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Relational Quantum Gravity : QuantumCoordinates

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Revision [354]

Last edited on 2010-07-11 10:34:27 by CharlesFrancis
Additions:
""Quantum Coordinates""
""Bending of Light""
""Pioneer Blueshift""
""Circular Orbits""


Revision [255]

Edited on 2010-06-08 14:07:49 by CharlesFrancis
Additions:
""QuantumCoordinates-21""In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Meanwhile vectors on Earth are contracted because of the expansion of the Universe. Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth, classical energy is given by (note that ""t0"" is now the earlier time)
Deletions:
""QuantumCoordinates-21""In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Meanwhile vectors on Earth are contracted because of the expansion of the Universe. Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth, classical energy is given by (note that ""t0"" is now the earlier time)


Revision [252]

Edited on 2010-06-08 04:22:20 by CharlesFrancis
Additions:
""QuantumCoordinates-21""In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Meanwhile vectors on Earth are contracted because of the expansion of the Universe. Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth, classical energy is given by (note that ""t0"" is now the earlier time)
Deletions:
""OriginOfCurvature-14""In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Meanwhile vectors on Earth are contracted because of the expansion of the Universe. Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)


Revision [251]

Edited on 2010-06-08 04:14:48 by CharlesFrancis
Additions:
""OriginOfCurvature-14""In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Meanwhile vectors on Earth are contracted because of the expansion of the Universe. Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)
Deletions:
In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)


Revision [250]

Edited on 2010-06-08 02:12:50 by CharlesFrancis
Additions:
In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Let the classical momentum of Pioneer be ""p"" at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)
Deletions:
In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Let the classical momentum of Pioneer ""p""at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)


Revision [249]

Edited on 2010-06-08 02:10:51 by CharlesFrancis
Additions:
In the absence of calibration between clocks on a distant body and clocks on the earth, the energy-momentum of a distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Let the classical momentum of Pioneer ""p""at the time, ""t0"", of loss of radar lock. Ignoring radiation pressure and local gravitational effects such as the gravity of the Sun (set ""k = 1"" in the metric), for a signal emitted at time ""t"" and detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)
Deletions:
In the absence of calibration between clocks on a distant body and clocks on the earth, the momentum of the distant body is constant in ""τ-ρ"" coordinates with non-physical metric ""QuantumCoordinates-6"". Ignoring local gravitational effects (set ""k = 1"" in the metric), as determined in signals detected on Earth classical energy is given by (note that ""t0"" is now the earlier time)


Revision [214]

Edited on 2009-10-24 01:06:53 by CharlesFrancis
Additions:
These coordinates are defined such that the speed of light is unity, but, due to the variability of ""k : ρ → k(ρ)"" , lines of constant ""ρ"" are not geodesic (as is the case for a standard Friedmann cosmology). Quantum theory was formulated with the non-physical metric, ""QuantumCoordinates-4"", given by
Deletions:
These coordinates are defined such that the speed of light is unity, but, due to the variability of the of ""k : ρ → k(ρ)"" , lines of constant ""ρ"" are not geodesic (as is the case for a standard Friedmann cosmology). Quantum theory was formulated with the non-physical metric, ""QuantumCoordinates-4"", given by


Revision [213]

Edited on 2009-10-24 00:42:36 by CharlesFrancis
Additions:
""QuantumCoordinates-20""
Deletions:
""QuantumCoordinates-20"".


Revision [89]

The oldest known version of this page was created on 2009-04-25 07:27:32 by CharlesFrancis
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