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Introduction:
Ultrasonic milling is achieved by using the end face of the tool to
vibrate ultrasonically, so that the suspended abrasive particles in
the working fluid mechanically impact and polish the workpiece
surface, as well as cavitation. The ultrasonic processing equipment
is an ultrasonic processing machine. It consists of an ultrasonic
generator, an ultrasonic vibration system, a machine body
(including a working head, a pressurizing mechanism and a working
feed mechanism, a workbench, etc.), a working fluid and a
circulation system, a transducer, and a cooling system. System and
other major components.
The principle of ultrasonic processing is shown in Figure 13-4. The
ultrasonic generator 7 converts power frequency AC electrical
energy into ultrasonic power electrical vibration with a certain
power output. The ultrasonic transducer 6 converts the electrical
vibration into ultrasonic mechanical vibration of the same
frequency and perpendicular to the surface of the workpiece. mm,
and then pass through the horns 4, 5 so that the front end
amplitude is enlarged to 0.01-0.15 mm, and the end face of the tool
1 is driven for ultrasonic vibration. Under the ultrasonic
vibration of the tool 1 and a certain pressure, the abrasive
suspension continuously impacts the processing area of the
workpiece 2 at high speed, which causes the abrasive to polish the
surface of the workpiece at high speed. Due to the cavitation
phenomenon caused by ultrasonic vibration, a liquid impact is
formed on the workpiece surface, which strengthens The mechanical
polishing of the workpiece material is beneficial to the uniform
stirring of the working fluid in the processing area and the
elimination of processing products. As the working fluid is
continuously circulated, the abrasive particles are continuously
updated, and the processed products are continuously eliminated,
that is, the purpose of ultrasonic processing is achieved.
Advantages of Ultrasonic Vibration Cutting
1. Small cutting force, about 1/3-1/10 of the cutting force of ordinary tools.
2. High processing accuracy.
3. The cutting temperature is low, and the workpiece remains at room temperature.
4. No built-up edge, small deformation of workpiece, no burr.
5. Low roughness, which can approach the theoretical roughness value.
6. The "stiffening" of the machined part means that the rigidity of the workpiece is higher than that of ordinary cutting.
7. The milling process is stable and effectively eliminates chatter.
8. Cooling of the cutting fluid and improved lubrication.
9. The durability of the tool is increased several times to several tens times.
10. The surface of the workpiece is under compressive stress, and the wear resistance and corrosion resistance are improved.
11. The surface of the workpiece after cutting shows a rainbow effect.