I notice you say space has a quantum nature.
I don’t know if space quantum in nature. What I’m trying to do is explore the consequences of it being so. If space is quantum, more specifically quantum-geometrical as described An Axiomatic Approach to Physics and Introduction to Quantum-Geometry Dynamics, then there predictable consequences.
So my first question is: How is the Universe expanding? It would seem that *new* space would have to be added or some process creates new space.
If space is discrete as I described, the quantum of space, preons(-), must obey the law of conservation and therefore exist in a large but finite numbers. So if the universe is expanding than new preons(-) would need to somehow come into existence. But that is forbidden by the axiom set from which I develop QGD.
So it would appear at first glance that the idea of quantum-geometrical space and observations do not fit. In actuality, QGD fits the data from observations that support an expanding universe but it does agree with the theoretical interpretation of the data.
The notion that the universe is expanding is based on the classic interpretation of the redshift and blueshift effects, but if QGD is correct and redshift and blueshift effects are dependent on the stage of evolution of the photon sources.
This is explained in my article titled Mapping the Universe which you can read at
http://www.quantumgeometrydynamics.com/ ... -universe/My second question concerns the Euclidean nature of your theory. Spacetime near a massive object induces a curve in the trajectory of anything within its influence. The conventional explanation is non Euclidean geometry.
QGD considers time to be non-physical so it excludes the idea of space-time. Also, though it proposes that space plays a dynamic role in the effect we call gravity (which role is embedded in the equation for gravity), space remains Euclidean. This means that the geodesics of general relativity would be trajectory paths as they are affected by gravity (see laws of motion in An Axiomatic Approach to Physics).
That said, QGD, if correct, must explain observations that support predictions of special and general relativity. An Axiomatic Approach to Physics shows how key predictions of general relativity are derived naturally from the axiom set of QGD yet allow for predictions that are unique to QGD. One question often asked is how does then QGD explain the decay of orbits of binary systems which support general relativity prediction of the existence of gravitational waves? If interested, you’ll find the explanation at
http://www.quantumgeometrydynamics.com/ ... y-systems/And if you are interested in the cosmology derived from QGD's axiom set see
http://www.quantumgeometrydynamics.com/ ... -dynamics/Of course, QGD is very new and needs to be put to the test. My hope is that astronomers and astrophysicists use QGD’s equations in their calculations to interpret existing data and make predictions or test some of the predictions I already made.
Thanks for the excellent and relevant questions.
[quote]I notice you say space has a quantum nature. [/quote]
I don’t know if space quantum in nature. What I’m trying to do is explore the consequences of it being so. If space is quantum, more specifically quantum-geometrical as described An Axiomatic Approach to Physics and Introduction to Quantum-Geometry Dynamics, then there predictable consequences.
[quote]So my first question is: How is the Universe expanding? It would seem that *new* space would have to be added or some process creates new space.[/quote]
If space is discrete as I described, the quantum of space, preons(-), must obey the law of conservation and therefore exist in a large but finite numbers. So if the universe is expanding than new preons(-) would need to somehow come into existence. But that is forbidden by the axiom set from which I develop QGD.
So it would appear at first glance that the idea of quantum-geometrical space and observations do not fit. In actuality, QGD fits the data from observations that support an expanding universe but it does agree with the theoretical interpretation of the data.
The notion that the universe is expanding is based on the classic interpretation of the redshift and blueshift effects, but if QGD is correct and redshift and blueshift effects are dependent on the stage of evolution of the photon sources.
This is explained in my article titled Mapping the Universe which you can read at
http://www.quantumgeometrydynamics.com/blog/mapping-the-universe/
[quote]My second question concerns the Euclidean nature of your theory. Spacetime near a massive object induces a curve in the trajectory of anything within its influence. The conventional explanation is non Euclidean geometry.[/quote]
QGD considers time to be non-physical so it excludes the idea of space-time. Also, though it proposes that space plays a dynamic role in the effect we call gravity (which role is embedded in the equation for gravity), space remains Euclidean. This means that the geodesics of general relativity would be trajectory paths as they are affected by gravity (see laws of motion in An Axiomatic Approach to Physics).
That said, QGD, if correct, must explain observations that support predictions of special and general relativity. An Axiomatic Approach to Physics shows how key predictions of general relativity are derived naturally from the axiom set of QGD yet allow for predictions that are unique to QGD. One question often asked is how does then QGD explain the decay of orbits of binary systems which support general relativity prediction of the existence of gravitational waves? If interested, you’ll find the explanation at
http://www.quantumgeometrydynamics.com/blog/how-does-qgd-explain-the-orbital-decay-of-binary-systems/
And if you are interested in the cosmology derived from QGD's axiom set see
http://www.quantumgeometrydynamics.com/blog/cosmology-derived-from-quantum-geometry-dynamics/
Of course, QGD is very new and needs to be put to the test. My hope is that astronomers and astrophysicists use QGD’s equations in their calculations to interpret existing data and make predictions or test some of the predictions I already made.
Thanks for the excellent and relevant questions.