Friday, August 22, 2008

Antimatter Hypothesis: Urban Embryonic Galaxies

Whereas rural black holes leave the galactic nest and relocate to where the protoplasm fed progeny are nurtured, urban black holes remain within their home galaxy. Urban renewal is rooted in the same parity of matter as the parent black hole. Sporting accretion disks, urban black holes cannibalize their neighborhood. The protoplasm fed progeny of urban black holes enter the universe confronted by the opposite parity of matter. Initial life expectancy is short. Annihilations happen.

In the crowded urban neighborhood, existence is a tight squeeze for hydrogen atoms, who join together into a gang, the jets. Lethal inner neighborhood conflict ensues with a rival gang of indigenous antiparticles. The two gangs claim separate territory and defend boundaries. Border skirmishes annihilate an equal number on each side.

HH-34: J. Hester (Arizona State University), the WFPC 2 Investigation Definition Team, and NASA

The accretion disk and jet are both visible for HH 30. The calculated speed of the jet is about half a million miles per hour.

NASA, Alan Watson (Universidad Nacional Autonoma de Mexico, Mexico), Karl Stapelfeldt (Jet Propulsion Laboratory), John Krist (Space Telescope Science Institute) and Chris Burrows (European Space Agency/ Space Telescope Science Institute)

C. Burrows (STScI & ESA), the WFPC 2 Investigation Definition Team, and NASA, K. Stapelfeldt (JPL), A Watson (Lowell Observatory)
Dust clouds shroud BHR 71 feeding an accretion disk that produces jets.


Jets emanating in opposite directions from HH 1 and HH 2 encounter resistance and build up pressure at the extremities, similar to mushroom clouds. A high speed jet encountering a slower speed medium produces a bow shock wave.

J. Hester (Arizona State University), the WFPC 2 Investigation Definition Team, and NASA

The jets from HH 46 and HH 47 form bow shaped shock waves in opposite directions.

HH 46/47: NASA/JPL/Caltech

HH 46/47: NASA/JPL-Caltech



Here’s a comparison between the size of these different celestial bodies. Notice the label says ‘Young Stars.’ Where does a young star get all that energy and matter? A black hole stores an incredible amount of energy. These jets are like gas geysers. According to the antimatter hypothesis, the opposite gravitational force of a black hole parent and antiparticle accretion disk form a nozzle that accelerates the hydrogen protoplasm to relativistic velocities.


Galaxy M87 exhibits a precessing jet.

National Radio Astronomy Observatory/National Science Foundation

NASA, National Radio Astronomy Observatory/National Science Foundation, John Biretta (STScI/JHU), and Associated Universities, Inc.

NASA and John Biretta (STScI/JHU)

Tod R. Lauer, Sandra M. Faber/NASA

F. Duccio Macchetto/NASA/ESA

Quasars emit radiation that is detected as the red shifted emission spectrum of hydrogen. The energy output of quasars is far greater than any other astronomical event. It’s hard to imagine anything more destructive than a collision between a matter galaxy and an antimatter galaxy. Quasar jets produce nucleosynthesis and excite the emission spectrum of surrounding molecules.

NASA/JPL-Caltech/University of Manchester

Quasar 3C 273 exhibits a false color relativistic jet decreasing down the electromagnetic spectrum as collisions increase with distance. The black hole is out of the image to the left. X-rays from the Chandra X-Ray Observatory are shown in blue, visible light from the Hubble Space Telescope is shown in green, and infrared light from the Spitzer Space Telescope is shown in red. Other colors like yellow are overlap between the different telescopes. Notice how the spectrum red shifts, both in false color and reality, as the jet slows down.

Quasar 3C 273: NASA/JPL-Caltech/Yale Univ.

Thursday, August 21, 2008

Antimatter Hypothesis: Rural Embryonic Galaxies

In the cyclical cellular cosmological model, galaxies form from the inside out. New black holes form in the oldest parts of a galaxy first: the periphery. The parity of matter is preserved between black holes at the center of galaxies and the intergalactic medium surrounding galaxies, but the galactic protoplasm is the opposite parity of matter. When a periphery black hole enters parenthood and moves out of the neighborhood of its parent galaxy, then the intergalactic medium nurtures its progeny.

Globular clusters are rural embryonic galaxies that harvest the intergalactic medium, which entails remnants from the grandparent’s generation of the protoplasm fed progeny.

NASA, ESA, and Z. Levay (STScI)

In the second Hubble Space Telescope image below of elliptical galaxy NGC 1132, rural globular clusters, in the blue squares, and dwarf galaxies, in the red circles, abound. Age of these embryonic galaxies is a function of distance from the parent elliptical galaxy, and dwarf galaxies are larger than globular clusters, which is consistent with formation around departing black holes.

NASA, ESA and the Hubble Heritage (STScI/AURA)-ESA/Hubble Collaboration. Acknowledgment: M. West (ESO, Chile)

NASA, ESA and the Hubble Heritage (STScI/AURA)-ESA/Hubble Collaboration. Acknowledgment: M. West (ESO, Chile)

Elliptical galaxies harbor the oldest stars and contain relatively little dust, which makes them mature by galactic standards. Elliptical galaxies are considered by cosmologists to be the end result of galaxy mergers. Conventional cosmology claims that galaxies form from the outside-in.

Elliptical galaxy NGC 1275 harbors young globular clusters, appearing here as blue dots.

Jon Holtzman (UCSC), Sandra M. Faber (UCSC), Edward Shaya (U. Maryland)) Tad R. Lauer (NOAO), Edward Groth (IAS, Princeton), Deidre Hunter (Lowell Obs.) and the Wide Field Planetary Camera Instrument Team

Globular clusters M15 and G1 harbor black holes.

NASA/ESA, The Hubble Heritage Team STScI/AURA) and Micahel Rich (UCLA)

Ultraviolet reveals the extended region of hydrogen protoplasm around irregular dwarf galaxy IC 1613. The image on the right represents the visual spectrum of the same area.

IC 1613: NASA/JPL-Caltech/SSC

Globular cluster M4 in our Milky Way harbors old white dwarf stars, circled in blue, that are remnants of stars that have fused elements up to carbon and oxygen.

M4: NASA and H. Richer (University of British Columbia), credit for ground-based photo: NOAO/AURA/NSF

While nearby the Large Magellanic Cloud harbors young globular clusters just beginning hydrogen fusion.

NASA, ESA, and Martino Romaniello (European Southern Observatory, Germany

NGC 1705 is an irregular dwarf galaxy with young hot blue stars concentrated near its core, which is consistent with central black holes in galaxies and globular clusters as the source of hydrogen protoplasm.

NGC 1705: NASA, ESA and the Hubble Heritage Team STScI/AURA)

The change in matter polarity from generation to generation causes the expansion of the universe through the repulsive forces between normal gravity and antigravity. This accounts for the observed red shift, which takes care of a second pillar of Big Bang cosmology. The third pillar is cosmic microwave background radiation, and the leading candidate for this is blackbody radiation from the remains of countless preceding generations of matter and antimatter strewn throughout the intergalactic medium. All three pillars supporting the Big Bang are explained by the cyclical cellular cosmological model, but with greater simplicity. Science is like politics where the incumbent normally wins, but not always. Incumbent cosmology has unresolved problems but no paradigm peers; whereas this cosmological challenger has paradigm peers in many disciplines, including cellular biology, which makes cyclical cellular cosmology far easier to envision. The explanatory power of paradigm peers is a tremendous boon to any model.

Wednesday, August 20, 2008

Antimatter Hypothesis: Cyclical Cellular Cosmology

A universe that gives birth to galaxies from black holes is a self-replicating, cyclical, cellular system that propagates like a biological multi-cellular organism. Think of hydrogen as protoplasm, black holes as nuclei, galaxies as cells, and clusters of galaxies as dividing or merging cells. If this model agrees with reality, then a reality check should reveal clues in cosmic imagery. In fact they do.

New star formation should occur near the core of galaxies and it does.

Hubble Heritage Team (AURA/STScI/NASA/ESA)

Hydrogen protoplasm should permeate beyond the star forming region of galaxies and it does.

NASA/JPL-Caltech/VLA/MPIA

On occasion, neighboring galaxies on a collision course should exhibit the opposite parity of matter and reveal that matter and antimatter repel each other due to opposite gravitational forces and they do.

NASA, ESA, the Hubble Heritage Team (STScI/AURA)-ESA/Hubble Collaboration and A. Evans (University of Virginia, Charlottesville/NRAO/Stony Brook University)

Newborn stars should concentrate together in clusters around black holes and they do.

Don Figer ( Space Telescope Science Institute) and NASA/ESA

As star clusters age the stars should travel away from each other and they do.

Don Figer ( Space Telescope Science Institute) and NASA/ESA

Groups of sibling galaxies should appear to be expanding away from a central parent galaxy and they do.

NASA, ESA, and B. McNamara (University of Waterloo and Ohio University)

When a model agrees with reality, then a whole host of details reveal themselves to investigators equipped with the proper insight. Evidence lies in discovering galaxies in every stage of evolution, and more evidence remains to be discovered in areas of antimatter and black holes.

Tuesday, August 19, 2008

Antimatter Hypothesis: Abundance of Hydrogen

Pair production in or near an antimatter black hole emit relativistic matter particles that include electrons and protons, the constituents of hydrogen. A pure source of hydrogen is provided by this mechanism to supply the basic building block for star fusion into heavier elements. The abundance of hydrogen in the universe, and the continual increase of hydrogen, is explained with no need for a Big Bang. Furthermore, parity of matter and antimatter is preserved. A matter black hole emits relativistic antimatter particles that include positrons and antiprotons, the constituents of antimatter hydrogen. Three pillars of evidence support the Big Bang. The abundance of hydrogen is just one of them. Two more remain: the red shift, and the cosmic microwave background radiation.

Monday, August 18, 2008

Antimatter Hypothesis: Parity of Matter and Antimatter

Hydrogen is the building block of stars. Through fusion stars produce all the heavier elements. Basic hydrogen is two subatomic particles: a proton and an electron. Subatomic particles are produced from energy, but the result of pair production is a one-to-one correspondence between particles and antiparticles. So what’s the story about antimatter?

Astrophysicists claim that the universe is predominantly composed of matter. Logic dictates that this is incorrect. Matter and antimatter should exist in equal amounts. So should we believe the experts? They could be right, but could they be wrong? Maybe they know something that we don’t know, or maybe they took a wrong turn someplace? The flat Earth experts were wrong by modern standards, but could modern day experts be wrong about modern standards? One of the telltale signs of truth is consistency, and consistency has two components: consistency of thought, and consistency between thought and reality. One way to preserve consistency is to remain skeptical about inconsistencies. In the extreme we call this consistency of thought prejudice. Consistency between thought and reality often demands new models that incorporate anomalies inconsistent with conventional theories. Developing new models is not an easy task. Science is the realm of making models consistent with reality. Another perceived sign of truth, other than consistency, is symmetry.

By symmetry matter and antimatter should be equal and opposite, but with an equal amount of matter and antimatter in the universe, where is all the antimatter lurking? Observations indicate that our galaxy is composed of matter. Close encounters with stray antimatter are rare. The way light interacts at the atomic level, photons do not discriminate between matter and antimatter. All the galaxies seen through telescopes could be all matter or all antimatter or both. If galaxies are composed of both matter and antimatter, then annihilations must be happening all the time. In fact a background of gamma ray bursts has been detected, which is consistent with particle antiparticle annihilations. But a galaxy harboring matter and antimatter resembles a pinball machine, not the clockwork mechanism that astronomers observe.
Black Holes
For the most part, matter and antimatter must be segregated. Where’s the safest place to isolate antimatter in our galaxy? Astronomers have detected evidence of black holes at the center of galaxies including our own galaxy, the Milky Way. If the black hole at the center of our galaxy is made of matter, then all the matter swirling about our galaxy is in a death spiral. But what if the black hole at the core of our galaxy is composed of antimatter? What’s the opposite of death? Death is the end of life. What do we call the beginning of life? Birth.

If black holes at the core of galaxies are not death spirals, but birth spirals, then the Big Bang is in big trouble. As children we were led to believe that a central factory someplace makes babies who are delivered by storks to mommies and daddies. Eventually we all learn better. The Big Bang creation myth expects us to believe that everything in the universe was created by spontaneous generation during a one time event at a central factory someplace, but was it? Was creation a one time event, or is creation an ongoing local process. The electric charge of electrons and positrons attract each other and they annihilate, but what about neutrons? Neutrons and antineutrons have zero electric charge, so no electrostatic force applies. What about gravitational forces?

Astrophysicists make the claim that nothing can escape a black hole, not even light. The event horizon of a black hole is the point of no return, where escape velocity equals the speed of light, and nothing can exceed the speed of light. However, the evaporation of black holes has been proposed by way of Hawking radiation, a scenario in which a particle-antiparticle pair is produced from energy just outside the event horizon. One of the pair falls into the black hole, while the other escapes. Since mass and energy are equivalent, any emitted mass subtracts from the black hole and in essence the black hole evaporates. How fast and under what conditions black holes evaporate are open questions.

However, consider what would happen if a neutron antineutron pair form inside the Schwarzschild radius of an antimatter black hole. If astrophysicists are correct, then nothing can escape a black hole. If antigravity is real and acts according to expectations, then conventional explanations are wrong. An antimatter black hole would attract the antineutron into a death spiral, but repel the neutron.

Gravitational Axis
↑0↓
Antimatter Black Hole → n° → n° → n° → n° → n° → n° → Neutrons → Hydrogen
∞
Antihydrogen ← Antineutrons ← n° ← n° ← n° ← n° ← n° ← n° ← Matter Black Hole
Recycling Universe

An antimatter black hole would expel neutrons, and the obverse is also true. A matter black hole would expel antineutrons, in which case black holes supply the material for galaxy formation. Black holes give birth to galaxies, and creation is not unique to the universe as a whole, but ubiquitous to local galaxies. Furthermore, the birth of a galaxy results in the eventual death of the parent black hole at its core through evaporation.

Sunday, August 17, 2008

Antimatter Hypothesis: Supernovas

Fusion is a consequence of gravitational force. Sun mass stars produce elements up to the range of oxygen, generate planetary nebulae, and become white dwarfs. More massive stars produce elements as heavy as iron, collapse to form neutron stars or black holes, and go supernova.

White Dwarf
Chandrasekhar Limit
Neutron Star
Schwarzschild Radius
Black Hole

Gravitation causes fusion; atomic nuclei are pressed together producing heavier elements. After the maximum number of fusion reactions are done then there’s no more outward pressure due to fusion. The core collapses, and a shock wave sheds all the outer layers of lighter elements into surrounding space.




Supernovas are the only viable candidate we know of for chemical elements greater than oxygen. Here are some false color images of supernova remnants and their color schemes for elements discovered by their spectra using filters.


redsulfur
greenhydrogen
blueoxygen


NASA, ESA, and the Hubble Heritage (STScI/AURA)-ESA/Hubble Collaboration

blueoxygen
greensulfur
redhydrogen



greenoxygen
red & purplesulfur
bluehydrogen & nitrogen

According to the latest consensus, elements heavier than iron are produced in the shock wave of supernovas by nucleosynthesis, that is atoms smashing into each other, and radioactive decay. In summary, that’s how astrophysicists think the heavier elements of matter originated. The basic building block is hydrogen. Nucleosysthesis and fusion produce all the rest.

Saturday, August 16, 2008

Antimatter Hypothesis: "Rotten Egg" Nebula

NASA, ESA, William B. Latter (SIRTF Science Center/California Institute of Technology), John H. Bieging (University of Arizona), Casey Meakin (University of Arizona), A.G.G.M. Tielens (Kapteyn Astronomical Institute), Aditya Dayal (IPAC/NASA Jet Propulsion Laboratory), Joseph L. Hora (Center for Astrophysics), and Douglas M. Kelly (University of Arizona)

Sulfur was detected in the gas from this planetary nebula giving it the “Rotten Egg” nickname. The gas contains molecules of hydrogen sulfide and sulfur dioxide, which are detected in their spectra. Sulfur is one row beyond oxygen in the periodic table. The black and white image is ultraviolet, and its matching color image is a composite of four ultraviolet filtered images. A color filter only records light in a narrow range. These images then assign a color to each black and white image and make a composite image. Ultraviolet is not visible to the human eye.

NASA/ESA & Valentin Bujarrabal (Observatorio Astronomico Nacional, Spain)

In the yellow and blue image of the same celestial object the ejecta appears in yellow and collisions with the surrounding material appear in blue.