Ultrasonic Leather Punching Machine

The ultrasonic leather punching machine is an advanced welding device that combines high-frequency ultrasonic vibration technology with welding processes, enabling fast and precise welding and cutting operations on various materials. Below is a detailed introduction to the high-power ultrasonic spot welding and punching machine:

I. Working Principle

The working principle of the ultrasonic leather punching machine is primarily based on high-frequency ultrasonic vibrations. The ultrasonic generator converts 50~60 Hz alternating current into high-frequency voltage, which is then supplied to the amplitude transformer. The amplitude transformer drives the upper pressure plate (secured by springs and nuts) to press down on the workpiece. When the upper and lower pressing forces reach a certain value, high-frequency impacts cause the two processed surfaces to rapidly melt and achieve metal bonding. Simultaneously, ultrasonic energy can be directly transmitted to the seam of the workpiece, generating instant high temperatures to complete the welding process.

II. Technical Features

1. High Efficiency and Speed: High-frequency ultrasonic vibrations enable rapid melting and bonding of welding surfaces, significantly improving welding efficiency.

2. High Welding Precision: Since ultrasonic welding is based on atomic-level bonding, the strength of the weld points is exceptionally high, and the deformation of the workpiece after welding is minimal.

3. Eco-Friendly and Pollution-Free: Ultrasonic welding does not require welding agents, produces no pollution to the processed materials, and emits no harmful gases, making it an environmentally friendly welding method.

4. Easy Operation: The equipment is simple to operate, requiring only minimal power input for welding, resulting in low energy consumption.

Excellent Stability: Ultrasonic welding offers a wide range of welding applications, and the welded workpieces exhibit high stability with clean, aesthetically pleasing, smooth, and flat surfaces.