Loom Driving Control Device Reduces Main-Shaft Load

The patent applies dynamics by making the rotational speed profile adjustable and adaptable to different weaving conditions. The control device allows selection between different acceleration patterns (first pattern with higher acceleration, second pattern with lower acceleration), enabling the system to dynamically adjust its behavior based on real-time conditions rather than following a fixed speed curve.

The patent changes the parameter of rotational speed acceleration profile from a fixed pattern to a selectable pattern. By allowing the operator to choose between different acceleration patterns based on weaving conditions, the system can optimize between start-up time and load application, effectively managing the contradiction through parameter variation.

The system dynamically adjusts the acceleration pattern based on weaving conditions. When high set rotational speed is required, the operator can select the second acceleration pattern which provides lower acceleration, thereby protecting the main-shaft driving device from excessive load while still achieving the desired high speed operation.

The patent allows changing the acceleration parameter from the first pattern to the second pattern based on the set rotational speed and weaving conditions. This parameter change enables the system to maintain reliability by reducing acceleration stress when operating at high speeds.

The patent applies dynamics by allowing the acceleration pattern to be adjusted according to the specific weaving configuration. When large numbers of frames or high forces are required, the second acceleration pattern can be selected to reduce start-up load, while still achieving the required weaving precision once operational speed is reached.

The system allows parameter change of the acceleration profile to match the mechanical demands of the shedding device. For configurations requiring large forces, the lower acceleration second pattern reduces the peak load during start-up while maintaining the ability to achieve precise weaving at operating speed.

The patent resolves this contradiction by allowing dynamic selection between acceleration patterns. The first acceleration pattern provides faster acceleration that prevents weaving bars by ensuring sufficient beating force, while the second pattern provides lower acceleration that reduces load. The operator can select the appropriate pattern based on the specific weaving conditions and fabric requirements.

The system changes the acceleration parameter to match the specific weaving conditions. When there is a risk of weaving bars, the first acceleration pattern is selected to ensure sufficient beating force. When load reduction is the priority and fabric quality is less sensitive, the second pattern is used.

The patent applies dynamics by allowing the acceleration pattern to be adjusted based on the specific weaving conditions. When sufficient beating force is critical to prevent light filling bars, the first acceleration pattern is selected. When load reduction is the priority and the fabric is less sensitive to beating force variations, the second pattern is used.

The system changes the acceleration parameter to balance load reduction with sufficient beating force. The first acceleration pattern provides higher acceleration that ensures adequate beating force for sensitive fabrics, while the second pattern provides lower acceleration for less sensitive applications.