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The new data? Lots and lots of exo planets have been discovered, and
are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. Supernovae are just not that common. Planets are very common. Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. |
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On Feb 16, 7:27*pm, Mark Earnest wrote:
The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? http://translate.google.com/# Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” |
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On Feb 16, 11:47*pm, Brad Guth wrote:
On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. |
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![]() Hi, You are right the solar nebula hypothesis is not correct. I have suggested instead a new theory: The sun energy source is not fusion. The sun and other stars are heated by magnetic fields from the supermassive black hole at the center of the Milky Way galaxy. With this idea it is possible to trace the formation of the solar system. The sun and planets formed separately. First the sun formed and then after some time the planets formed. Red giants are not dying stars. Stars fluctuate all the time from being a red giant to being a regular star. The sun was a red giant 4.6 billion years ago as evident from meteorite age. The solar planets formed from the strong solar wind of the red giant sun. There are two facts that support this idea. One is the presence of chondrules in many meteorites and the second is the presence of short lived isotopes in meteorites and comets. Observations of red giant stars show that they eject large amount of material and dust. This material resemble in composition to the material in the solar system. For more details read the article: http://www.philica.com/display_artic...article_id=210 http://www.pixelphase.com/sun/solarsystem.pdf Abstract How the solar system formed, is a puzzle that challenged scientists for many centuries. The current accepted theory is the Solar Nebula Hypothesis originated by Kant and Laplace in the 18th century. In reference 1 it was suggested that the sun energy source is not fusion but magnetic fields from the center of the galaxy. The Solar nebula Hypothesis cannot coexist with a sun powered by magnetic fields. As shown on reference 4, those magnetic fields create mass that slowly increase the mass of the sun. The sun is growing not from dust from the interstellar space but from synthesis of new particles in the sun interior. The sun and the planets formed separately, the sun came first and then the planets follow. In the standard solar model stars are turned into red giants when the hydrogen in their core is depleted and the energy production stop. Stars do not work on fusion, but on magnetic fields, so they turn into a red giant when their energy supply from the magnetic field is stopped. Stars that have a very long Maunder minimum, for tens of million of years, in which their stellar cycle is weak, will turn into a red giant. The exoplanet search programs found that stars with planets have higher metallicity compared to stars without planets. The metallicity of a star depends on its mass. Massive stars have higher pressure and temperature in their core that increase the fusion rate of heavy elements. Stars with planet, that show higher metallicity, had higher mass in the past that created the high metallicity. They went through a significant mass loss that decreased their mass but did not change the high metallicity. Those stars significant mass loss occur when they turned into red giants. Red giants have strong stellar wind that disperses the star outer layers into interstellar space. This stellar wind creates comets that form planets around the star. The high metallicity of the sun indicates that it was a red giant. The solar planets where born from the solar wind of the red giant sun. The solar system shows many evidences in support of an ancient red giant sun. The energy calculation in reference 4 suggests that stars are slowly growing by converting the energy from the magnetic fields to mass. The gradual mass increase indicates that more massive stars are also older, so according to the standard solar model there is a mix up between older and younger stars. Older stars are not the smaller stars like red dwarfs but the heavier stars like blue giants. The idea that stars are slowly growing from small sizes, and the fact that the latest exoplanet search programs found large number of exoplanets, leads to the conclusion that stars originate from planets. The development steps leading to the creation of stars from planets include: growth of the planet by cold accretion of comets and asteroids; separation of the planet from the star; magnetic ignition of the planet when it reaches the size of a brown dwarf; and growth of the star by conversion of the energy from the magnetic fields to mass. Regards, Dan Bar-Zohar On Wed, 16 Feb 2011 22:27:06 -0800 (PST), Mark Earnest wrote: On Feb 16, 11:47Â*pm, Brad Guth wrote: On Feb 16, 7:27Â*pm, Mark Earnest wrote: The new data? Â*Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. Â*Supernovae are just not that common. Planets are very common. Â*Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? Â*http://translate.google.com/# Â*Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. |
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On Feb 17, 8:58*am, Brad Guth wrote:
On Feb 17, 3:10*am, wrote: Hi, You are right the solar nebula hypothesis is not correct. I have suggested instead a new theory: The sun energy source is not fusion. The sun and other stars are heated by magnetic fields from the supermassive black hole at the center of the Milky Way galaxy. With this idea it is possible to trace the formation of the solar system. The sun and planets formed separately. First the sun formed and then after some time the planets formed. Red giants are not dying stars. Stars fluctuate all the time from being a red giant to being a regular star. The sun was a red giant 4.6 billion years ago as evident from meteorite age. The solar planets formed from the strong solar wind of the red giant sun. There are two facts that support this idea. One is the presence of chondrules in many meteorites and the second is the presence of short lived isotopes in meteorites and comets. Observations of red giant stars show that they eject large amount of material and dust. This material resemble in composition to the material in the solar system. For more details read the article: http://www.philica.com/display_artic...article_id=210 http://www.pixelphase.com/sun/solarsystem.pdf *Abstract How the solar system formed, is a puzzle that challenged scientists for many centuries. The current accepted theory is the Solar Nebula Hypothesis originated by Kant and Laplace in the 18th century. In reference 1 it was suggested that the sun energy source is not fusion but magnetic fields from the center of the galaxy. The Solar nebula Hypothesis cannot coexist with a sun powered by magnetic fields. As shown on reference 4, those magnetic fields create mass that slowly increase the mass of the sun. The sun is growing not from dust from the interstellar space but from synthesis of new particles in the sun interior. The sun and the planets formed separately, the sun came first and then the planets follow. In the standard solar model stars are turned into red giants when the hydrogen in their core is depleted and the energy production stop. Stars do not work on fusion, but on magnetic fields, so they turn into a red giant when their energy supply from the magnetic field is stopped. Stars that have a very long Maunder minimum, for tens of million of years, in which their stellar cycle is weak, will turn into a red giant. The exoplanet search programs found that stars with planets have higher metallicity compared to stars without planets. The metallicity of a star depends on its mass. Massive stars have higher pressure and temperature in their core that increase the fusion rate of heavy elements. Stars with planet, that show higher metallicity, had higher mass in the past that created the high metallicity. They went through a significant mass loss that decreased their mass but did not change the high metallicity. Those stars significant mass loss occur when they turned into red giants. Red giants have strong stellar wind that disperses the star outer layers into interstellar space. This stellar wind creates comets that form planets around the star. The high metallicity of the sun indicates that it was a red giant. The solar planets where born from the solar wind of the red giant sun. The solar system shows many evidences in support of an ancient red giant sun. The energy calculation in reference 4 suggests that stars are slowly growing by converting the energy from the magnetic fields to mass. The gradual mass increase indicates that more massive stars are also older, so according to the standard solar model there is a mix up between older and younger stars. Older stars are not the smaller stars like red dwarfs but the heavier stars like blue giants. The idea that stars are slowly growing from small sizes, and the fact that the latest exoplanet search programs found large number of exoplanets, leads to the conclusion that stars originate from planets. The development steps leading to the creation of stars from planets include: growth of the planet by cold accretion of comets and asteroids; separation of the planet from the star; magnetic ignition of the planet when it reaches the size of a brown dwarf; and growth of the star by conversion of the energy from the magnetic fields to mass. Regards, Dan Bar-Zohar On Wed, 16 Feb 2011 22:27:06 -0800 (PST), Mark Earnest wrote: On Feb 16, 11:47*pm, Brad Guth wrote: On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. Yes, metallicity and magnetic fields are clearly in charge of much of what's taking place, and gamma is clearly a result of that interaction. *However, fusion is also happening. However, planets creating stars seems a stretch, though somewhat less stretchy when we consider the vast bulk of planet mass is in the form of gas giants that could merge and/or grow into becoming brown dwarfs, then becoming red dwarfs before reaching full main sequence worthy stars (however without such mergers exploding is the trick that you'll need to better explain). Converting magnetic energy into mass seems unlikely. *Do you have a working prototype that'll demonstrate this? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” My "Spin is in theory" can be used for planet(rock) when used when Sun was a photostar. Its super fast spin extracted its heavy elements,and they ended up in its accretion disk. TreBert |
#7
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On Feb 17, 3:58*pm, Brad Guth wrote:
On Feb 17, 3:10*am, wrote: Hi, You are right the solar nebula hypothesis is not correct. I have suggested instead a new theory: The sun energy source is not fusion. The sun and other stars are heated by magnetic fields from the supermassive black hole at the center of the Milky Way galaxy. With this idea it is possible to trace the formation of the solar system. The sun and planets formed separately. First the sun formed and then after some time the planets formed. Red giants are not dying stars. Stars fluctuate all the time from being a red giant to being a regular star. The sun was a red giant 4.6 billion years ago as evident from meteorite age. The solar planets formed from the strong solar wind of the red giant sun. There are two facts that support this idea. One is the presence of chondrules in many meteorites and the second is the presence of short lived isotopes in meteorites and comets. Observations of red giant stars show that they eject large amount of material and dust. This material resemble in composition to the material in the solar system. For more details read the article: http://www.philica.com/display_artic...article_id=210 http://www.pixelphase.com/sun/solarsystem.pdf *Abstract How the solar system formed, is a puzzle that challenged scientists for many centuries. The current accepted theory is the Solar Nebula Hypothesis originated by Kant and Laplace in the 18th century. In reference 1 it was suggested that the sun energy source is not fusion but magnetic fields from the center of the galaxy. The Solar nebula Hypothesis cannot coexist with a sun powered by magnetic fields. As shown on reference 4, those magnetic fields create mass that slowly increase the mass of the sun. The sun is growing not from dust from the interstellar space but from synthesis of new particles in the sun interior. The sun and the planets formed separately, the sun came first and then the planets follow. In the standard solar model stars are turned into red giants when the hydrogen in their core is depleted and the energy production stop. Stars do not work on fusion, but on magnetic fields, so they turn into a red giant when their energy supply from the magnetic field is stopped. Stars that have a very long Maunder minimum, for tens of million of years, in which their stellar cycle is weak, will turn into a red giant. The exoplanet search programs found that stars with planets have higher metallicity compared to stars without planets. The metallicity of a star depends on its mass. Massive stars have higher pressure and temperature in their core that increase the fusion rate of heavy elements. Stars with planet, that show higher metallicity, had higher mass in the past that created the high metallicity. They went through a significant mass loss that decreased their mass but did not change the high metallicity. Those stars significant mass loss occur when they turned into red giants. Red giants have strong stellar wind that disperses the star outer layers into interstellar space. This stellar wind creates comets that form planets around the star. The high metallicity of the sun indicates that it was a red giant. The solar planets where born from the solar wind of the red giant sun. The solar system shows many evidences in support of an ancient red giant sun. The energy calculation in reference 4 suggests that stars are slowly growing by converting the energy from the magnetic fields to mass. The gradual mass increase indicates that more massive stars are also older, so according to the standard solar model there is a mix up between older and younger stars. Older stars are not the smaller stars like red dwarfs but the heavier stars like blue giants. The idea that stars are slowly growing from small sizes, and the fact that the latest exoplanet search programs found large number of exoplanets, leads to the conclusion that stars originate from planets. The development steps leading to the creation of stars from planets include: growth of the planet by cold accretion of comets and asteroids; separation of the planet from the star; magnetic ignition of the planet when it reaches the size of a brown dwarf; and growth of the star by conversion of the energy from the magnetic fields to mass. Regards, Dan Bar-Zohar On Wed, 16 Feb 2011 22:27:06 -0800 (PST), Mark Earnest wrote: On Feb 16, 11:47*pm, Brad Guth wrote: On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. Yes, metallicity and magnetic fields are clearly in charge of much of what's taking place, and gamma is clearly a result of that interaction. *However, fusion is also happening. However, planets creating stars seems a stretch, though somewhat less stretchy when we consider the vast bulk of planet mass is in the form of gas giants that could merge and/or grow into becoming brown dwarfs, then becoming red dwarfs before reaching full main sequence worthy stars (however without such mergers exploding is the trick that you'll need to better explain). Converting magnetic energy into mass seems unlikely. *Do you have a working prototype that'll demonstrate this? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet”- Hide quoted text - - Show quoted text - If the sun energy source is magnetic fields then it converts enegy to mass. The muon neutrinos flux from the sun is not from neutrino oscillations but from the conversion of energy to mass. http://www.philica.com/display_artic...article_id=126 If the stars convert energy to mass, they are always getting bigger. So, stars start with a small mass and they grow bigger slowly over billion of years. Brown dwarfs have the lowest mass that enables conversion of energy to mass. Below the mass of a brown dwarf the star grow by accretion by collecting comets - similar to what Jupiter is doing. After the star accreted enough material and has the mass of a brown dwarf it is ignited by magnetic fields and start climbing along the main sequence of the Hertzsprung-Russell diagram. See this calculation on the conversion of energy to mass. http://philica.com/display_article.php?article_id=208 Observations confirm that there are plenty of objects in all masses from planets to brown dwarfs to red dwarfs. If there were many planets and many brown dwarfs but nothing in between then you could say that it is not making sense that stars are born from planets. However, this is not the case and there is a continuum in mass between planets and brown dwarf. If you take a chick and a chicken you would expect a continuum between the size of a chick and a chicken as it grows. The planet merger is a nice idea but the planet search programs showed that many of the planetary systems have only one planets. Dan Bar-Zohar |
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**** OFF, DAN! You are TOTALLY WRONG AND A WACKO NUTJOB!
STOP BOTHERING US WITH YOUR ****! Mark Earnest is a DUMBASS WITH A VERY POOR EDUCATION! Saul Levy On Thu, 17 Feb 2011 13:10:59 +0200, wrote: Hi, You are right the solar nebula hypothesis is not correct. I have suggested instead a new theory: The sun energy source is not fusion. The sun and other stars are heated by magnetic fields from the supermassive black hole at the center of the Milky Way galaxy. Regards, Dan Bar-Zohar On Wed, 16 Feb 2011 22:27:06 -0800 (PST), Mark Earnest wrote: On Feb 16, 11:47*pm, Brad Guth wrote: On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. |
#9
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On Feb 16, 10:27*pm, Mark Earnest wrote:
On Feb 16, 11:47*pm, Brad Guth wrote: On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. If given the average life of stars like our sun to being worth ten billion years, then perhaps it only stands to reason that the current cycle we're in is by no means the first. Many stars that started out larger and/or more massive than our sun have already become spent and/ or having imploded into giving off heavier elements, of which it takes those heavier elements in order to create planets like Earth. Those enormous gamma bubbles above and below our galaxy are yet another dead giveaway that a large number of stars have been recycled, and that takes time (perhaps a billion years per massive stellar cycle and otherwise 100 billion years per supermassive black hole unless merging BHs were the cause). At any rate, 0.5c is the fastest anything molecular can be made to travel because nothing can explode at faster than c, so that alone makes the universe that has reached 13+ billion ly distance worth something much older. A star of mostly hydrogen and helium doesn't create highly metallicity saturated planets, at least not from it's initial main sequence cycle. You do agree that stars recycle and thereby offer more metallicity worthy replacements? So, how old is the known universe? http://translate.google.com/# Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” |
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On Feb 16, 10:27*pm, Mark Earnest wrote:
On Feb 16, 11:47*pm, Brad Guth wrote: On Feb 16, 7:27*pm, Mark Earnest wrote: The new data? *Lots and lots of exo planets have been discovered, and are continuing to be discovered, as more powerful visual instruments are being invented. So if there are this many planets, hundred of thousands of them, in fact, they could not have all been formed by supernovae which somehow put on the brakes to form all these solar systems. *Supernovae are just not that common. Planets are very common. *Further, there is nothing known in the universe that could get the supernovae blasts to put on the bakes hard enough to get such solar systems to form. You got good arguments. So how many hundred billion years old is this universe that's saturated with planets (perhaps a whole lot more planets than stars)? *http://translate.google.com/# *Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” It seems that if the universe were extreme amounts older than our solar system, the part of the universe includes us would have already spent itself, We would not even be here. If given the average life of stars like our sun to being only worth ten billion years, then perhaps it only stands to reason that the current cycle we're in is by no means the first. Many stars that started out larger and/or more massive than our sun have already become spent and/ or having imploded into giving off heavier elements, of which it takes those heavier elements in order to create planets like Earth. Those enormous gamma bubbles above and below our galaxy are yet another dead giveaway that a large number of stars have been recycled, and that takes time (perhaps a billion years per massive stellar cycle and otherwise 100 billion years per supermassive black hole unless merging or colliding BHs were the cause). At any rate, 0.5c is the fastest anything molecular can be made to travel because supposedly nothing can explode at faster than c, so that alone makes the universe that has reached 13+ billion ly distance worth something much older. A proto-star of mostly hydrogen and helium doesn't create highly metallicity saturated planets, at least not from it's initial start-up or main sequence cycle. You do agree that stars recycle and thereby offer more metallicity worthy replacements? So, how old is the known universe? Perhaps I should have asked; how old do you want this universe to be? http://translate.google.com/# Brad Guth, Brad_Guth, Brad.Guth, BradGuth, BG / “Guth Usenet” |
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