The application relates to a calculation method and
system based on constrained network minimum action evolution, belonging to the
cross field of
computer science and
computational physics. The technical problem to be solved by the application is to overcome the limitation that the existing calculation paradigm completely depends on
instruction sequence execution. The technical solution of the application is as follows: receiving constraint
declaration information input by a user, including calculation element
declaration, partial order relation
declaration and action contribution item declaration; constructing an initial
coupling network and initializing
coupling strength according to a
chaotic rule; under the constraint of the partial order relation, optimizing the
coupling network through an
iterative search method, searching for a target
network configuration which makes the total action approach minimization; and performing coarse-grained observation on the target
network configuration and outputting an emergent result. The application breaks through the existing
Turing machine calculation paradigm, for the first time, takes the minimum action principle as the core driving force of calculation, replaces the
instruction sequence with the partial order relation as the sequential constraint of a program, makes the program automatically evolve into a
macro result from the constraint, realizes the fundamental innovation of the calculation paradigm, and can be applied to the fields of physical
simulation,
material design, cosmology research, new type of calculation hardware design and the like.