Cosmic Rays Collisions and Strangelets Produced?

I like to think of Enlightenment in another way Jaffe:)

While we had focused our attention on the airs about the earth, how would it been possible for us earthlings to push back the limitations on on our views that we could have seen cosmological data in context of all that we do in the environment?

See QuarkStars on this.

The collisions are strange: PHENIX can identify particles that contain strange quarks, which are interesting since strange quarks are not present in the original nuclei so they all must be produced. It is expected that a Quark-Gluon Plasma will produce a large amount of strange quarks. In particular, PHENIX has measured lambda particles. There are more lambda particles seen than expected.

I thought I would go over existing post I made in April of 2005 (se revised version below)and correct some of the links that would be more appropriate to information released in the Blogs of Reference Frame, Cosmic Variance and Not Even Wrong's site about "Amanda and ICECUBE."

Exotic physics finds black holes could be most 'perfect,' low-viscosity fluid

Son and two colleagues used a string theory method called the gauge/gravity duality to determine that a black hole in 10 dimensions - or the holographic image of a black hole, a quark-gluon plasma, in three spatial dimensions - behaves as if it has a viscosity near zero, the lowest yet measured.

These characteristics of superfluids are very interesting things to consider, as well as what is prodcuerd in "this action" as we are taken to the supefluid created. Think indeed, that this blackhole "is" the superfluid, and the strangelets, what are these? These never existed, until the superfluid was created?

But in the 10 dimensions of string theory, the fluid of a black hole isn't like other fluids. Space-time is considered to be flat in our perception, Son said, and five of the extra dimensions are compacted into a small, finite sphere. In the remaining dimension, however, space is curved. Evaporation doesn't occur in this dimension, he said, because as particles radiate from the fluid they strike the curved edge of the dimension and are sent bouncing back into the black hole.

These links help set up the thinking for information outside of LHC, that was given for perspective back earlier by John Ellis. The leading perspective on Microstate blackhole production was given then as well in the post with Quark Gluon perspectives, about strangelets produced.

While I had thought these relevant to Dark energy creation in our Cosmo, I did not point directly to the nature of these strangelets gathering at the center of our planet. You had to follow all these posts in order to understand the effect of microstate production, not only in RHIC or LHC, but in the cosmic perspective gained from Pierre Auger experiments as well.

I gave early history consideration so that you might understand a early concern of what mankind might have garnered in thinking, when in actuallity, this was happening naturally every time the cosmic rays penetrated the airs around the earth.

You might well see now that these considerations have been logically followed and there has not been much help as I had been laying the ground work for how perspective is garnered about gravitational considerations. These though are quickly dissipating blackholes created in the airs, around this planet.

Cosmic rays are nuclei and elementary particles always falling very fast on the earth from the universe. Enormous number of cosmic rays are always passing through our bodies. Cosmic rays was discovered by Victor Hess, who is an Austrian physicist, on 1912. He went up to the high altitude of 4000 meters by a balloon and found the ionization rate of the atmosphere is raised at the higher altitude by cosmic rays. After that, cosmic rays have been studied extensively and progressively, and mysteries in the Universe and the Nature are being revealed.

Cosmic rays come from the neighborhood of the Earth and also far galaxies. Galactic and extra galactic cosmic rays are considered to be accelerated at dynamical astronomical objects, such as supernova remnants, neutron stars,and active galactic nuclei. After far-reaching long traveling, they plunge into the atmosphere and bring about nuclear interactions with nuclei of oxygen and nitrogen in the air. The extraterrestrial cosmic rays which come from outside the earth are conventionally called primary cosmic rays, and newly produced particles via the nuclear interactions are called secondary cosmic rays. The main components of the secondary cosmic rays are muon, neutrino, electron, gamma ray, and neutron. While electrons and gamma rays are absorbed into the air, muons and neutrinos can be observed even under the ground.

Of course, this could all be speculation and misconceptions garnered in wrong thinking. So I'll leave it to the experts to correct the disemmination that would affront theoretical positions and hopefully I'll see such corrections. :)

Update: Bloggery updating does not seem to be working, so I will recreate the post here for examination.

4/16/2005

Cosmic ray experiments must overcome tremendous obstacles. The flux of particles above 10¹⁹ eV is extremely low (about 0.5 km-2yr-1sr-1), so detectors need to probe a large effective area to detect sufficient flux. This requires earthbound observatories. Consequently, the high energy particle is detected indirectly, as cosmic ray primaries entering the Earth's atmosphere interact with atmospheric nuclei to produce large cascades of relativistic secondary particles known as extensive air showers.

It somehow seems appropriate, that having been given some hint fom John Ellis of his research and interests, that the historical record could some how be brought into view. The appearnce of these references enhance later log entries on this site. A sort of moving backwards to get to the esence of what has happened in astrophysics and the journey tounderstand the nergies involved that speak to the idea of particle shower creation that had been consistent with reductionistics view we have gone through in the research of string theory.

The highest energy particle ever observed was detected by the Fly's Eye in 1991. With an energy of 3.5 x 10²⁰eV (or 56J), the particle, probably a proton or a light nucleus, had 108 times more energy than particles produced in the largest earth-bound accelerators. The origin of the particle is unknown. At such a high energy, and with its assumed charge, the path of this particle through the cosmos would have been relatively unaffected by galactic and intergalactic magnetic fields. Yet no plausible astrophysical source is known along the arrival direction, within the maximum possible source distance imposed by collisions with photons of the cosmic microwave background. This event remains a mystery! It is clear that it existed, but there is no obvious explanation for its source.

These are some of the links that follow the early hisotry of our observations, so that we underrstand well that such cosmic rays are still viable arena for the understanding of these interactions. Sean Carroll may create the April's fool joke on mass migration from particle reductionistionism to astrophycics, but the truth is what is learnt is very applicable to both arenas and what had been learnt, can never be forgotten as we move our observations to the FLY'EYE

Collision Course Creates Microscopic "Blackholes"

Pierre Auger Observatory

Cosmological and Microstate Blackholes

Early history developement is sometimes important to understand the trends that intermingle began in branches of High Energy Particle Research and Cosmic particle research. We understood well the limitation that we would run into for the size of the coliders necessary for such observations that having understod the limits reached in this regard we see where one branch will push us to consider the world around us and the inertactions developing towards the understanding of thes ecosmic showers that we are experiencing.


Extremely energetic cosmic rays interact with the cosmic background photons via pair creation and photopion production and lose their energies during their trip. Therefore there is upper limit of distances which they can propagete in the space with a given energy. The above figure shows this limit (so called attenuation length) in case of cosmic ray protons. You see the 2x10^20 eV particles cannot propagate longer than 30 Mpc (100 million light years), which sets the limit concerning the location of possible sources.


Other Information Shamelessly Boorrowed:

Search for Diffuse Cosmic Gamma Rays above 200 TeV
Cassiday, G.L. et al.1991, Ap.J., 375,202.

A Search for Evidence of Point Sources in the Cherenkov Flash Data From Fly's Eye II
Elbert, J.W. et al.1991, ICRC, 1,265.

Search for Point Sources of U.H.E. Gamma Rays Using the Utah Cherenkov Array
Corbato, S.C. et al.1991, ICRC, 1,281.

The High Resolution Fly's Eye (Hires): Parameters and Motivation
Borodovsky, J. et al.1991, ICRC, 2,688.

Description and Status of the High Resolution (Hires) Fly's Eye Experiment
Au, W. et al.1991, ICRC, 2,692.

Observations of Real and Simulated Showers Using the First Two High Resolution Fly's Eye (Hires) Mirrors
Borodovsky, J. et al.1991, ICRC, 2,696.

Study of Extensive Air Showers (EAS) Detected with the Fly's Eye and the UMC Air Shower Array
Green, K.D. et al.1991, ICRC, 4,347.

Shower Simulations for the Fly's Eye
Gaisser, T.K. et al.1991, ICRC, 4,413.

Limits on Deeply Penetrating Particles from the Fly's Eye Detector
Cooper, R. et al.1991, ICRC, 4,623.

Quark Stars

Quark stars signal unstable universe By William J. Cromie
Gazette Staff

In orbit around Earth, a satellite called the Chandra X-ray Observatory surveys the universe for sources of X-rays, which come from hot, active places. Such places include neutron stars, the still energetic corpses of burnt out stars once more massive than the Sun. When such stars use up their hydrogen fuel they explode into bright supernova, then their cores collapse into an extremely heavy ball of neutrons enveloped in a thin atmosphere containing iron and other debris from the explosion. In the core of the dying star, extreme pressure breaks atoms down into protons, neutrons, and electrons. The protons and electrons combine into neutrons, and the remaining material is so heavy that one tablespoon of it weighs about four trillion pounds.

A "central theme" arises in my mind, when I think about how this dark energy came into being.



If held to current technologies and pre producable themes held in context of our cosmo, can we take such levels of dark energy production to be from the cause of strange quark productions?

It is difficult for me to understand why the whole process is not involved in this geometrical assertion to what happens at the beginning of this universe, has "pre big bang implication" that was necessary to understand, before we can ever agreed on what the expansionary process might entail under the guise of how this dark energy is produced. How the lensing is lent to the nature of the dark energy, that we would see gravitonic consequences of accepting a fifth dimensional possibility? Would lend credence to the nature of the "spacetime fabric" as gravtonic considerations?

As a layman it is puzzling to me, so you have to forgive my mistakes and misunderstandings and as I learn I hope to deal with this appropriately. It is not my desire to spread misconceptions


RX J185635-375: Candidate Quark Star

Explanation: Is RJX J185635-375 really so small? Previously, this compact star held claim to being the closest neutron star -- only 150 light-years away. Now new observations and analysis indicate not only a larger distance, roughly 450 light-years, but a very small radius for RXJ J185635-375, pictured above. One hypothesized solution holds hope a RJX J185635-375 is actually a not a neutron star but a quark star -- something new. Now quark stars are truly strange -- some may have made a transition to type of matter known as strange quarks. Quark stars, were they to exist, can be intermediate between neutron stars and black holes in size and density. Quark stars can also be more compact and cool faster than neutron stars. In fact, some might even be ultracompact -- so dense that light itself can orbit. Future observations will likely settle the controversial claims of RJX J185635-375's distance and radiative geometry, and hence determine if a previously undiscovered type of beast roams the sky.

Laval Nozzle

Are we Creating the circumstances for dynamical situations. Has geometrical implications from the dynamical perspective of accretion disks part of the evolving universe?

Strangelets Form Gravitonic Concentrations?

Quark Gluon Plasma II: Strangelets

Strangelets in Cosmic Considerations

In accretion disks how would this counter intuitive recognition of the Jet have been incorporated into what could have been ejected as anti-matter creation? Doing the Bose Nova maybe?

Killer plasma ready to devour the Earth Reports by Robert Uhlig David Derbyshire and Roger Highfield
(Filed: 07/09/2001)

By colliding gold nuclei at huge energies, the RHIC is investigating "quark-gluon plasma", a state of matter in which the fundamental sub-nuclear particles, called quarks and gluons, become unstuck and swill around in a kind of particle soup that should have been around shortly after the Big Bang.

Dr Allanach warned that if experiments with the RHIC go wrong, it could produce a new hypothetical kind of particle called the killer strangelet.

In a catastrophic chain reaction, the killer strangelet would gobble up nuclei until it had eaten a million billion, when its weight would pull it towards the centre of the earth.

This isssue is important to me for a number of reasons. One of which is the Risk assesment, and how something could be gobbled up. These were ole concerns that began to appear around 2001, in the understanding of blackhole creation in the colliders.

Since then what has come about is the recognition of this new superfluid states that would help propel thinking as a measure of what could have began from a particle state collision that we have gone to enormous energies in which to concieve, as to what took place at the beginning of this universe.

By grasping the understanding of strangelets and the relationship gained in understanding what effects can be creaetd by producing collisions, the resulting product created in the form of Quark Gluon plasma as a superfluid, how would such creation see the use of this as a possibility recognizing "counter intuitive" thinking in the apprehension of what flat spacetime as a measure would have signalled there?

Earth punctured by tiny cosmic missilesBy Robert Matthews, Science Correspondent
(Filed: 12/05/2002)

According to the scientists, both events are consistent with an impact with strangelets at cosmic speeds. In a report about to be submitted to the Seismological Society of America, the team of geologists and physicists concludes: "The only explanation for such events of which we are aware is passage through the earth of ton-sized strange-quark nuggets."

Professor Eugene Herrin, a member of the team, said that two strangelets just one-tenth the breadth of a hair would account for the observations. "These things are extremely dense and travel at 40 times the speed of sound straight through the Earth - they'd hardly slow down as they went through."

Strangelets then come to mind as a possible scenario worth considering in a geometrical sense, as to what the beginning is, out of the length that we would go to track back from those same collisions processes. Our mappers would have to be very busy and detailed in their discriptions to help us see how such cosmic strangelets could have been recorded in current data.

In general, AMS is trying to study the sources of cosmic rays. These sources include ordinary things like stars and supernovae, as well as (perhaps!) exotica like quark stars, dark-matter annihilations, and galaxies made entirely of antimatter. Each astrophysical source emits a particular type of cosmic rays; the rays migrate through space in all directions; we detect the ones that pass near Earth. With careful theoretical modeling, we figure out how astrophysical objects leave their "fingerprints" in cosmic rays, and we figure out how to measure that fingerprint (or the absence of it!). Sometimes the fingerprint is the presence of a whole new type of particle (like an anti-helium or strangelet); sometimes, the fingerprint is an unusual feature in an energy spectrum (like a dark matter or microquasar signal). Click on the links above (or in the navigation bar to the left) to learn more about AMS's physics goals!

So we were given some perspective on this issue, from then and now, some review as to what takes place in these accretion disks, suddenly hold geometrical insight as to what unfolds in a complete process.

Jet production, from what the superfluid can do in it's characteristic natures, to have seen how this feature operates independant of the buckets rotations.

See earlier references. Counter intuitive realizations manifested in the properties of these superfluids.

Quark Gluon Plasma II: Strangelets

You have to follow the logic developement, which is confusing, because in one respect "Risk assessment" does not think of cosmic collisions as interesting comparisons to microstate production, yet as I travelled through the information held in context of Pierre Auger experiments, Jaffe's statement from 1999 makes for some interetsing discussion below.

Is it true or not?

In recent years the main focus of fear has been the giant machines used by particle physicists. Could the violent collisions inside such a machine create something nasty? "Every time a new machine has been built at CERN," says physicist Alvaro de Rujula, "the question has been posed and faced."

There does not appear to be suppression of particles with a high transverse momentum in Deuteron+Gold collisions: In order to confirm the observation of suppression, a control experiment was run by PHENIX in the Spring of 2003. Here, a collision was studied in which a medium such as the Quark-Gluon Plasma is not expected to be formed. The collisions studied were small deuteron nuclei colliding with Gold nuclei. In this case, more, rather than fewer, particles are seen with a high transverse momentum. This observation confirms that the suppression seen in Gold+Gold collisions is most likely due to the influence of a new state of matter being produced, such as a Quark-Gluon Plasma.

There are more protons than pions at high transverse momentum: PHENIX can identify different types of particles, including lighter pions and heavier protons and kaons. PHENIX finds that there are more protons than pions at high transverse momentum. This may indicate that the physical processes that produce these particles are occurring differently in heavy ion collisions. Also, there are almost as many anti-protons as protons, which is another indication that conditions are favorable for the production of a Quark-Gluon Plasma.

A large number of produced particles are observed: PHENIX finds that there are additional particles produced in collisions of Gold ions than what would be expected from measurements of simpler collisions of protons. This fact hints that conditions may be favorable for the production of a Quark-Gluon Plasma. Also, more particles are produced when the ions collide head on.

A large total amount of transverse energy production is observed: PHENIX can measure the amount of energy that comes out sideways, or transverse, to the direction the ions were originally travelling. Like the number of produced particles, the total transverse energy is largest when the ions collide head on. From this measurement, PHENIX estimates that the density of energy in the center of the collision is about 30 times that of a normal nucleus. This fact also hints that conditions may be favorable for Quark-Gluon Plasma production.

The source of produced particles is large and short-lived: Borrowing a technique from astronomy that has been applied to measure the radius of individuals stars, the size of the source volume where the particles are produced has been measured by PHENIX. The transverse size of the source appears to be much larger than the original size of the Gold nuclei, and lives for a very short time. The short life is contrary to what is expected from a Quark-Gluon Plasma and remains a mystery to be solved.

An electron signal above background is observed: PHENIX is unique at RHIC in that it can identify individual electrons coming from the collision, many of which are the result of decays of heavier particles within the collision. PHENIX measures a number of electrons that is above the expected background. The excess electrons are likely coming from decays of special particles with heavy charm quarks in them. Further study of these charmed particles will help us better understand if a Quark-Gluon Plasma has been formed.

Non-random fluctuations are observed, but they are likely due to the presence of jets: During a phase transition, it is typical to see fluctuations in some properties of the system. PHENIX has measured fluctuations in the charge and average transverse momentum of each collision. Thus far, PHENIX reports no large charge fluctuations that might be seen if there is a phase transition from a Quark-Gluon Plasma. PHENIX reports that there are excess fluctuations in transverse momentum, but they appear due to the presence of particles from jets. The behavior of the fluctuations is consistent with the jet suppression phenomenon mentioned previously.

The particles are flowing - a lot: PHENIX can measure how much the particles flow around in the collision. PHENIX observes a significant particle flow effect, which is expected when heavy ions collide. However, those high transverse momentum particles surprise again, and show a flow effect that is not yet understood and may be more evidence for the existence of a Quark-Gluon Plasma.


The collisions are strange: PHENIX can identify particles that contain strange quarks, which are interesting since strange quarks are not present in the original nuclei so they all must be produced. It is expected that a Quark-Gluon Plasma will produce a large amount of strange quarks. In particular, PHENIX has measured lambda particles. There are more lambda particles seen than expected.

I don't have to remind you of why I have taken this route to understand what is taking place as such proton proton collisions reveal some interesting perspectives.

Quark stars signal unstable universeBy William J. Cromie
Gazette Staff

In orbit around Earth, a satellite called the Chandra X-ray Observatory surveys the universe for sources of X-rays, which come from hot, active places. Such places include neutron stars, the still energetic corpses of burnt out stars once more massive than the Sun. When such stars use up their hydrogen fuel they explode into bright supernova, then their cores collapse into an extremely heavy ball of neutrons enveloped in a thin atmosphere containing iron and other debris from the explosion. In the core of the dying star, extreme pressure breaks atoms down into protons, neutrons, and electrons. The protons and electrons combine into neutrons, and the remaining material is so heavy that one tablespoon of it weighs about four trillion pounds.

But they noticed something very odd?

A Black Hole Ate My Planet

In 1995, Paul Dixon, a psychologist at the University of Hawaii, picketed Fermilab in Illinois because he feared that its Tevatron collider might trigger a quantum vacuum collapse. Then again in 1998, on a late night talk radio show, he warned that the collider could "blow the Universe to smithereens".

But particle physicists have this covered. In 1983, Martin Rees of Cambridge University and Piet Hut of the Institute of Advanced Study, Princeton, pointed out that cosmic rays (high-energy charged particles such as protons) have been smashing into things in our cosmos for aeons. Many of these collisions release energies hundreds of millions of times higher than anything RHIC can muster--and yet no disastrous vacuum collapse has occurred. The Universe is still here.

This argument also squashes any fears about black holes or strange matter. If it were possible for an accelerator to create such a doomsday object, a cosmic ray would have done so long ago. "We are very grateful for cosmic rays," says Jaffe.

The Blackhole as a Superfluid: It's Viscosity

Now you must understand that thinking of any first principle is hard to refrain from, especially, if one had thought like I do, that the geometrical tendencies are inherent in the way this is handled, and that it leads to other things? "The equations of relativity fail, and new laws emerge." saids George Musser. " A quark-gluon plasma, in three spatial dimensions - behaves as if it has a viscosity near zero, the lowest yet measured."

That's important, is it not from a geometrical perspective, because from this Dirac's visionary quest might have said, that here lies the opportunity for such a notion to begin, hyperbolically, or spherically. One way, or the other??

Blackhole substances are perhaps the most-perfect fluids in existence because they have ultra-low viscosity.

No matter what you call it, though, that substance and others similar to it could be the most-perfect fluids in existence because they have ultra-low viscosity, or resistance to flow, said Dam Thanh Son, an associate physics professor in the Institute for Nuclear Theory at the University of Washington.

Son and two colleagues used a string theory method called the gauge/gravity duality to determine that a black hole in 10 dimensions - or the holographic image of a black hole, a quark-gluon plasma, in three spatial dimensions - behaves as if it has a viscosity near zero, the lowest yet measured.

Lubos Motl:

The quark picture is more ordinary and materialistic but the black hole picture with an extra dimension is actually more useful to understand some general laws, such as the bounds on viscosity.

The problem might have been missed, with what one might, or should have look at? Herein the condense matter specialist might have thought hey, a superfluid indeed, and we have created a blackhole of a kind? What is this Bound Viscosity?

Sungho Hong on December 6, 2003 :

There is an interesting proposal by Andreas Karch. With certain assumtions, he showed that the entropy bound implies the viscosity bound. Moreover, this relation seems true even beyond the assumptions that he made. An interesting point is that the tabletop experiments could test this. The viscosity of superfluid He4 misses the bound only by a factor of 10.

Thse ideas that begin to manifest, have been from venturing into ideas of expeirmentation. What had arisen from blackholes in our colliders?

Frozen Stars
Black holes may not be bottomless pits after all
By George Musser July 2003

Under the right conditions, a fluid can turn into a superfluid, governed by quantum mechanics even on macroscopic scales. Chapline, along with physicists Evan Hohlfeld, Robert B. Laughlin and David I. Santiago of Stanford University, has proposed that a similar process happens at event horizons. The equations of relativity fail, and new laws emerge. "If one thinks of spacetime as a superfluid, then it is very natural that in fact something physical does happen at the event horizon--that is, the classical event horizon is replaced by a quantum phase transition," Chapline says.

So you don't lose sleep, or the world is a nice place, la te da... because it is what it is?:) It's just a generalization, as any assumption of the data might have convinced one, either way? What is it's value?

One might have assume because of the time involved, that accumulation and gatherings, might have taken up residence at the center of the earth. So? Okay? :)

Big Bang Nucleosynthesis

You know it sometimes boogles my mind, why such adventures had not given perspective to the age of the universe? We are talking about created events, that we work to help us see the nature, from a inception time.

Something indeed troubles me as I look out towards this universe, that by giving it's age to 13.7 billions years, that we are taking such events as spoken below in regards to superfluid states, as elements spawned out of that early expression.

The high energy nuclear physics experimental group at Columbia University is conducting research to study the collisions of relativistic heavy nuclei to understand the properties of nuclear matter at extremely high densities (similar to the center of neutron stars) and very high temperatures (much hotter than at the center of the sun). In fact, the temperatures and densities reached in these collisions are similar to those found in the early universe a few microseconds after the Big Bang.

So what is that troubles me so much? Well if you have given the age of the universe, then you have alloted a time sequence to each and every event in the cosmos? There is not one event, that can be older then the age of our universe?

Okay now that this basis is understood, why would I be wrong? Is there not a logic that holds to tell us that each and every event will speak to the time and place of it's origination, within context of the whole universe and but never apart from the initial expression?

That if, for one moment you had seen the a galaxy, who elemental structure given to the signs of the measure of this universe, then it would have been, and related itself, to the very age of our universe and never older?

So you see my problem then? That if I saw this universe as a landscape. That given the context, the shape, and value assigned in the Omega values, such geometrical propensities would have enlisted the mind to consider?Tthat the very age of our univese plus the events held in context of the universe, would have lead one to see the values assigned in a much larger global context?

To holes in the very nature of the fabric.

Having seen the nature of Kravtsovs computer simulations, as cosmic strings, then you would have understood that each of the events in the galaxies would have been connected to each other? Never older, then the age of the universe itself?

The Physics Experiment

PHENIX, the Pioneering High Energy Nuclear Interaction eXperiment, is an exploratory experiment for the investigation of high energy collisions of heavy ions and protons. PHENIX is designed specifically to measure direct probes of the collisions such as electrons, muons, and photons. The primary goal of PHENIX is to discover and study a new state of matter called the Quark-Gluon Plasma

Xtra dimensions

In the Beginning.....

The field of cosmology has experienced an explosion of activity since the discovery of ripples in the energy of the primordial light of the big bang. Cosmology is the study of the origin, evolution, and fate of objects in the observable universe. These include galaxies like our Milky Way, a vast collection of stars spanning many thousands of light years. The key to the birth and evolution of such objects lies in the primordial ripples observed through light shining through from the early universe.

Having learnt from Wayne Hu and his CMB info study, it help me see where the hills and Valleys might have attained some recognition in how one landscape might have been seen in relation to Wayne Hu's.

Cosmologists actually run computer simulations to track how matter collects into valleys. For example, here is a simulation running forward in time which shows how particles collect and enhance small initially small wrinkles

Thank you Wayne Hu to opening the doors to the realizations that I had formed in the ideas of the supersymmetrical Universe. Little did you know that Andrey's picture would set the course for how I saw the Cosmic string arise from such a background.



Develope our views into the CSL Pictures here. I wanted to take this time to thank Lubos Motl for his continued efforts in this direction.

CSL-1 cosmic string gravitational lens and 2 more, with many views of the Capodimonte Deep Field OACDF2 with subtle background features, similar to recent Millennium Simulation of evolution of structure in our Universe. Identical stereo pairs are introduced.

So to then, if such a trail leads us to what that geometical propensity is, how so from such a tale of quantum gravity? It had to lead from something, so from the beginning.......? :)

Modification To GR

Sean Carroll:

Why three dimensions of space just aren't enough?

What does General Relativity say in terms of a simple word to describe it? "Gravity?"

“This is what’s happening all the time within us, we have these little lava lamps,” said Frank Wilczek in his Nobel lecture in 2004 when he showed this QCD animation created by Derek Leinweber. The animation illustrates the fluctuations of the quark and gluon fields over time, revealing a lumpy structure that Leinweber dubbed the QCD lava lamp.

So modifications to Gr bring perspective to lead us to other views in terms of xtra-dimensional analysis(degrees of freedom at a gluonic level)? Can I say this in regard to such things as xtra dimensional analysis?

Of course mine is a generalization spoken from the idea of what Eric Aldeberger might find, but this did not limit the scope of vision that would have moved us beyond the fifth postulate. Non euclidean geometries, were very hepful here and so too, hyperdimensional thinking?

Relativistic Jets: The Common Physics of AGN, Microquasars and Gamma-Ray Bursts

Reimann then thought there would come a time to see such thinking expressed beyond just the positive expressions in spherical relations? Jets, in relation, to Anti-matter creation? A whole new abstract way of thinking in the mathematical realms?

So what had radiation and CFT showed us from Bekenstein bound, as we peered into the inside of the blackhole construction? What geoemtries existed? Was there a emergent geometric principal. Of course, that is in question, and the degrees of freedom would spell the depths to what we were able to see? That did not stop us from talking about the substance of quantum Geometry as Greene explained to us.

What value did the temperatures play in our assessment of the internal dynamics of what would have happpened from a the grvaiational collapse generated and the radiation, that would hav been emitted. Acoustic radiation helps to a degree.

Thank you Smolin for such a responsible attitude of the science position of Glast, but it now has to induce new insight by adopting other theoretical positions?

Religious Convictions and Belief

I as a layman do operate from a biased position, and one that would have asked for a better respect of the scientific procedure, as Peter Woit and those of science would ask us as layman in our demonstrations.

Would I accept the responsibilty of Sean atheistic valuations, in our determinations of what we can be held accounatble as to the repercussions of our very actions. In our thoughts, that would ripple ever wider, as a consequence of our choices?

Yes I think deeply about these things, and they are far distant from the responsibilities of science, but I needed to show this, so it is understood that I accept that responsibility, even though I too might have had a belief about God and and our roles in choosing to evolve?

I quickly generalized Relativity above, and so too, did my journey to have been thinking about a simplification in general conceptualizations of those extra dimensions.

Was it wrong to do so in light of the need for sound thinking right now? I have to apologize for that too, as this is biased in my views from such a simplifcation.

There is a result in thinking about the measure of those extra dimensions, and what had been missing from the initial energy determinations calculated. Where is that missing energy?

Did such a simple logic not recognize that associated in this energy valuation, to reductionist principles, that this would be sent off into some other dimensional recognition of the values of that energy along side of modification to General relativity?

There had to be a consistancy lead from to incorporate such thinking to simplfications in general concepts and views I have about the psychological prospects of causes of our thought processes. To have ramifications beyond the border of our own brains. But this is just me right now. So I don't want to mislead anyone.

Further Speculations

Sometimes I can't but help think that we currently in a blackhole that driven to expansitory values and curent CMB temepratures made me think, that if we saw the expansion process as inhernet in this universe, then why is it not that we see we are in such a Blackhole? Is this wrong?

Then what value these Suns that still burn within this context, and such distance between the objects of space seen in a cosmological distance? More speculation that I send such thoughts of mine to the beginings of the universe and what interactive features sent this universe into it's expansion process? What stage are we atthen, to have been held at a certain process in the blackholes status, to have thought about the big crunch signal by the very initial response and distance of the schwarzchild radius that preceded this expansive view?

Inverse Square law, to explain the value of these determinations, as to what would exist on our horizon?

Forgive me as I lost myself in such thoughts.