PSI Blog
20150701
Another great question by Luis:
“I'm still not clear on just why matter requires
motion. I get why motion requires matter (since for movement to take place, there
needs to be something that is moving), but could we not conceive of a
motionless chunk of motion (even if such a thing is not possible in reality,
given that it would be effected by its environment)?”
[GB: Luis, I will assume that you meant “a motionless
chunk of matter” instead, as there are no “motionless chunks of motion.” Matter
(microcosms) requires motion because it must be able to withstand the impacts
from external supermicrocosms to exist. As an example, a balloon must be filled
with a gas (submicrocosms in motion) to withstand the impacts of the
surrounding atmosphere. If these submicrocosms were not in motion, they would
be compliant and would be compressed together so much that the balloon would
collapse and cease to exist as a balloon. In another example, remember that all
microcosms have mass, which is defined as the resistance to acceleration. This
resistance is provided by submicrocosms that impact the insides of the
microcosmic wall, giving it shape as well. These impacts have momenta, P=mv,
without which they could not counteract the momenta of the supermicrocosms that
collide with the outside walls of the microcosm. In essence, microcosms require
univironmental interactions for them to form and to exist. Remember, microcosms
are assemblages of their various submicrocosms that came together via
convergence and eventually will come apart via divergence per the Sixth
Assumption of Science, complementarity (All things are
subject to divergence and convergence from other things).
The necessity for submicrocosms to be in constant
motion is what makes Finite Particle Theory hopeless speculation. Neomechanics
assumes that matter always contains other matter in motion. The neomechanical
explanation of the E=mc2 equation
maintains that the motion of submicrocosms is transmitted across the
microcosmic wall via collisions with supermicrocosms. When the supermicrocosms
involved are aether particles, that motion is transmitted at the speed of
light. The E=mc2 calculation
applies to all microcosms regardless of size. Hypothesized finite particles do
not have submicrocosms, so finite particles would have to be bizarre
exceptions. Remember also that perfectly solid matter cannot exist—it is simply
the ideal end member of the solid matter-empty space continuum. These end
members are only ideas. They help us to understand real things—microcosms—that do
exist. On the other hand, indeterminists sometimes suggest that ideal solid
matter and perfectly empty space are real possibilities. That conjecture is
based on absolutism, the indeterministic opposite of the Ninth Assumption of Science, relativism
(All things have characteristics that make them similar to all other things as well as characteristics that make them
dissimilar to all other things).]
1 comment:
Luis,
Time is motion. Time is relative. Without motion no time.
There is no absolute time in an infinite universe. No place to measure from.
My UPR universal point of reference would take care of that. A space station between 3 galaxies would be the "official" center of space. It would measure the time of objects as they move. It that way Einstein's paradoxes would be gone. It is really the SOL and the velocity of the object taken together that count. Only from my UPR would we measure correctly.
There would be no problem of twins both getting younger and things like that.
Motion is absolutely fundamental to physics.
Imagine a frozen Universe with no motion. There would be no time. THEN the immaterialists might have something, but not in the real world.
BTW you are correct. Motion is more fundamental than matter. Motion in the form of oscillations between matter and anti-matter create a field that everything we are aware of exists in.
Bligh Theory.
George
Post a Comment