All natural entities constitute different proportions of kinematic and free states.
Time plays a crucial role in the expansion of free states.
The kinematic state binds the natural process to causal evolvement according to the laws of motion, whereas the free state induces a non-causal motion oriented to produce an effect.
The free state attempted effect is to reduce the kinematic state range, which means the expansion of free motion effect on the particle system.
Hence, in accordance with the kinematic state reference, the free state generates a selected motion pattern out of many alternatives potentially fitting to produce the preferable effect on the system kinematics.
Free state confinement to statistical distribution, which depends on the conditions of the conjugate kinematic state, is associated with the counter-effect tendency of particles to resist free state motion.
Under conditions adverse to free state effect expansion, the statistical distribution of the free state and the statistical average (kinematic state) are reduced to values obeying the probabilistic predictions of quantum mathematics.
Kinematic system tendency of intensifying resistance to free state motion over larger dimensions is expressed in the mathematical formulation of the principle of indeterminacy.
The relatedness of the free state to the kinematic motion has a limited and variable effect on the generation of free motion since the generated patterns are freely selected out of many potentially effect-fitting alternatives.
The simulation can serve as a preparatory tool for an actual experiment where two basic contradictory factors are to be reconciled--on the one hand, a certain initial level of kinematic complexity required for an observable cumulative free state effect; on the other, the precise measurement of molecular motion that is encumbered by the kinematic complexity.
Once a free state is characterized through experimentation, the nature of generated free patterns can be hypothesized.
The effectiveness of free state motion is a function of the following parameters: system size, number of particles, process duration, system complexity as well as kinematic periodicity, and moderation.
Free state cumulative expansion effect becomes more significant over longer process durations, more diverse systems, and moderate periodical motion.