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#1
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We assume to find in every point of space a flow in all directions of
radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densties, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Ole D. Rughede |
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#2
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it seems that
a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. ************* Maybe the unification of the 4 forces is neither desirable or possible. Why not try to unify the four integers 1,2,3,and 4? Why can't the 4 forces act separately? |
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#3
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wrote in message
oups.com... it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Implicit in any aether postulate is the notion of some extremely tenuous scale of spatial structure (along with its quantum fluctuations - ZPF) that exhibits a behaviour such that all other standard model particles should be able to explained as dynamic configurations of this primal (hypothetical) "state of matter". ************* Maybe the unification of the 4 forces is neither desirable or possible. Albert (the bus driver) expended time on this issue. He obviously thought such unification was the next logical step in the advancement of the "scientific program". Why not try to unify the four integers 1,2,3,and 4? This is the mathematicans approach, however the aether postulate requires there be some physics. Minkowski essentially appears to have unified the integral concept of dimension in precisely this manner. Why can't the 4 forces act separately? Four horses may either run freely or be harnessed to a team. Perhaps applications are derived from the latter which are significantly novel, useful and advantageous? -- Pete Brown Falls Creek OZ www.mountainman.com.au |
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#4
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"Ole D. Rughede" wrote in message
k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The assumption is reasonable. http://www.mountainman.com.au/news97_4.html The radiant energy will we name "The Aether", and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: Here is a paper that also references the fine structure constant, it may be of interest: Gravity, 'Dark Matter' and the Fine Structure Constant Author/Date: Reginald T. Cahill, January 2004 http://xxx.lanl.gov/abs/physics/0401047 Apeiron Vol. 12. No.2, 144-177, April 2005 m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densties, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Unification = integrity. -- Pete Brown Falls Creek OZ www.mountainman.com.au |
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Thank you Pete,
My value for the much discussed finestructure-constant is alpha = 2*pi*e^2 / h*c = 7.297349E-3 And let me say that I'm amazed of the simplicity of the whole concept, which as presented here is but a first approximation. However, as I believe, with very safe derivation of the aether equation from fundamental definitions and constants. Ole "mountain man" skrev i en meddelelse news ![]() "Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The assumption is reasonable. http://www.mountainman.com.au/news97_4.html The radiant energy will we name "The Aether", and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: Here is a paper that also references the fine structure constant, it may be of interest: Gravity, 'Dark Matter' and the Fine Structure Constant Author/Date: Reginald T. Cahill, January 2004 http://xxx.lanl.gov/abs/physics/0401047 Apeiron Vol. 12. No.2, 144-177, April 2005 m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densties, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Unification = integrity. -- Pete Brown Falls Creek OZ www.mountainman.com.au |
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#6
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"Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", The aether has already defined to be something a lot different. All choosing a name already in use does is introduce unnecessary layers of obsufucation. The purpose of such will probably become clear later and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. It did not take long - you define it to be the radiant energy density at any point in space - then you context shift and claim it is the medium of all physical fields and forces without first demonstrating your previous definition can have such a property. Of course that is the reason you wish to use the word aether - so you can shift the context and hope your undemonstrated connection is not noticed. Bill A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densties, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Ole D. Rughede |
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"Bill Hobba" skrev i en meddelelse ... "Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", The aether has already defined to be something a lot different. All choosing a name already in use does is introduce unnecessary layers of obsufucation. The purpose of such will probably become clear later Thank you Bill, The "aether" has - to my knowledge - shiftet as a concept so many times in history since it with the old Greeks was simply the heaven, became the all pervading fifth element of godly action, and so on, that I see no hindrance for giving the name now to the described entity. At the same time I want to emphasize that the rather vague ideas proposed in classical physics including Einstein's) under the name of aether have not been acceptable why they were overthrown, in fact leaving the concept waiting for a new and better definition I propose here, still, though, with strong allusions to the ideas of the great scientists who used the name aether describing their marvellous findings about fields, forces, and space as the seat of fields and forces. So we will honour those giants in keeping the name "Aether". and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. It did not take long - you define it to be the radiant energy density at any point in space - then you context shift and claim it is the medium of all physical fields and forces without first demonstrating your previous definition can have such a property. Of course that is the reason you wish to use the word aether - so you can shift the context and hope your undemonstrated connection is not noticed. Bill I think you credit me to be more shrewd and cunningly ingenious than in fact I am, or intend to be. Anyway, thank you! I am not shifting context, just trying to express me short and precisely. I have so to say no wantings, but feel compelled to keep to the best and most fundamental ideas of the great predecessors in physics. I would wish you had once read Paul Drude's Physik des Aethers, Verlag von Ferdinand Enke, Stuttgart 1894. Here, referring to Maxwell, Boltzmann, Poincaré, Hertz, and J. J. Thompson, Drude gives a very clear idea of the aether, identical to what I describe, mentioning the aether as the medium of contact-forces of the fields in space, rejecting any and all ideas of forces by distance. And, forgive me Bill, but we are allowed to initially set a frame to be further dicussed and demonstrated valid in the following text(s). However, you are right, we should be very careful in nomenclature and not get in conflict with prescriptive other use leading to unnecessesary obfuscations that might impair our own purpose. That is why I thankfully notice your opinion, and hope to have also others, from which I perhaps may some time draw a final conclusion, - staying until then open, of course, for any suggestion. Ole A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densities, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Ole D. Rughede |
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"Bill Hobba" wrote in message
... "Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", The aether has already defined to be something a lot different. If this is the case, what is the name that you'd give to the phenomena that has been described in the first paragraph by which every point in space is "saturated" with the radiant energy from all astrophysical objects (in the cosmos)? |
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"Ole D. Rughede" wrote in message k... "Bill Hobba" skrev i en meddelelse ... "Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", The aether has already defined to be something a lot different. All choosing a name already in use does is introduce unnecessary layers of obsufucation. The purpose of such will probably become clear later Thank you Bill, The "aether" has - to my knowledge - shiftet as a concept so many times in history since it with the old Greeks was simply the heaven, became the all pervading fifth element of godly action, and so on, that I see no hindrance for giving the name now to the described entity. In connection with relativity the aether means, and has always meant, a mechanical substance permeating all of space that light is supposed to undulate in. But even apart form that nothing excuses the disgraceful context shifting you engage in that I alluded to. To be specific, and so as not to be misunderstood, defining the aether as radiant energy then reverting to it original meaning as a 'medium of all physical fields and forces' is such an obvious semantic device that you should be ashamed. Bill At the same time I want to emphasize that the rather vague ideas proposed in classical physics including Einstein's) under the name of aether have not been acceptable why they were overthrown, in fact leaving the concept waiting for a new and better definition I propose here, still, though, with strong allusions to the ideas of the great scientists who used the name aether describing their marvellous findings about fields, forces, and space as the seat of fields and forces. So we will honour those giants in keeping the name "Aether". and since it is present overall in the universe, we will call space "The Aether-Space", presuming the aether is the medium of all physical fields and forces. It did not take long - you define it to be the radiant energy density at any point in space - then you context shift and claim it is the medium of all physical fields and forces without first demonstrating your previous definition can have such a property. Of course that is the reason you wish to use the word aether - so you can shift the context and hope your undemonstrated connection is not noticed. Bill I think you credit me to be more shrewd and cunningly ingenious than in fact I am, or intend to be. Anyway, thank you! I am not shifting context, just trying to express me short and precisely. I have so to say no wantings, but feel compelled to keep to the best and most fundamental ideas of the great predecessors in physics. I would wish you had once read Paul Drude's Physik des Aethers, Verlag von Ferdinand Enke, Stuttgart 1894. Here, referring to Maxwell, Boltzmann, Poincaré, Hertz, and J. J. Thompson, Drude gives a very clear idea of the aether, identical to what I describe, mentioning the aether as the medium of contact-forces of the fields in space, rejecting any and all ideas of forces by distance. And, forgive me Bill, but we are allowed to initially set a frame to be further dicussed and demonstrated valid in the following text(s). However, you are right, we should be very careful in nomenclature and not get in conflict with prescriptive other use leading to unnecessesary obfuscations that might impair our own purpose. That is why I thankfully notice your opinion, and hope to have also others, from which I perhaps may some time draw a final conclusion, - staying until then open, of course, for any suggestion. Ole A set of equations can be found for this situation with solutions I have given once to these newsgroups, and from which may be derived the aether equation with the minimum energy U at the temperature T(Aether) which has been confirmed by the COBE observations of T(CMBR) = 2.735 +/- 0.06 Kelvin. kappa*U*V = G*h*c^2; K = G*c/kappa*L^2 = U*L/h*c = 2.000343E3. U = 3.973637E-13 erg at T(Aether) = 2.692064 Kelvin. Defining kappa = 1 erg/(sec*g^2) and V = 1 cm^3 it is seen that if U is a variable, also the Newtonian G and the velocity light c are dependent variables, if Planck's h is a universal constant. At higher energy densities of the aether, such as in the galaxies, G and c would have other and higher values than G = 6.672426E-8 cm^3/(g*sec^2) and c = 2.99792458E10 cm/sec of the aether equation and will need some co-efficient rho to G, while the maximum value of c is supposed from a possible co-efficient function to be c_max = sqrt(2)*c. To have an idea of the extreme energy densities and their corresponding rho-values, we will have a look at the Schwarzschild solution to the electron: G*m_e / r_e*c^2 = 1 / rho_e = G*(m_e)^2 / e^2. m_e = 9.109535E-28 g, e = 4.803242E-10 esu, r_e = 2.817937E-13 cm, rho_e = 4.166705E42. Considering the composite neutron, the proton+, and the neutron-meson- we find that the meson must be the mass difference between the neutron and the proton, and that the meson must be a special heavy neutron-electron, since the free neutron in relatively short time disintegrates into a proton, an electron, and some neutrino energy depending on the velocities and directions of the parting massive fundamental particles. We therefore have: m_n = 1.674954E-24 g, m_p = 1.672648E-24 g, m_m = 2.305589E-27 g. We then find the following relations with alpha as the fine-structure constant: m_p*m_m / (m_e)^2 = alpha*K^2 / 2*pi = K^3*e^2 / U*L = 4.64723E3. rho_e*G*m_p*m_m / e^2 = alpha*K^2 / 2*pi, alpha*rho_hc / 2*pi = rho_e rho_p,m = rho_hc / K^2 = 8.965996E38 As an analogon to the Schwarzschild electron solution we find: rho_p,m*G*m_n / r_n*c^2 = rho_p,m*G*m_p*m_m / e^2 = 1. r_n = 1.11492E-13 cm would then be the radius of the neutron, and if the proton is calculated with the same co-efficient rho_p,m, rho_p,m*G*m_p / r_p*c^2 = 1, r_p = 1.113386E-13cm. When the neutron-meson should in fact be a heavy electron, and m_m/m_e ~ 2.53, it would make reason if the mass-difference m_m minus m_e was the virtual gravitational mass of the neutron's intrinsic proton-electron pair, whence we find rho_p,m*G*m_p*m_e / r_n*c^2 = m_vir = 9.09669E-28 g ~ m_e, rho_p,m*G*m_p*m_e / r_p*c^2 = m_vir = 9.109531E-28 g. We hereby have accounted for a neutron-meson of twice the electron's mass, while we need an explanation for the extra mass of about ˝ electron-mass in the neutron-meson. We will abstain here from further calculations and for the moment consider it sufficient to have shown a double electron-mass in the meson, pointing to the self-gravitation also of the virtual mass as a probable solution to the deficiency of ~ 4.83E-28 g meson-mass. Having demonstrated that the Newtonian G must be a variabel of very great values at extreme energy densities, such as in the composite neutron (rho_p,m*G ~ 6E31), it seems reasonabe to believe that the strong nuclear force is caused by such extreme values of the Newtonian gravitational factor. We therefore assume that the neutron-meson would be able to bind two protons in the atomic nucleus by orbiting in such a way that it shifts constantly between the two protons, of which the one may be considered a neutron, when the other is a proton and vice versa in constant shifts of constitution in the neutron-proton pair of a nucleus. The binding orbit may hence be thought of in a most simple theoretical illustration as the meson following an Oval of Cassini around the two heavy electrically positive charged particles, forcing them to the constant shifts of neutron-proton phase. And as will be known, the Lemniscate is the extreme curve of the Cassini oval, with the parameters a = b, where the strong particle-binding would break in a proton and a free neutron that may possibly leave the nucleus. Of course, the real conditions of an "orbiting neutron-meson" cannot be made really lucid, since we know that the interaction is rather a question af probability of distribution of charges and masses, when we observe the weak magnetic moment of the electrically neutral neutron. However, it seems that the strong nuclear force may be accounted for as a very strong gravitational force at extreme energy densities, to which is remarked that we also in the galaxies with their very intense radiation from stars and gasses may expect special dynamics due to the variable factor of G, which would therefore account for the observed galactic differential velocities and probably would explain also the so-called "problem of missing mass in the universe". As in fact gravitational action according to the aether physics is an electromagnetic phenomenon of energy exchange in Planck quanta leaving an enduring train of impulses unto the gravitating masses, it seems that a unification of the four fundamental forces in nature may be expected from consideration of the physics of the aether. Ole D. Rughede |
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"mountain man" wrote in message ... "Bill Hobba" wrote in message ... "Ole D. Rughede" wrote in message k... We assume to find in every point of space a flow in all directions of radiant energy from all astrophysical objects, meaning that space everywhere has a specific energy U erg and an energy density u = U/V erg/cm^3, which of course is a local variable depending on the position in space. The radiant energy will we name "The Aether", The aether has already defined to be something a lot different. If this is the case, what is the name that you'd give to the phenomena that has been described in the first paragraph by which every point in space is "saturated" with the radiant energy from all astrophysical objects (in the cosmos)? I call such silly semantics lacking in any coherency - and example of 'philology' that Lev Landau worked to eliminate from physics - although such a rudimentary one anyone can see how silly it is - one does not have to be a great physicist like Landau eg the CBMR can be screened out by a faraday cage - so how does it 'saturate' what is inside it? The name I would give the 'phenomena' that radiation radiates is tautology - not the aether. What name would you give the phenomena 2+2 = 4 - is that the aether as well? Bill |