quantum_wave, I see you are still laboring on this hobby of yours. I read through the thread and thought I would point out a couple things. Gravity is not an energy it is a force. You seem to be conflating energy and force. Also your theory seems to not include any notion of conservation of energy and your ideas of quantum seem completely off the mark. If a particle is giving off out-going wave energy and taking in in-going wave energy, then there is no guarantee that those will balance. In fact it is very unlikely they would. There would be cases where the energy would build up to unimaginable levels or completely drain away (or maybe they go negative in your theory). You only need to consider the case where a particle is alone in the universe where it would have to give off an infinite amount of energy, or at least a huge amount until it decayed. And in the case where the particle is at the center of a shell of dense matter, if it could stay in equilibrium then it would be taking in vast amount more energy than it gives off. Unless there is some mechanism where energy inflow and outflow are variable, in which case all kinds of strange behavior would occur.
Yes, still at it.
The premise is that everything is wave energy, ... everything ... every point in space contains wave energy. If you want to help, refute that misconception on my part. Just say I'm wrong, you don't have to prove it by saying there is actually any solid particle or object out there. You don't have to say there is actually a perfect vacuum anywhere, just say you think there is something that is not composed of wave energy, and maybe suggest what that something is, and I will have something to go on.
Energy and force are inseparably connected. The premise is that there are two opposing forces and every event has elements of each. They are the force of energy density equalization that is responsible for expansion of wave energy density, and there is the force of gravity which is responsible for contraction and containment of wave energy into particles and objects from the tiny energy quanta that make up particles, to big crunches that precede big bangs.
The notion of energy conservation is that all events are wave energy phenomena at a foundational level. Every event uses existing wave energy and every quantum of energy is accounted for. The quantum of energy is the smallest meaningful amount of energy that can participate in any event. There are smaller waves, but until they aggregate into quantum waves they are not meaningful, except that they occupy space at the foundational level.
The imbalance between inflowing and out flowing wave energy is translated to motion. Particles move in the direction of the net highest wave energy density inflow; all out flow is characterized as spherical.
You read the thread and I'm proud of you, but you don't have the proper conception of the limits and thresholds of wave energy density in nature. I do say that energy does build up to an almost unimaginable level, the common big crunch in my so called model. Nature lets particles and wave energy accumulate until nature's maximum wave energy density is reached at the core of a big crunch, and then the gravitational pressure causes all of the particles in the crunch to fail to maintain their own particle space. They give up that space, collapse into each others space, which is the "big bang" event.
That event is the ultimate example of gravitational force.
The ultimate example of the force of wave energy density equalization begins as the particles in the crunch are negated into their wave energy, all compressed into ... wait for it, lol ... dense dark energy. The dense dark energy "ball" finds itself surrounded by the opposite extreme of wave energy density, i.e. the low energy density space formerly occupied by the crunch and by parent big bang arenas that converged to cause the crunch. Those circumstances are the ultimate opportunity for the force of energy density equalization; the dense dark energy emerges from the compressed "ball" and inflates or expands right back out into the relatively empty space surrounding it.
The last few sentences of your arguments remind me of Newton's bucket. In my so called model, if Newton's bucket of water was spinning out there in distant empty space, unaffected by the gravity of the so distant objects, it would be a good demonstration of a bucket of water experiencing the big rip. However, since there is no such empty space in my so called model, the bucket and water are quite stable, and the water would climb the sides.
Let me leave you with the premise that there are three infinities invoked in my so called model: Space, time, and energy. The model won't work without them. If you can't make it over the "infinities" hurdles, you should just ignore the model. It would be gentlemanly of you to just stop the wise cracks in my threads that tend to discourage any unsuspecting victims who might otherwise be willing to question me and listen to my defense.
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