From 2012 Wiki
An essay by the Eschaton
The imagination is a dimension of nonlocal information.
- —McKenna, Terence ♦ A Few Conclusions about Life 1996
When quantum particles are entangled, they cannot be described individually. They form a single quantum object, even if they are located far apart. There is a measure for the amount of entanglement in a quantum system, called "entropy of entanglement".
- —Vienna University of Technology ♦ Is the universe a hologram? ScienceDaily, 27 April 2015
...the story of the universe is that information, which I call novelty, is struggling to free itself from habit, which I call entropy... and that this process... is accelerating... It seems as if... the whole cosmos wants to change into information... All points want to become connected... The path of complexity to its goals is through connecting things together... You can imagine that there is an ultimate end-state of that process—it's the moment when every point in the universe is connected to every other point in the universe.
- —McKenna, Terence ♦ In the Valley of Novelty part 3, summer of 1998
Using holographic duality, Sonner derived the entangled quarks, and found that what emerged was a wormhole connecting the two, implying that the creation of quarks simultaneously creates a wormhole. More fundamentally, the results suggest that gravity may, in fact, emerge from entanglement. What’s more, the geometry, or bending, of the universe as described by classical gravity, may be a consequence of entanglement, such as that between pairs of particles strung together by tunneling wormholes.
- —Massachusetts Institute of Technology ♦ You can't get entangled without a wormhole: Physicist finds entanglement instantly gives rise to a wormhole ScienceDaily, 5 December 2013
The human neocortex is the most densely ramified and complexified structure in the known universe.
- —McKenna, Terence ♦ Alien Dreamtime 26–27 February 1993
The earth, to Fuller, is a "contracting phase" of the universe, a low-pressure zone in the cosmos where energy is collected and stored. The sun's radiation warms the oceans, and the oceans feed the earth. Fuller calls processes which conserve energy aspects of "synergy," a word he relies on heavily in his discussions of the "more-with-less" technologies that will accomplish the defeat of scarcity. An example of synergetic action that Fuller is particularly fond of is the way chrome-nickel steel acquires, through chemical mating, a tensile strength greater than the sum of its components. But the highest expression of synergy is man's intuition, his ability to see comprehensive patterns in random events, which has led him from near helplessness to the point where he can now take control of his own evolution.
- —Farrell, Barry ♦ The View from the Year 2000 LIFE Magazine, 26 February 1971
What is happening to our world is ingression of novelty toward what Whitehead called "concrescence", a tightening gyre. Everything is flowing together. The "autopoietic lapis", the alchemical stone at the end of time, coalesces when everything flows together. When the laws of physics are obviated, the universe disappears, and what is left is the tightly bound plenum, the monad, able to express itself for itself, rather than only able to cast a shadow into physis as its reflection. I come very close here to classical millenarian and apocalyptic thought in my view of the rate at which change is accelerating. From the way the gyre is tightening, I predict that the concrescence will occur soon—around 2012 AD. It will be the entry of our species into hyperspace, but it will appear to be the end of physical laws accompanied by the release of the mind into the imagination.
- —McKenna, Terence ♦ New Maps of Hyperspace 1989
 Zero-energy universe
Being the hydrogen nucleus, the proton is analogous to a low-temperature (unexcited) hydrogen star, self-gravitationally condensing into a high-temperature (excited) neutron star:
... the proton/neutron can be considered as unexcited/excited states of a two-level quantum mechanical system ...
- —Matsas, George E. A. ♦ Elementary particles under the lens of the black holes Braz. J. Phys., v. 34, March 2004
A star is made of gas and of hot gas. On this basis we can work out its behaviour, relying on principles found in the laboratory. If a star shrinks to half its size, remaining built on the same model as before, we find that inside this star the density becomes eight times as great, while the pressure comes out sixteen times as great, the overlying material being attracted four times as strongly, and its weight being borne by one quarter the area. Hence, by the familiar gas laws, the temperature must be twice as great. Therefore as stars get smaller they grow hotter; they must grow hotter to withstand gravitation. This reasoning depends upon the general properties of gaseous matter.
But a star cannot go on contracting for ever, the temperature at a certain stage reaches a maximum: the body after this behaves practically like a solid and begins to lose its heat—its parts stick together and it becomes cold and dark.
Stars leak heat always, and the heat leaks out through the star's material. We have the paradox that the bigger the star, the cooler it is—yet, nevertheless, the more heat it has inside. By losing heat into space the star becomes hotter—it shrinks by losing heat and thereby gets hotter, because the heat due to shrinkage is greater than that loss.
- —Journal of the British Astronomical Association ♦ v. 31, 1921, pp. 179–180
Concluding Philosophical Comment
Zeldovich and Novikov have made the following intriguing philosophical point about the picture of the formation of a neutron star sketched here. They note that stars begin their lives as a mixture mostly of hydrogen nuclei and their stripped electrons. During a massive star's luminous phase, the protons are combined by a variety of complicated reactions into heavier and heavier elements. The nuclear binding energy released this way ultimately provides entertainment and employment for astronomers. In the end, however, the supernova process serves to undo most of this nuclear evolution. In the end, the core forms a mass of neutrons. Now, the final state, neutrons, contains less nuclear binding energy than the initial state, protons, and electrons. So where did all the energy come from when the star was shining all those millions of years? Where did the energy come from to produce the sound and the fury which is a supernova explosion? Energy is conserved; who paid the debts at the end? Answer: gravity! The gravitational potential energy of the final neutron star is much greater (negatively; that's the debt) than the gravitational potential energy of the corresponding main-sequence star (Problem 8.7). So, despite all the intervening interesting nuclear physics, ultimately Kelvin and Helmholtz were right after all! The ultimate energy source in the stars which produce the greatest amount of energy is gravity power. This is an important moral worth remembering and savoring. If we regard the neutron star as one gigantic atomic nucleus, we may also say that nuclear processes plus gravity have succeeded in converting many atomic nuclei into one nucleus. Problem 8.7 then shows that the ultimate energy source for the entire output of the star is the relativistic binding energy of the final end state.
- —The Physical Universe: An Introduction to Astronomy University Science Books, 1982, p. 157♦
During inflation, while the energy of matter increases by a factor of 1075 or more, the energy of the gravitational field becomes more and more negative to compensate. The total energy—matter plus gravitational— remains constant and very small, and could even be exactly zero. Conservation of energy places no limit on how much the Universe can inflate, as there is no limit to the amount of negative energy that can be stored in the gravitational field.
This borrowing of energy from the gravitational field gives the inflationary paradigm an entirely different perspective from the classical Big Bang theory, in which all the particles in the Universe (or at least their precursors) were assumed to be in place from the start. Inflation provides a mechanism by which the entire Universe can develop from just a few ounces of primordial matter.
Inflation is radically at odds with the old dictum of Democritus and Lucretius, "Nothing can be created from nothing." If inflation is right, everything can be created from nothing, or at least from very little. If inflation is right, the Universe can properly be called the ultimate free lunch.
- —The Inflationary Universe Beam Line, fall 1997, p. 19♦
Of course there is no limit to the amount of negative energy that can be stored in the gravitational field. But there is a limit to the temperature of matter—the hotter matter becomes, the faster it "evaporates" with radiation into the ambient space, whose metric expansion redshifts the received radiation out of existence. The end of the free lunch is coming apace and hastening.
Just like the inflation and cooling of the ambient space stimulates emission of heat by particles of matter, the policies of zero interest rates (quantitative easing) are accompanied by loss of money's purchasing power and effectively impose a tax on holders of money, thus punishing frugality while rewarding borrowing and profligacy.
Let's see what happens to the energy in a collapsing cloud. From the virial theorem, we know E = − (K).
This tells us that as the cloud collapses its internal kinetic energy K will increase. However, only half the potential energy shows up as increased kinetic energy. We can therefore see that the total energy of the collapsing cloud is decreasing. This means that the cloud must be radiating energy away. The virial theorem tells us that half of the lost potential energy shows up as kinetic energy, and half the energy is radiated away.
- —Kutner, Marc L. ♦ Astronomy: A Physical Perspective Cambridge University Press, 2003, p. 272
The jump in the binding energy between low-mass elements, e.g., from 1H to 4He, makes their nuclear fusion to liberate a larger amount of energy per nucleon than the fusion of heavier elements, such as, for example, 12C or 16O. This contributes to the longer lifetimes of the first nuclear phases in stellar evolution, in particular of the H-burning phase. Exothermic fusion reactions are only possible up to 56Fe. The heavier elements are not synthesized in this way, but by successive neutron captures (Sect. 28.5.3).
- —Maeder, André ♦ Physics, Formation and Evolution of Rotating Stars Springer, 2008, p. 194
For a 20 MSun star:
- Main sequence lifetime ~ 10 million years
- Helium burning (3-α) ~ 1 million years
- Carbon burning ~ 300 years
- Oxygen burning ~ 2/3 year
- Silicon burning ~ 2 days
- A temporary neutron star's impansion (introvert expansion) into a zero-temperature black hole ~ after a few weeks or months
- —Gene Smith's Astronomy Tutorial University of California, San Diego
A complex series of events, whose details are still not completely understood, leads to a rapid collapse, followed by a violent explosion, during which the supernova releases more energy in 1 year—1052 ergs—than it had given off in its entire lifetime as a star.
- —A Long-range Program in Space Astronomy NASA, July 1969, p. 5
So the entropy of the cloud decreases as it organises itself into a star but the entropy of the surrounding Universe increases as the star radiates the converted energy into space. Increasing the number of photons in the Universe increases the entropy of the Universe.
- —Clark, Stuart G. ♦ Life on Other Worlds and How to Find It Springer, 2000, p. 58
|Name of process||Fuel||Products|| Temperature|
|Black-hole continuum||Gravitational potential energy||Hydrogen||Extremely high||0|
|Hydrogen burning||Hydrogen||Helium||15||1–3 × 107|
|Helium burning||Helium|| Carbon|
|2 × 108|
|Carbon burning||Carbon|| Oxygen|
|8 × 108|
|Neon burning||Neon|| Oxygen|
|1.5 × 109|
|Oxygen burning||Oxygen||Magnesium to sulfur||2 × 109|
|Silicon burning||Magnesium to sulfur||Elements near iron||3 × 109|
|Presupernova iron core||≤ 1||5 × 109|
|Temporary neutron star||≤ 0.5||100 × 109|
|New black-hole continuum||Gravitational potential energy||Hydrogen||Extremely high||0|
Then in 1963, Roy Kerr, a New Zealand mathematician, found a solution of Einstein’s equations for a rotating black hole, which had bizarre properties. The black hole would not collapse to a point (as previously thought) but into a spinning ring (of neutrons). The ring would be circulating so rapidly that centrifugal force would keep the ring from collapsing under gravity.
- —Kaku, Michio ♦ The Physics of Time Travel
It is interesting to compare the observed rotation periods of the neutron stars with the maximum that they could possess. A rough estimate of this may be made by assuming that the neutron star would break up due to centrifugal forces if its rotational kinetic energy is greater than half its gravitational potential energy, that is, the star no longer satisfies the virial theorem. For a 1MSun neutron star, the break-up rotational period is about 0.5 ms. This is shorter than the observed rotation periods of all pulsars, although pulsars with periods in the range 1–10 ms, the millisecond pulsars, are well known objects, the shortest period being only 1.5 ms, which is within a factor of about three of the break-up rotational period.
- —Longair, Malcolm S. ♦ High Energy Astrophysics v. 2, Cambridge University Press, 1994, p. 97
 Gravity and heat
The Planck quantum of action, h, has precisely the dimensions of an angular momentum, and, moreover, the Bohr quantization hypothesis specified the unit of (orbital) angular momentum to be ħ = h/2π.
- —Biedenharn, L. C.; Louck, J. D. ♦ Angular Momentum in Quantum Physics Addison-Wesley Pub. Co., Advanced Book Program, 1981
By help of this conception the effect of heat can be simply expressed by saying that heat tends to increase the disgregation of bodies.
- —Clausius, R. ♦ On the Second Fundamental Theorem of the Mechanical Theory of Heat; a Lecture delivered before the Forty-first Meeting of the German Scientific Association, at Frankfurt on the Maine, September 23, 1867 The Philosophical Magazine and Journal of Science, June 1868, p. 408
Gravity is the inwardly cohering force acting integratively on all systems. Radiation is the outwardly disintegrating force acting divisively upon all systems.
- —Fuller, R. Buckminster ♦ Synergetics Macmillan, 1975, §000.113
| || |
In the "Alexandrian" explanation described above, the multiple from which evolution emerges is both secondary and sinful from its origin: it represents in fact (an idea that smacks of Manicheanism and the Hindu metaphysical systems) broken and pulverized unity. Starting from a very much more modern and completely different point of view, let us assert, as our original postulate, that, the multiple (that is, non-being, if taken in the pure state) being the only rational form of a creatable (creabile) nothingness, the creative act is comprehensible only as a gradual process of arrangement and unification, which amounts to accepting that to create is to unite. And, indeed, there is nothing to prevent our holding that union creates. To the objection that union presupposes already existing elements, I shall answer that physics has just shown us (in the case of mass) that experientially (and for all the protests of "common sense") the moving object exists only as the product of its motion.
- —Chardin, Pierre Teilhard de ♦ Christianity and Evolution Harcourt, 1971, pp. 193–195
Nature (the Devil) is the fragmented (fallen) God, and the world process is religion (from religāre, "to bind back")—the reunion of the numerous fragments of Nature the Devil ("My name is Legion, for we are many") into the cosmic body of Christ the God ("the One"):
Christ has a cosmic body that extends throughout the universe.
Through the incarnation, God descended into Nature in order to super-animate and take it back to him.
- —Chardin, Pierre Teilhard de ♦ Cosmic Life 1916
- —Chardin, Pierre Teilhard de ♦ Mysticism of Science 1939
banknote : a promissory note issued by a central bank, serving as money
- —banknote The Collins English Dictionary
Because iron is the most tightly bound nucleus (the "break-even point" between fusion and fission), the star is no longer able to produce energy in the core via further nuclear burning stages. Nuclear reactions will continue, however, because of the extremely high temperatures in the massive star's core. These further reactions have a devastating effect on the star, because they take energy out of the core. At such high temperatures and densities, the gamma-ray photons present in the core have sufficient energy to destroy the heavy nuclei produced in the many stages of nuclear reactions, e.g.:
γ + 56Fe →134He + 4nThis process, called photodisintegration, undoes the work of a stellar lifetime in the core and removes the thermal energy necessary to provide pressure support. The result is a catastrophic collapse of the core, which cannot be halted until the core has shrunk to a size of about 10 km and a density of the order of 200 million tons/cm3. Under such extreme conditions, electron degeneracy cannot support the stellar core, and the free electrons are forced together with protons to form neutrons.
- —Gene Smith's Astronomy Tutorial University of California, San Diego
But with the iron-peak nuclides the cycle ends. These nuclei, which include iron, copper, nickel, and cobalt, are very stable and therefore cannot be fused into yet heavier elements without absorbing more energy than they release. When this begins, the supergiant's core rapidly contracts, dramatically increasing in density and temperature. At a core temperature of 5 billion °K, the atomic nuclei first absorb huge quantities of free electrons, and then are shattered into alpha-particles (helium nuclei) by high-energy photons. This process absorbs so much of the core's energy so quickly that its pressure drops essentially to zero and it violently implodes.
This internal catastrophe is announced by an out-rush of neutrinos which, because the upper layers of the star are transparent to them, carries away most of the implosion's energy. (This preliminary neutrino outflow was actually observed from the 1987 supernova in the Large Magellanic Cloud.) The rest of the energy blasts the star's outer layers off in a supernova. The kinetic energy in the expanding supernova debris cloud is something like 2 × 1051 ergs. Because the energy production rate of the Sun is about 3.8 × 1033 ergs/second and there are 3.2 × 107 seconds/year, the amount of time necessary for the Sun to radiate as much energy as is blown away in a supernova debris cloud is 15 billion years. But the Sun's entire main sequence lifetime is less than 10 billion years! (And this calculation is based only upon the amount of energy contained in the supernova's debris cloud: it does not include the energy carried out by the initial neutrino blast, which is probably 100 times greater.)
- —Crossen, Craig; Rhemann, Gerald ♦ Sky Vistas: Astronomy for Binoculars and Richest-Field Telescopes Springer, 2012, pp. 13–14
An astrological year begins at the moment of the vernal equinox, when the Sun enters the sign of Aries. The planetary positions at the beginning of a year determine the character of the entire year. The astrological year of 2015 AD begins at 22:46 GMT of 20 March 2015 AD. 13 hours earlier, at 09:46:46 GMT of 20 March 2015 AD, there is a total solar eclipse—a symbol of the Mystical Marriage and of the end of the world. A total solar eclipse, preceding the beginning of an astrological year by less than 48 hours, has not happened since at least 1943 AD.
- ↑ Why is the Potential Energy Negative? HyperPhysics
- ↑ Bethe, Hans A.; Brown, Gerald ♦ How a Supernova Explodes ♦ Scientific American, May 1985 ♦ "The collapse takes only milliseconds ..."
- ↑ Mészáros , Peter ♦ Gamma-ray bursts: the supernova connection Nature, 19 June 2003, pp. 809–810 ♦ "There is also a more elaborate offshoot of the supernova idea—the 'supranova'. Here, the core collapse is assumed to be a two-step affair: the first step produces a temporary neutron star and a supernova; in the second step, a few weeks or months later, the neutron star collapses into a black hole, producing a GRB."
- ↑ Cleveland, Cutler J.; Morris, Christopher G. ♦ Dictionary of Energy Elsewier, 2014, p. 66 ♦ "Boltzmann's constant: a value (k) relating the average energy of a molecule to its absolute temperature; k = 1.3803 × 1023 Joules per molecules degree Kelvin."
- ↑ 5.0 5.1 Shiga, David ♦ 'Monsters' blamed for extreme chaos in black holes New Scientist, 18 January 2008
- ↑ 6.0 6.1 Bethe, Hans A.; Brown, Gerald ♦ How a Supernova Explodes ♦ Scientific American, May 1985 ♦ "The entire evolution of the star is toward a condition of greater order, or lower entropy. It is easy to see why. In a hydrogen star, each nucleon can move willy-nilly along its own trajectory, but in an iron core groups of 56 nucleons are bound together and must move in lockstep. Initially the entropy per nucleon, expressed in units of Boltzmann's constant, is about 15; in the presupernova core it is less than 1."
- ↑ Crossen, Craig; Rhemann, Gerald ♦ Sky Vistas: Astronomy for Binoculars and Richest-Field Telescopes Springer, 2012, pp. 13–14 ♦ "At a core temperature of 5 billion °K, the atomic nuclei first absorb huge quantities of free electrons, and then are shattered into alpha-particles (helium nuclei) by high-energy photons."
- ↑ Bethe, Hans A.; Brown, Gerald ♦ How a Supernova Explodes ♦ Scientific American, May 1985 ♦ "Even if the compact remnant ultimately degenerates into a black hole, it begins as a hot neutron star. The central temperature immediately after the explosion is roughly 100 billion degrees Kelvin, which generates enough thermal pressure to support the star even if it is larger than 1.8 solar masses."
- ↑ Meyer, Bradley S. ♦ The r-, s-, and p-processes in nucleosynthesis "If the neutron star is more than a few hours old, it is cold (T ≤ 109 K) on a nuclear energy scale (e.g. Baym & Pethick 1979), implying that the entropy per baryon is quite low (≤ 0.5k)."
- ↑ As a system loses angular momentum (heat), it becomes more fragile. Angular momentum is rotationally centrifugal and provides buoyancy against the centripetal force of gravity. In a young system, low-frequency angular momentum (low-temperature heat) is stored in multiple "buoyancy bags", which are isolated from each other. In a mature (interindebted) system, high-frequency angular momentum (high-temperature heat) is generally much more scarce and is synergetically shared between interconnected "buoyancy bags", so that the system effectively has just a single "buoyancy bag". A ship with a single "buoyancy bag" will lose its buoyancy instantaneously, not gradually.
 External links
- Terence McKenna's interview Hawaii, October 1998