- #1
Metallicbeing
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Hypothesis has been condensed. Please jump to post #15, Thanks.
In our universe, matter “apparently” attracts more matter. In fact, “gravity” is the name chosen for that exact effect. Gravity is the least understood of all the forces. It’s the only force that always seems to be attractive. Why is that? I couldn’t possibly know why for sure, but I do have an idea that I’d like to share.
Suppose that there is a parallel universe to our own where, instead of matter, there is mainly antimatter. Wherever there is matter that occupies space in our universe, there is antimatter that occupies the same space in the antimatter universe (we overlap each other). The “barrier” that separates matter and antimatter might be space-time or perhaps Zero Point Energy.
Matter and antimatter are mutually attracted to each other from across the barrier, which "squeezes" the barrier, resulting in an increase in attraction (gravity well). At some point the energy exerted by the “squeeze”, and the barrier energy required to resist the collapse of the barrier will finally equalize.
Other matter in the area (on both sides), have a gravity well of their own. They start to move towards each other in order to merge, further weakening the barrier, and increasing mutual attraction. If the cycle were to continue to the point where mass on both sides finally overcame the total energy density of the barrier (which would be the grand-daddy of all black holes), matter and antimatter would meet, and a Big Bang would occur.
I know, this is full of assumptions, but it is an interesting concept (to me anyway). In summary, mutual attraction across the barrier squeezes the barrier causing matter and antimatter on each plane to "gravitate" towards the weak spots in the barrier. This "gravitation" that we observe in our universe is what we perceive as gravity. In actuality, “gravity” is matter’s attraction to antimatter (sort of like an extra-dimensional cosmic magnet…. or not).
Anyway, tell me what you think. Please don’t tell me that I’ve “re-invented the wheel”. :surprise:
In our universe, matter “apparently” attracts more matter. In fact, “gravity” is the name chosen for that exact effect. Gravity is the least understood of all the forces. It’s the only force that always seems to be attractive. Why is that? I couldn’t possibly know why for sure, but I do have an idea that I’d like to share.
Suppose that there is a parallel universe to our own where, instead of matter, there is mainly antimatter. Wherever there is matter that occupies space in our universe, there is antimatter that occupies the same space in the antimatter universe (we overlap each other). The “barrier” that separates matter and antimatter might be space-time or perhaps Zero Point Energy.
Matter and antimatter are mutually attracted to each other from across the barrier, which "squeezes" the barrier, resulting in an increase in attraction (gravity well). At some point the energy exerted by the “squeeze”, and the barrier energy required to resist the collapse of the barrier will finally equalize.
Other matter in the area (on both sides), have a gravity well of their own. They start to move towards each other in order to merge, further weakening the barrier, and increasing mutual attraction. If the cycle were to continue to the point where mass on both sides finally overcame the total energy density of the barrier (which would be the grand-daddy of all black holes), matter and antimatter would meet, and a Big Bang would occur.
I know, this is full of assumptions, but it is an interesting concept (to me anyway). In summary, mutual attraction across the barrier squeezes the barrier causing matter and antimatter on each plane to "gravitate" towards the weak spots in the barrier. This "gravitation" that we observe in our universe is what we perceive as gravity. In actuality, “gravity” is matter’s attraction to antimatter (sort of like an extra-dimensional cosmic magnet…. or not).
Anyway, tell me what you think. Please don’t tell me that I’ve “re-invented the wheel”. :surprise:
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