Quantized Structure of a Graviton

AI Thread Summary
The graviton, denoted as G^{-}, is defined using quanta of length (ψ_E, ψ_B) and linear momentum (φ_E, φ_B) in a time-independent structure. The antigraviton, G^{+}, is represented similarly but with a negative sign. Interactions between gravitons and antigravitons follow specific rules, resulting in equations that involve constants α, β, and γ. The units of G are noted to be M^2 L^4 / T^2, which corresponds to the square of Planck's constant of action, indicating a unit of double actions. In a time-dependent structure, the quanta relate to squares of energy due to non-zero time derivatives of linear momentum.
Antonio Lao
Messages
1,436
Reaction score
1
The quantum of gravity is called graviton. And using symbols for quanta of length, \psi_E and \psi_B and quanta of linear momentum, \phi_E and \phi_B, the time independent structure of graviton, G^{-} is given by

G^{-} = \psi_E \times \phi_E \cdot \psi_B \times \phi_B
 
Physics news on Phys.org
The time independent structure of antigraviton is given by

G^{+} = - \psi_E \times \phi_E \cdot \psi_B \times \phi_B

the interactions between graviton and antigraviton follow the rules:

G^{+}G^{-} = \alpha G^{-}

G^{-}G^{-} = \beta G^{+}

G^{+}G^{+} = \gamma G^{+}
 
I note that your G has the unusual units of M^2 L^4 /T^2 if what you are calling a quantum of length has the anticipated unit of L and if what you are calling a quantum of momentum has the anticipated unit of ML/T.
 
Last edited:
Janitor said:
I note that your G has the unusual units of ...

You are correct. The unit is proportional to the square of Planck's constant of action. This is a unit of double actions.

For the case of a time dependent structure, that is to say the time derivative of the linear momentum is not zero giving the existence of a force, the quanta are squares of energy.
 
Last edited:
I think it's easist first to watch a short vidio clip I find these videos very relaxing to watch .. I got to thinking is this being done in the most efficient way? The sand has to be suspended in the water to move it to the outlet ... The faster the water , the more turbulance and the sand stays suspended, so it seems to me the rule of thumb is the hose be aimed towards the outlet at all times .. Many times the workers hit the sand directly which will greatly reduce the water...
Back
Top