Complex adaptive learning is intelligent and crucial in living and inanimate
complex systems. A complex system comprises many interacting individuals or
units, shows hidden patterns as they interact, and widely occurs in almost
every traditional discipline, from natural to social sciences. A recent study
has demonstrated a so-called architected material capable of learning. It
stimulates scientists to explore the mechanism of complex systems formulation.
However, it is very challenging. Here the authors attempt to extract a
universal rule or a law of complex adaptive learning subject to local dynamic
equilibrium in complex systems from a trading volume-price probability wave
equation and apply it to complex quantum systems as its application. It proves
particles capable of intelligence-like properties in interactive coherence if
the momentum force exerted on the complex quantum systems is non-localized. It
is the cumulative probability of the moving particles observed in a time
interval. Thus, it assumes that particles in complex quantum systems have a
complex adaptive learning- or intelligence-like property in a reinforced
coordinate, governed by the exact complex adaptive learning mechanism as that
of traders in the complexity of the financial markets. With this assumption,
the authors propose an innovative interpretation of entanglement in quantum
mechanics. It concludes that quantum entanglement is not a state of the
superposition of coherent states as the mainstream Copenhagen school of thought
maintains. It is a coherent state in the interaction between two opposite,
complementary, and variable forces. The authors look forward to the
experimental results to examine its validity and further improve the theory
until it is perfect, suggesting industrial production of entanglement resources
in new technical routes availableComment: 22 pages in total (double spaces and including a title page and a
popular summary), 2 figures, and 20 reference