Abstract:As a pivotal industry supporting China's national economy and social development, the textile industry requires further advancement in terms of intelligence. Jet looms, as crucial weaving equipment in the textile industry, play an indispensable role. The jet loom control system, as a core component, has a decisive impact on the loom's performance and level of intelligence. To address the challenges of complex jet loom processes and high coupling of software modules, a control system development approach based on a quantum framework is proposed. This approach combines an event-driven quantum programming framework and the concept of activity-oriented objects, enabling layered design of the software part of the jet loom control system. It resolves the coupling issues between functional modules and reduces development complexity. The control system architecture employs a dual-core controller with ARM and field-programmable gate array (FPGA), and develops intelligent functionalities such as parameter optimization and safety monitoring. An experimental platform is built, and the major functional modules are tested, achieving 10 milliseconds of high-voltage opening and 150 milliseconds of low-voltage holding for electromagnetic valves, verifying the feasibility of the system design. This system has promising market prospects and provides valuable references for the design and development of jet loom control systems.