The swing screen is an innovative low-speed vibration screening machine that has gained popularity recently. It offers great convenience for performing screening tasks with large capacity and high density. The swing screen model mimics the natural hand screening motion and process, creating a three-dimensional circular movement. This cleverly combines plane circular motion with upward parabolic motion and upper throwing motion, resulting in high screening accuracy, efficiency, output, and a longer service life compared to ordinary vibrating screens (5-10 times longer).
The swing screen is ideal for a wide range of fine and ultra-fine particle materials, making it particularly suitable for materials that are challenging to handle. Additionally, it offers the flexibility to independently adjust the speed, eccentricity, and radial force, allowing for customization of material movement on the screen surface. This capability ensures that the swing screen can cater to different material characteristics and specific screening requirements set by customers, resulting in optimal screening effectiveness.
The swing screen operates with a rotary motion, similar to manual screening. It allows for adjustment of the eccentricity within the range of 25 to 40 mm. Additionally, the low-speed V-belt drive can be adjusted between 120 to 360 rpm. The high-precision vibrating screen offers the ability to adjust the residence time of each product by modifying the radial and chamfering aspects towards the drive shaft. This allows for the creation of a level and throws a 3D flip action. By reorganizing the given information, we can emphasize the adjustable features and the resulting motion of the swing screen. Please note that the generated content will be based on the original text information and will take a different approach from ChapGPT's conversation style.
The screening process of evenly distributing material on the entire screen surface begins from the center line and extends outward through the spiral motion. With this movement, particle acceleration increases both horizontally and vertically, allowing smaller particles to complete the screening process successfully while larger particles are guided to the outlet by an adjustable guide device. The residence time of the material is also determined by this device, effectively controlling the screening process. This process is repeated for each sieve layer, allowing for a complete and efficient screening result.