1. Technical principle of precise counterweight balancing system
The sley of high-speed main knitting looms, as the core component of the weft beating mechanism, has a motion trajectory and speed stability that is directly related to whether the weft yarn can be evenly and accurately beaten into the warp yarn, thereby affecting the density and strength of the non-woven fabric. In order to further improve the stability and accuracy of the weft beating force, modern high-speed main knitting looms generally adopt a precisely calculated counterweight balancing system.
The system designs a reasonable counterweight scheme for the sley through precise mechanical calculations and simulation analysis. The counterweight block is usually installed at a specific position of the sley. By adjusting its mass and distribution, the motion trajectory and speed of the sley can be precisely controlled. During the beating process, the inertial force generated by the counterweight block can offset or balance the dynamic changes of the sley caused by beating, thereby ensuring that the sley can move at a constant speed along the predetermined trajectory.
2. Technical features of precise counterweight balancing system
High-precision calculation: The core of the precise counterweight balancing system lies in high-precision mechanical calculation. This requires in-depth analysis and simulation of the movement characteristics of the sley, the size and direction of the beating force, and the overall structure of the loom. Through advanced computing software, the mass and distribution of the counterweight can be accurately calculated to ensure the stability and accuracy of the system.
Dynamic balance: The counterweight balance system not only focuses on static balance, but also on dynamic balance. During the beating process, the sley will be subjected to complex forces from the warp and weft yarns, which will change continuously with the changes in weaving conditions. Therefore, the counterweight balance system needs to be able to adjust the position and number of counterweights in real time to adapt to this dynamic change and ensure that the sley is always in the best state of motion.
Intelligent control: Modern high-speed main knitting looms are usually equipped with an intelligent control system that can monitor the movement state of the sley and the size of the beating force in real time. Through linkage with the precise counterweight balance system, the control system can automatically adjust the position and number of counterweights to achieve precise control of the beating force. This intelligent control not only improves production efficiency, but also reduces operating difficulty and labor costs.
3. The impact of precise counterweight and balancing system on non-woven fabric production
Improve the density and strength of non-woven fabrics: The precise counterweight and balancing system can ensure that the sley maintains a stable motion trajectory and speed during the weft beating process, thereby ensuring that the weft yarn can be evenly beaten into the warp yarn. This uniform interwoven structure gives non-woven fabrics higher density and strength, and can meet the application needs of more fields.
Improve production efficiency: Since the precise counterweight and balancing system can reduce the vibration and deviation of the sley during movement, the incidence of weft breakage and downtime can be significantly reduced. This not only improves production efficiency, but also reduces production costs and maintenance costs.
Enhance product competitiveness: High-speed main knitting looms with precise counterweight and balancing systems can produce non-woven products with higher quality and more stable performance. These products not only have better physical properties and service life, but also can meet more diverse market needs. Therefore, these products are more competitive in the market.
Promote technological innovation: The application of precise counterweight and balancing systems not only improves the technical level of non-woven fabric production, but also promotes technological innovation in related fields. For example, by optimizing the design and algorithm of the counterweight balancing system, the operating efficiency and stability of the loom can be further improved; by combining with other intelligent technologies, a more efficient and intelligent non-woven fabric production process can be achieved.