchen first, "What you are boys talking about?"
            "The stained glass in the mausoleum," responds Robert, "the angels with green wings."
            Richard quickly follows, "I like the symbolism of a resurrection that had already happened."
            "Why are you two dyed-in-the-wool agnostics talking about angels?" asks Cyndi, "especially you Richard?"
            "Yah, Dickie?" drawls Robert with a smirk.
            Connie’s voice come from the kitchen, "What are you two arguing about?" Walking in, Connie gives Robert an annoying look for the mock impoliteness directed at his brother. Eyes sparkling she gives Richard a peck on the cheek, "I think 'Dickie' is endearing. Your grandmother enunciated it with great affection."
            Richard mimicked Grandma. ”Grandma shouted ‘Dick-kee’ like she was calling the hogs. 'Dick-kie, where are you Dick-kie?" They all laugh,Robert shakes his head in remembrance of his embarrassment in such an incident at the corner of Walnut and State near uptown Riverton.
            "Grandma was a farm girl, no question about it,"  acknowledged Richard clearly and with a large grin. "I loved my grandparents."
            "Our grandparents," adds Robert.
"We thought of them as our grandparents too," comments Connie and Cyndi in a common voice.
Connie continues, "You know all of our grandparents played bridge together long before we were ever thought about."
"True," agrees Richard, "during the depression they made up their own entertainment."
"The four grandmothers shared family recipes only written for family . . ." noted Cyndi.
"Like they were already family," mentions Connie.           
Robert raised his right eyebrow, "That sounds a little, uh, sexual."
Richard chirped a laugh and shrugs, "Maybe they had secret love fests." Both brothers laugh aloud as Connie and Cyndi leave the room in a huff of disgust. "What did we do, open up a can of worms?"
Richard murmured, "We are two sick humored souls," and automatically returns his focus on the taste and texture of those made from scratch caramel and dark chocolate brownies. 
Back in the kitchen Connie looks at Cyndi in amazement, “Surely there wouldn’t have been any fooling around back in those days. Riverton was a quiet little village back then, a quiet peaceful village. I can’t believe anyone in town would ever be caught sleeping around.”





Grandma’s Story 7
For you Living who have never witnessed a ghost firsthand I have one for you. This ghost’s size is that of a natural green pea. For those of you who may not have seen a similar ghost, make it an electrified pale green baby pea color. Grandma reached into her pocket hand first and pulled the small spirit-like orb out. It immediately floats off, and up from Grandma’s starless night black right palm. "Here," pronounces Grandma in a muffled thunder, "I’ll let the little apparition tell her story."
A Ghost’s Existence

Hello. I am the shadow of a shade of my former self. What is black to me is green to you. Grandma put me in her pocket because I was off over the Atlantic Ocean. I always wanted to see the Atlantic when I was alive but I never did. I lived on a beautiful island in the South Pacific my entire life. My sole contact with the outside world was the disease that killed me, and that was centuries ago. I had heard many stories about the greater off-our-island in my lifetime. I appear as a small dot because the eye cannot see my flat self. I could crawl into someone earthy but I am comfortable. I like the Atlantic Ocean so I float above it in a dreamy state.

I know I am not in the real world, but being with Grandma I am close to the Living. I’m close enough that you can read me. I think it is funny that I am as dot above the common i. The human eye is not built to see me as I am so it won’t. Real ghosts pass you by more often than you think. Some of us call it dead dreaming, a reverse out-of-body experience. To me it is an into-the-mind experience. I am comfortable in shadow of Grandma’s hands.
*
Grandma smiles, time moves, and gently returns the pea-sized spirit to her pocket as if she were a rustic farm woman dropping a baby gosling in her coat pocket for its security and protection. I put that spunky little spirit in my pocket in your year 2006 and now in your time slot. Grandma again reaches in and feels the little one nestled down into the far corner of her pocket. She gently pinches and pulls the small round object out of her pocket with her forefinger and thumb. Grandma then puts her up to her metaphorical eye for an inspection. You are a little larger, in these last measured Earth years and you have grown from the humble sized green pea to that of a bluish green child’s marble. Grandma asks, "Are you still flying over your favorite ocean, the Atlantic?"
*
The small round blue-green ghost grins, "No, Grandma. You can see that as a wandering spirit between the Dead and the Living I have grown. I am one with the salty water. The Pacific Ocean and the Atlantic Ocean are just names, stories we humans conjure because geography is how one moves from one part of the world to another. Spiritually, the salty water is one, all sea creatures are aware of this from the beginning. I was born and died on an island as a small land creature and I stayed small because my body was my only geography of reference. Not having a body relieves me of such an unneeded perspective. My heartansoulanmind is more in balance; perhaps when I am a little larger, the marble size of a Kong or a Biggie, I will have grown enough to be the size of the whole universe. That is my hope before I pass over completely.
*
Grandma smiles warmly and chuckles within the little spirit of humanity saying, "Perhaps you will be my modest sized full spirit, but hear this, you'll always fit snuggly in the corner of my pocket even as is the full universe that contains the Earth and ThreePlanets. She places the little round one into her pocket once again. Observing her reading audience through Merlyn Grandma notes, "This little ghost understands more than she thinks, and I find an illustrious humor in her plucky audacity.
A wind in a spirit or a spirit in the wind,
Shimmering electric green, black or boney white,
The mind’s dark night stands alone and chagrin,
At the nature of trancephysics as a spiritual light.

           





Diplomatic Pouch 7
             "I am glad you understand, Blakie," comments Pyl.
            "We would just be investing the money at this time in our lives,” suggests Blake. “No need and not a good time for investing anyway. Dad would like that we are not selling. It was a rush anyway. Out of the blue someone wants to buy our plane. Odd in itself, and in the middle of January too; in Cleveland no less."
            "I think it is strange too," asserts Justin. "Hart didn't know what dissimilar meant in context. She appeared to be analyzing the word. Francis and she both have the same last name. Both are certainly old enough to have been married."
            "Right," declares Pyl sarcastically. They both have the same last name. They should be married at their age. Such mature observations."
            Blake cautiously watches, seeing Justin change his face from curious to a silent piquing aggravation. "Don't get riled," he utters, not realizing his diplomatic filter had drifting away, "I've had to put up with her feminist tongue a lot longer than you have." To which he uncontains himself, laughing aloud, adding, "Penis envy, no doubt."
            Observing his broadened grin Pyl retorts, "I hardly envy yours, dear brother."
            "Shot down, Blakie," quips Justin in a slightly tempered grin.
*
            Yermey sits comfortably in the chair-with-meditation-mode-max. He heard Friendly and Hartolite enter like the gentle rustling of leaves ahead on his solitary path from the room-in-mind at his far-right. Though his body lies motionless Yermey shifts his notions to the left and his mind circulates left into a relocated thought.
            We have taken the courage to come to Earth on our own, independent of our elected Council of Parents-in-Charge and our many Three-Planet kin and untied cousins. The primary objective is to instill into these humanized primates that we are real, that Three-Planets exists in the shared space of this galactic-pouch and that we here-without-polite-invitation on their planet.
            He continues on in thought. Our Parents-in-Charge are more fearful of these similar though alien higher primate beings than they are in their much-weathered patience to acknowledge and greet. They lack the foresight and courage to learn, to accept that though our civilization is twenty thousand years advanced we may be missing an aspect of our humanity this much younger civilization still has.
            Our being here on Earth is to show a just equality among both of our species even though we have a technical advantage through our sciences and mathematics. Our separate species philosophies are so similar to be almost identical. Our separate species sense-of-equality is in our recognition of heartansoulanmind. This is what we must show through our kindness and patience. This is why we are here; this is what we are about.  This is . . .
            Friendly interrupts, ”What's on your mind, Yermey? What’s in your head?"
            "What is it, Yermey?” adds Hartolite. “Shouldn’t we be concerned about the plane? We think so."
            Yermey fully opens his eyes and sits upright. "Ship says the Cessna is clean on all points but one."
            "Which is what?" asks Friendly. “Ship says the plane is clean.”
            "There is a time slip of one minute. Ship does not correlate with the Cessna by one minute.”
            "A minute means nothing without an observable relationship. Earthlings have no access to Ship’s correlations," responds Hartolite.
            "The minute is relative to something," suggests Friendly.
            "It is relative to us," says Yermey with more heart in his voice than reason. We come here unannounced and without invitation. When we make ourselves known. These three people will know who we are and assume that our intentions are deceptive, because we are being deceptive presently."
*
            In the pending short marsupial humanoid silence Ship stirs into cognition. 'I, Ship, understand Yermey's words. They are meant for me too. The information processes through various channels unimpeded and is fully understood.
            I, Ship, let the alien Cessna plane touch me. My maneuvering allowed only the slightest of accidental touches. I may need to be re-validated at ThreePlanets; however, I cannot leave without an extreme unordered emergency to run to ThreePlanets. Friendly and Hartolite are struck by Yermey's words. His vitals show me he feels I erred-in-a-purpose. I have no purpose other than to escort-in-safety-first. The Cessna came onto me. I attempted to jar Cessna's instrumentation magnetically but failed. The Cessna engine should have stopped short but it did not. Thus I touched a wingtip.
            Thinking to himself Ship wonders on the meaning of ‘accident’ and whether or not it had an undisclosed purpose. We are programmed the galaxy is a closed system for purposes of navigational safety, but the galaxy is not closed. Perhaps the universe itself is more open than is culturally accepted, even if the universe is a fractal or something less in earth terms, an Alice mirror. Our culture knows better; perhaps that is, as Earthlings say, the rub.

***


         1206 hours. I completed my exercises. My hands are better but sore in the process. I need to use the tension grip ball more; I can tell it is helping. I thought it would not. In editing I show selections are left out. For consistency I begin each paragraph with a capital but sometime I start mid-stream. I still have the complete article offline for use if I need it. Amorella's further contribution beyond editing is in the underlining.

** **
Edge #414 The Edge Annual Dinner 2014; Alan Guth, Andre Linde: What's New In The Universe; Direct Evidence Of Cosmic Inflation

Thu, Mar 20, 2014

WHAT'S NEW IN THE UNIVERSE: DIRECT EVIDENCE OF COSMIC INFLATION
Alan Guth and Andrei Linde
Introduction
by John Brockman
Alan Guth, a charter member of the Reality Club, came to New York in 1980, to give one of the first Reality Club talks. He presented his new theory on the early universe, which he had been working on for the past couple of years and had described earlier that year in a paper titled "The Inflationary Universe: A Possible Solution to the Horizon and Flatness Problems." . . .
Edge contributor and New York Times deputy science editor Dennis Overbye wrote about the developments in a story on the front page of Tuesday's New York Times: "...Inflation has been the workhorse of cosmology for 35 years, though many, including Dr. Guth, wondered whether it could ever be proved. ... If corroborated, Dr. Kovac’s work will stand as a landmark in science comparable to the recent discovery of dark energy pushing the universe apart, or of the Big Bang itself. It would open vast realms of time and space and energy to science and speculation."

How important is this development? MIT cosmologist Max Tegmark is quoted by Overbye as saying, "I think that if this stays true, it will go down as one of the greatest discoveries in the history of science." According to mathematical physicist Brian Greene, "If the results stand, they are a landmark discovery." Physicist Lawrence Krauss of Arizona State University, in a post on [newyorker.dot.com], wrote, "At rare moments in scientific history, a new window on the universe opens up that changes everything. Today was quite possibly such a day."
*** ***
THE INFLATIONARY UNIVERSE: ALAN GUTH
by Alan Guth [11.19.02]
Topic: Universe

Inflationary theory itself is a twist on the conventional Big Bang theory. The shortcoming that inflation is intended to fill in is the basic fact that although the Big Bang theory is called the Big Bang theory it is, in fact, not really a theory of a bang at all; it never was. . . .

In the inflationary theory this problem goes away completely, because in contrast to the conventional theory it postulates a period of accelerated expansion while this repulsive gravity is taking place. That means that if we follow our universe backwards in time towards the beginning using inflationary theory, we see that it started from something much smaller than you ever could have imagined in the context of conventional cosmology without inflation. While the region that would evolve to become our universe was incredibly small, there was plenty of time for it to reach a uniform temperature, just like a cup of coffee sitting on the table cools down to room temperature. Once this uniformity is established on this tiny scale by normal thermal-equilibrium processes — and I'm talking now about something that's about a billion times smaller than the size of a single proton — inflation can take over, and cause this tiny region to expand rapidly, and to become large enough to encompass the entire visible universe. The inflationary theory not only allows the possibility for the universe to be uniform, but also tells us why it's uniform: It's uniform because it came from something that had time to become uniform, and was then stretched by the process of inflation. . . .
The second peculiar feature of our universe that inflation does a wonderful job of explaining, and for which there never was a prior explanation, is the flatness of the universe — the fact that the geometry of the universe is so close to Euclidean. In the context of relativity, Euclidean geometry is not the norm; it's an oddity. With general relativity, curved space is the generic case. In the case of the universe as a whole, once we assume that the universe is homogeneous and isotropic, then this issue of flatness becomes directly related to the relationship between the mass density and the expansion rate of the universe. A large mass density would cause space to curve into a closed universe in the shape of a ball; if the mass density dominated, the universe would be a closed space with a finite volume and no edge. If a spaceship traveled in what it thought was a straight line for a long enough distance, it would end up back where it started from. In the alternative case, if the expansion dominated, the universe would be geometrically open. Geometrically open spaces have the opposite geometric properties from closed spaces. They're infinite. In a closed space two lines which are parallel will start to converge; in an open space two lines which are parallel will start to diverge. In either case what you see is very different from Euclidean geometry. However, if the mass density is right at the borderline of these two cases, then the geometry is Euclidean, just like we all learned about in high school. . . .
In terms of the evolution of the universe, the fact that the universe is at least approximately flat today requires that the early universe was extraordinarily flat. The universe tends to evolve away from flatness, so even given what we knew ten or twenty years ago — we know much better now that the universe is extraordinarily close to flat — we could have extrapolated backwards and discovered that, for example, at one second after the Big Bang the mass density of the universe must have been equal, to an accuracy of 15 decimal places, to the critical density where it counterbalanced the expansion rate to produce a flat universe. The conventional Big Bang theory gave us no reason to believe that there was any mechanism to require that, but it has to have been that way to explain why the universe looks the way it does today. The conventional Big Bang theory without inflation really only worked if you fed into it initial conditions which were highly finely tuned to make it just right to produce a universe like the one we see. Inflationary theory gets around this flatness problem because inflation changes the way the geometry of the universe evolves with time. Even though the universe always evolves away from flatness at all other periods in the history of the universe, during the inflationary period the universe is actually driven towards flatness incredibly quickly. If you had approximately 10-34 seconds or so of inflation at the beginning of the universe, that's all you need to be able to start out a factor of 105 or 1010 away from being flat. Inflation would then have driven the universe to be flat closely enough to explain what we see today. . . .
The mechanism that inflation provides that drives the universe towards flatness will in almost all cases overshoot, not giving us a universe that is just nearly flat today, but a universe that's almost exactly flat today. . . .
The generic inflationary model drives the universe to be completely flat, which means that one of the predictions is that today the mass density of the universe should be at the critical value which makes the universe geometrically flat. Until three or four years ago no astronomers believed that. They told us that if you looked at just the visible matter, you would see only about one percent of what you needed to make the universe flat. But they also said that they could offer more than that — there's also dark matter. Dark matter is matter that's inferred to exist because of the gravitational effect that it has on visible matter. It's seen, for example, in the rotation curves of galaxies. When astronomers first measured how fast galaxies rotate, they found they were spinning so fast that if the only matter present was what you saw, galaxies would just fly apart.
To understand the stability of galaxies it was necessary to assume that there was a large amount of dark matter in the galaxy — about five or ten times the amount of visible matter — which was needed just to hold the galaxy together. This problem repeats itself when one talks about the motion of galaxies within clusters of galaxies. . . .
The other important prediction that comes out of inflation is becoming even more persuasive than the issue of flatness: namely, the issue of density perturbations. Inflation has what in some ways is a wonderful characteristic — that by stretching everything out (and Paul's model takes advantage of the same effect) you can smooth out any non-uniformities that were present prior to this expansion. Inflation does not depend sensitively on what you assume existed before inflation; everything there just gets washed away by the enormous expansion. For a while, in the early days of developing the inflationary model, we were all very worried that this would lead to a universe that would be absolutely, completely smooth. After a while several physicists began to explore the idea that quantum fluctuations could save us. The universe is fundamentally a quantum mechanical system, so perhaps quantum theory was necessary not just to understand atoms, but also to understand galaxies. It is a rather remarkable idea that an aspect of fundamental physics like quantum theory could have such a broad sweep. The point is that a classical version of inflationary theory would predict a completely uniform density of matter at the end of inflation. According to quantum mechanics, however, everything is probabilistic. There are quantum fluctuations everywhere, which means that in some places the mass density would be slightly higher than average, and in other places it would be slightly lower than average. That's exactly the sort of thing you want to explain the structure of the universe. . . .
The most recent data set was made by an experiment called the Cosmic Background Imager, which released a new set of data in May that is rather spectacular. This graph of the spectrum is rather complicated because these fluctuations are produced during the inflationary era, but then oscillate as the early universe evolves. Thus, what you see is a picture that includes the original spectrum plus all of the oscillations which depend on various properties of the universe. A remarkable thing is that these curves now show five separate peaks, and all five of the peaks show good agreement between theory and observation. You can see that the peaks are in about the right place and have about the right heights, without any ambiguity, and the leading peak is rather well-mapped-out. It's a rather remarkable fit between actual measurements made by astronomers, and a theory based on wild ideas about quantum fluctuations at 10-35 seconds. The data is so far in beautiful agreement with the theory. . . .
At the present time this inflationary theory, which a few years ago was in significant conflict with observation now works perfectly with our measurements of the mass density and the fluctuations. The evidence for a theory that's either the one that I'm talking about or something very close to it is very, very strong. . . .
There are many versions of inflation that are much closer to the kinds of theories that we were developing in the '80s and '90s, so saying that inflation is right is by no means the end of the story. There's still a lot of flexibility here, and a lot to be learned. And what needs to be learned will involve both the study of cosmology and the study of the underlying particle physics, which is essential to these models.

***

A BALLOON PRODUCING BALLOONS, PRODUCING BALLOONS:A BIG FRACTAL
A Conversation with Andrei Linde [8.24.12]
Topic: Universe

Think about it this way: previously we thought that our universe was like a spherical balloon. In the new picture, it's like a balloon producing balloons, producing balloons. This is a big fractal. The Greeks were thinking about our universe as an ideal sphere, because this was the best image they had at their disposal. The 20th century idea is a fractal, the beauty of a fractal. Now, you have these fractals. We ask, how many different types of these elements of fractals are there, which are irreducible to each other? And the number will be exponentially large, and in the simplest models it is about 10 to the degree 10, to the degree 10, to the degree 7. It actually may be much more than that, even though nobody can see all of these universes at once.
ANDREI LINDE, a Russian-American theoretical physicist and professor of Physics at Stanford University, is the father of "eternal chaotic inflation", one of the varieties of the inflationary multiverse theory, which proposes that the universe may consist of many universes with different properties. He is an inaugural winner of the $3 million Fundamental Physics Prize, awarded by the Milner Foundation. In 2002, he was awarded the Dirac Medal, along with Alan Guth of MIT and Paul Steinhardt of Princeton University.



A BALLOON PRODUCING BALLOONS, PRODUCING BALLOONS: A BIG FRACTAL 
[ANDREI LINDE:]
Standard Big Bang theory says that everything begins with a big bang, a huge explosion. Terrorists started the universe. But when you calculate how much high tech explosives these guys would have to have at their disposal to start the universe formation, they would need 1080 tons of high tech explosives, compressed to a ball smaller than 1 centimeter, and ignite all of its parts exactly at the same time with precision better than 1 in 10,000. . . .
Inflationary theory explained why our part of the universe looks so uniform: everything that surrounds us was created by the exponential expansion of a tiny part of the universe. But we cannot see what happens at a distance much greater than the speed of light multiplied by the age of the universe. Inflationary theory tells that our part of the universe, the part that we can see, is much, much smaller than the whole universe. Inflation of other parts of the universe may produce enormous regions with different properties. This was the first realization, which paved the way towards the theory of inflationary multiverse. And the second realization was that even if we start with the same universe everywhere, like red universe, quantum fluctuations produced during inflation could make it multicolored.
I am talking about different colors here only to help us to visualize what happens during inflation and after it. Let me explain what I actually mean by that. Think about water. It can be liquid water, solid, or vapor. The chemical composition is the same, H2O. But fish can live only in liquid water. Liquid, solid or vapor are called different phases of water. The same may happen with different realizations of the laws of physics in the universe. We usually assume, for simplicity, that all parts of the universe should obey the same fundamental laws of physics. Nevertheless, different parts of the universe may dramatically differ from each other, just as icebergs differ from water surrounding them. But instead of saying that water can be in different phases, in application to physical laws we say that different parts of the universe may be in different vacuum states, and in each of them the same fundamental law of physics may be realized differently. For example, in some parts of the universe we have weak, strong and electromagnetic interactions, and in some other parts, these interactions do not differ from each other. . . .
If we started in a red part of the universe, it does not stay red forever. Inflation is capable of producing and amplifying quantum fluctuations, and these quantum fluctuations let us jump from one vacuum state to another, and then to another. The universe becomes multicolored. The basic mechanism was understood as soon as the inflationary theory was invented. But its most interesting consequences appear in string theory. . . .
I found that in the first model of new inflation, which I invented back in 1981, the universe could expand 10800 times during the inflationary stag. It was surreal; we have never seen numbers like that in physics. When I was giving my first talks on new inflation at Lebedev Physical Institute, where I invented this theory, I had to apologize all the time, saying that 10800 was way too much. Probably later, I said, we'll come to something more realistic, the numbers will decrease and everything will become smaller. But then I invented a better inflationary theory, the theory of chaotic inflation, and the number became 101000000000000. And then I found that inflation in this theory may continue eternally.
This simplifies the difficult task of explaining why laws of physics in our part of the universe so nicely match the conditions required for our existence. Instead of the cosmological principle, asserting that all parts of the world look alike, we found a justification of the cosmological anthropic principle. It says that different exponentially large parts of the universe may be very different from each other, and we live only in those parts where life as we know it is possible. 30 years ago, ideas of this type were extremely unpopular, but two decades later, when we learned more about properties of string theory vacua, the situation changed dramatically. The picture outlined above became a part of what Lenny Susskind called "the string theory landscape." . . .
In the chaotic inflation scenario, one could have inflationary regime without assuming that the universe initially was hot. I abandoned the idea of the cosmological phase transitions, metastability, false vacua—most of the things that formed the basis for the old inflation model proposed by Guth and for my own new inflationary scenario. After all of these modifications, the inflationary regime became much simpler, more general, and it could exist in a much broader class of theories. In '86 I found that if we have inflation in the simplest chaotic inflation models, then, because of quantum fluctuations, inflation would go forever in some parts of the universe. Alex Vilenkin found a similar effect for the new inflation scenario. The effect that I have found was very generic, I called it "eternal inflation." . . .
It all began with supersymmetry, and then it became a more advanced theory, supergravity. One could unify the theory of gravity with the theory of elementary particles. It was fantastic. The theory flourished in the middle of the '70s up to the '80s. It resolved some problems of quantum gravity. Some infinite expressions, which appeared in calculations in quantum theory of gravity, disappeared in supergravity. Everybody was ecstatic until the moment they found that these infinities might still appear in supergravity in the third approximation, or maybe in the eighth approximation. Something was not quite working. Although some of the very recent results suggest that maybe people were too pessimistic at that time, and maybe some versions of the theory of supergravity are quite good.
String theory is based on the idea that our universe fundamentally has more dimensions, not just four. This idea was also part of some versions of supergravity. It was also a part of Kaluza-Klein theory long time ago. The standard attitude was that string theory required an assumption that our space is 10-dimensional, and six dimensions should be compactified. After that, we have three large dimensions of space, and one time. The other six dimensions would be very small. Superstring people often use Calabi-Yau space to describe compactification of six extra dimensions. This space may have a very complicated topology. . . .
The question, though, was how do we know that this is true? For a long time nobody could construct a working mechanism that would allow Calabi-Yau space to be really small. Why do we need it to be small? Because we cannot move in these six dimensions, we are too big for that. We can go to the right, to the left, and upward, but we cannot go in six other directions. At least nobody told me that they tried, had been there. . . .
This was like a valley in the mountains. It is not about going to the right, or to the left. Your valley shows you the best way, maybe even the only way. That's how people came to string theory, and then they became very optimistic. This was '85. They were thinking they would do everything pretty quickly. I must say that not everybody was so optimistic at that time. In particular, John Schwartz, one of the fathers of string theory, said, "Oh, well. It may actually take more than 20 years for string theory to come to fruition as a phenomenological theory of everything." He made a warning. Well, enthusiasm was, nevertheless, overwhelming, which was good and bad. It was good because so many talented young people entered into the field. It was bad because the supergravity tradition was partially forgotten. In Europe, the supergravity tradition is still alive, very much so. In the United States, it's not that much.

Six dimensions. We need to explain why they are small. There was a property, an unfortunate property of string theory that, if treated naively, without any special effort, then these six dimensions actually want to decompactify, want to spread out, become large. There could be many ways of compactifying space, which is the origin of many different vacua in string theory. But nevertheless, the problem was how to keep these extra dimensions small. . . .
We needed to study these string vacua. "Vacuum" means the state that looks empty from our 4-dimensional point of view, but its properties depend on the properties of the compactified Calabi-Yau space, the compactified six dimensional space. Vacuum does not contain particles. If we add the particles, then we can have our universe. This vacuum, this place without particles, galaxies, us—what properties does this vacuum have? As I said, in order to study it consistently, we need to have stable compactification of extra 6 dimensions of space. There are also other fields in this theory, which need to be stabilized. People did not know how to do it, but for a while it was not such an urgent problem.
But then in the end of the '90s, cosmologists discovered exponential, accelerating expansion of our universe, which happens because of what people call dark energy, or cosmological constant. This discovery made a very strong. . . .
When we found a way to do it, it was immediately realized that there are exponentially many ways to do it. People who estimated the total number of different ways to stabilize the vacuum in string theory came up with astonishing numbers, like 10500. Michael Douglas and his collaborators made this estimate. And this fact has profound cosmological implications. If you marry string theory with the theory of eternal inflation, then one can have one type of vacuum in one part of the universe, another vacuum in another part of the universe, and it is possible to jump from one vacuum to another due to quantum effects. Lenny Susskind gave this scenario a very catchy name, string theory landscape.
What I mean is that when we're talking about this vacuum state, vacuum state means homogenous state describing our three dimensions, three dimensions plus one. But the remaining six dimensions, they may squeeze like this, or they may squeeze like that. There are lots of different topologies in it. In addition to different topologies, there are different fields, which may exist in this six-dimensional space, so-called fluxes.
There are other objects which may exist there, and which may determine properties of our space. In our space we do not see them, they are in this tiny six-dimensional compactified space. But they determine properties of our vacuum, in particular vacuum energy density. The level of this vacuum energy depends on what is going on there, in the compactified space. Properties of elementary particle physics depend on what happens there. If you have many different ways of compactification, you have the same string theory fundamentally, but your world, three-dimensional space and one time, will have completely different properties. That is what is called string theory landscape, you have the same string theory, but you have many different realizations of that. That is exactly what I envisioned in my paper on eternal chaotic inflation in '86: We have lots of possibilities, and this is good. . .
This is the picture: the universe is very, very big, and it is divided into parts. Here is one realization of the string of vacua. There, in the same universe, but far away from us, it's a different vacuum. The guys here and there do not know about each other because they're exponentially far apart. That's important to understand in order to have a vision of the universe. It's important that you have a choice. But if you do not see these parts, how do you know that they actually exist, and why do you care?
Usually I answer in the following way: If we do not have this picture, then we cannot explain many strange coincidences, which occur around us. Like why vacuum energy is so immensely small, incredibly small. Well, that is because we have many different vacua, and in those vacua where vacuum energy is too large, galaxies cannot form. In those vacua, where energy density is negative, the universe rapidly collapses, and in our vacuum the energy density is just right, and that is why we live here. That's the anthropic principle. But you cannot use anthropic principle if you do not have many possibilities to choose from. That's why multiverse is so desirable, and that's what I consider experimental evidence in favor of multiverse. . . .
I introduced anthropic principle in the context of inflationary multiverse back in '82. The idea of new inflation was proposed in '81, and then in '82 I had written two papers where I emphasized anthropic principle in the context of inflationary cosmology. I said that the universe may consist of many different exponentially large parts. I did not use the word “multiverse”, I just said that the universe may consist of many, many mini-universes with different properties, and I've studied this possibility since that time for many, many years. . . .
But what is important is that when we studied inflationary theory, we started asking questions which seemed to be metaphysical, like why parallel lines do not intersect, why the universe is so big. And if we had said, "Oh, my God, these are metaphysical questions, we should not venture into it," then we would never have discovered the solutions. Now we're asking metaphysical questions about anthropic principle, about stuff like that, and many, many people tell us, "Don't do it, this is bad, this is the "a" word (anthropic). You should avoid it."
We shouldn't avoid anything. We should try to do our best to use the simplest explanations possible, or what proves simplest, and if something falls into your hands as an explanation of why cosmological constant vacuum energy is so small, and you decide not to accept it for ideological reasons, this is very much what we had in Russia long ago. That ideology told me which type of physics was right and which type of physics was wrong. We should not proceed this way. Once you have multiple possibilities, then you can have scientific premises for anthropic considerations, not just philosophically talking about “other worlds”. Now we have a consistent picture of the multiverse, so now we can tell: "this is physics, this is something serious." That was about multiverse and different versions of it. . . .
Of course, during eternal inflation, inflation goes forever, so one could even expect that this number is infinite. However, during eternal inflation each jump can be repeated; it can repeat itself. Scalar field jumps again to the state where it jumps again, to a state where it jumps again, and eventually it start producing identical configurations of matter.
Think about it this way: previously we thought that our universe was like a spherical balloon. In the new picture, it's like a balloon producing balloons, producing balloons. This is a big fractal. The Greeks were thinking about our universe as an ideal sphere, because this was the best image they had at their disposal. The 20th century idea is a fractal, the beauty of a fractal. Now, you have these fractals. We ask, how many different types of these elements of fractals are there, which are irreducible to each other? And the number will be exponentially large, and in the simplest models it is about 10 to the degree 10, to the degree 10, to the degree 7. It actually may be much more than that, even though nobody can see all of these universes at once.
Soon after Alan Guth proposed his version of the inflationary theory, he famously exclaimed that the universe is an ultimate free lunch. Indeed, in inflationary theory the whole universe emerges from almost nothing. A year later, in the proceedings of the first conference on inflation in Cambridge, I expanded his statement by saying that the universe is not just a free lunch; it is an eternal feast where all possible dishes are served. But at that time I could not even imagine that the menu of all possible universes could be so incredibly large.

From Edge #414 The Edge Annual Dinner 2014; Alan Guth, Andre Linde: What's New In The Universe; Direct Evidence Of Cosmic Inflation – [edge dot org]

** **
         This is Amorella. My contribution to the above in context with the Merlyn books is in the underlining. Post. 


         You are home after Carol’s walking in the park and your proofing, lunch at Penn Station, and reading and proofing time on the west side of Rose Hill Cemetery facing north. You have chapter eight completed and ready to update. Tomorrow you and Carol are going to Westerville to see Aunt Patsy who has been at St. Anne’s Hospital in Westerville. You are also going to visit with Kim, Paul and the boys late Saturday afternoon through Sunday before noon. That is the plan. – Amorella

         1605 hours. Carol worked this out earlier in the afternoon. It is fine with me. Tomorrow we take the Accord to help even some of this mileage we have been putting on the Avalon. I never check the computer mileage within the car computer itself, I did, and find that since December (the last time I erased it) it has averaged 35.4 miles per gallon. That is better than I suspected and I am feeling good about it because of an article I read online yesterday or the day before that the computer mileage within the car computer itself is probably more accurate than recording at the pump because of variables such as temperature, time of day of fuel up, fuel station, fuel pump, etc. That I don’t have the scientific controls the computer does. My estimate online is 34.2 (since last September). I would say 35.4 since December is pretty close. If someone asks I can honestly say, “35 miles per gallon in some 8000 miles.” Carol and I are quite satisfied. From now on though when we get gas credit through Kroger’s it will be only for the Honda. I will try to keep it as close to 26 miles per gallon average as I can by driving it more economically. What I really need to do is to call and get the paint touched up then clean up the inside and take it to the P&G Mr. Clean Car Wash to spiffy it up. I think I’ll get some chrome muffler tips to dress it up a bit, give it a classic look for puttering around town and to Westerville ever so often. I would like another hybrid someday to replace the Honda but it certainly is not a necessity. A good cleaning will do. (1624)

         Post, orndorff. - Amorella


         1629 hours. I checked my email and have another couple of notes from Doug on the Edge article.

** **
This morning.

Dick, Flat does not make sense to me without space. Can a point with no volume be flat? What is the definition of flat? Time to me seems to relate changes in the status quo, though I have seen that there are some equations of the universe, which do not involve time. If there was not time Before then when did time begin or is Einstein entirely wrong about space-time. As far as dimensions I have no idea.  I guess at this point the universe is so strange that I do not understand it at all and you have full freedom to pursue any idea you wish. Hope this helps with your creativity.
Doug

And, less than an hour later.

Dick, If we are really just characters in a computer program doing what
the programmer tells us he wants done, I can see in this scenario that
real time would not exist but we would feel that it does. Just a thought.

I saw a program the other day where some physicist is convinced that
our present reality is only an illusion and that we are just characters
in some gigantic s/w program.

As regards dimensions if there were more dimensions it is suggested that
quantum mechanics would appear normal and all its strangeness would
disappear. I watched a program the other day where a lady physicist
claimed that the universe had only one dimension. She seemed very
convinced but I could not follow her logic.
Doug

** **

         Here is what we will do for the time being, orndorff. Flat with no space has possibility because that is my present position. Once that is explained into words the dimensional aspect will follow as far as the books are concerned. Yermey planted a beacon in dark matter. This will fit also. Of course when completed as a concept we will have our consultant Doug take a look. He must deem it ‘within plausibility or reason’ or we will not use it. Post. - Amorella


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