quantum mass revised

[AntonioLao]

The successful formulation of quantum energy was preceded by a formalism using canonical conjugation. This is accomplished by generalized coordinates of position and velocity differentiable over a Lagrangian function and by generalized position and momentum differentiable over a Hamiltonian function. Before the use of operators, complex numbers, and complex matrices (spinors), these two formulations describe the natural interaction of real potential energy and real kinetic energy. The Lagrangian describes the difference; while the Hamiltonian, the sum. For a 1-particle system, the Hamiltonian is given by H1 = (1/m1)(1/2)(p1) + V1, while the Lagrangian is given by L2 = (m2)(1/2)(v2) - V2. In a 2-particle system, and if V1 = V2 then H1 + L2 = (1/m1)(1/2)(p1) + (m2)(1/2)(v2). Furthermore, if m = m1 = m2 then the result is a quadratic equation for the mass, m - 2m(H1 + L2)/v2 + p1/v2 = 0, whose solution factors are (m - p1/ v2) = 0 iff p1v2 = H1 + L2. These derivations imply that the quantum of mass is equal to the ratio of one particle momentum over the velocity of the other particle in the system. In deriving the differential form, one starts by noting that p2 = ∂L2/∂v2 and v1 = ∂H1/∂p1, equivalently, p2 ∂v2 = ∂L2 and v1∂p1 = ∂H1. If p1 = p2 and v1 = v2 then ∂(pv) = ∂(H1 + L2) and the spacetime integral is pv = ∫∫∫∫∂(H+ L).

[mkirkpatrick]

Well now that it is revised,what do we call it?And does this revision actually change anything? And if so what?


regards michael.

[AntonioLao]

Well now that it is revised,what do we call it?And does this revision actually change anything? And if so what?

The implication is that measuring mass requires at the least two particles. If there is only one particle, it cannot measure its own mass. mass equals the ratio of one particle's momentum over the other particle's velocity. The momentum of the universe is zero and that is why the mass of the photon is zero. However, the momentum of the photon is its energy divided by its speed.

[mkirkpatrick]

In calculating the quantum mass,are the calculations allowing for say dark matter?And what about the mass that is "slightly out of phase" with the physical continuum?Are these
within the measurement parameters?



regards michael

[AntonioLao]

are the calculations allowing for say dark matter?And what about the mass that is "slightly out of phase" with the physical continuum?Are these within the measurement parameters?

When calculating mass and energy, the interest is always centered around their first power. The vacuum second power is completely or perfectly in phase otherwise matter and energy could be realized into the first power. The size of the universe is 99.99% vacuum, even the space between atoms are vacuum phases.

[mkirkpatrick]

When calculating mass and energy, the interest is always centered around their first power. The vacuum second power is completely or perfectly in phase otherwise matter and energy could be realized into the first power. The size of the universe is 99.99% vacuum, even the space between atoms are vacuum phases.

That might very well be true for the physical universe as we know it? But this 99.99%
is prehaps not so valid in the etheric universe.


regardsmichael.

[AntonioLao]

But this 99.99% is prehaps not so valid in the etheric universe.

Astrophysicists are looking and searching for the missing matter in order to fit theories.

[mkirkpatrick]

Astrophysicists are looking and searching for the missing matter in order to fit theories.

Do you think though Antonio that they are looking in the right place?
And secondly do astrophysicists accept that there is an etheric universe?


regards michael.

[AntonioLao]

do astrophysicists accept that there is an etheric universe?

They are using both ends of the electromagnetic spectrum in searching for waves of the ether. These signals seem too weak for state of the art instruments. However, new methods for detection are innovated frequently by some ingenious people.

[mkirkpatrick]

Astrophysicists are looking and searching for the missing matter in order to fit theories.

That is excellent news Antonio,hope they find what they are looking for!


regards michael.