This invention relates to an integrated
system for warp printing and weaving, comprising a physical execution subsystem and an integrated control subsystem. The physical execution subsystem, along the warp running direction, includes, in sequence, a warp beam, a back reed, a guide roller, a back telescopic reed, a printing main unit, a front telescopic reed, a trailing roller, a width-fixing reed, a warp feed beam, and a loom main unit. The loom main unit integrates a gas-spring linked back beam, an adjustable temperature full-width side support, and a take-up roller. The integrated control subsystem includes a
data integration module and a
control integration module. The former incorporates a
reverse mapping compensation algorithm for printing and weaving, pre-deforming the pattern based on the weaving
shrinkage rate; the latter uses the loom take-up roller as the main command to coordinate and control the rotational speeds of the guide roller, trailing roller, and warp feed beam, achieving tension decoupling and speed matching throughout the entire process. This invention, through
deep integration of hardware
layout and
intelligent control, solves the problems of speed matching, pattern deformation, and tension interference between printing and weaving, realizing
fully automated continuous production from pattern design to woven finished products.