Vibrating voice coil motors can achieve flexible vibration feeding by adjusting their working parameters and designing suitable mechanical structures. The following are some methods and steps to describe how to achieve flexible vibration feeding using vibration voice coil motors:
1. Determine the operating frequency and amplitude: First of all, we need to determine the suitable operating frequency and amplitude for flexible vibration feeding. These parameters will affect the nature and effect of the vibration.
2. Mechanical structure design: According to the application requirements, design a suitable mechanical structure to connect the vibrating voice coil motor to the object or component to be fed. The mechanical structure may include a support frame, a vibration platform, a guide track, etc.
3. Installing a vibrating voice coil motor: Install the vibrating voice coil motor on a mechanical structure to ensure it produces the desired vibration effect. Usually, the vibration axis of the vibration voice coil motor corresponds to the desired vibration direction.
4. Adjust motor parameters: Adjust the operating parameters of the vibrating voice coil motor, such as current, frequency, and amplitude, based on the requirements of flexible vibration feeding. These parameters will directly affect the characteristics of vibration.
5. Feedback Control: With the help of sensors or feedback control systems, the vibration during the feeding process is monitored in real time. Adjust the parameters of the vibrating voice coil motor based on the feedback information to achieve precise flexible vibration feeding.
6. Running tests: Test and debug during actual operation. Gradually adjust the parameters of the vibrating voice coil motor to optimize the effect of flexible vibration feeding.
7. Adapting to different objects: If objects of different types or sizes need to be fed, it may be necessary to adjust the mechanical structure and vibration parameters to accommodate differe workpieces.
8. Optimizing the vibration mode: Optimizing the vibration mode according to actual application requirements to ensure that flexible vibration feeding can achieve precise positioning, transmission, and handling.
9. Safety Considerations: Safety should be considered during the design and operation process to prevent objects from slipping, falling off the vibration platform, or causing other unexpected situations.
Application:
The flexible vibration voice coil motor has short response time, high vibration frequency, good induction and stability. The vibration motor is designed to produce strong, high-frequency vibration. These motors are designed to provide reliable, efficient and low current operation, making them ideal for applications such as vibrating screens, vibrating conveyors, vibrating feeders, vibrating machinery, medical and automotive and other industrial equipment. They are also ideal for applications with high power and high vibration requirements, such as in Precision Machining and assembly operations. They can be used in a variety of applications including vibration motors, flexible vibration coil motors, vibration actuator motors, and our vibration motor design to provide reliable and long-lasting performance.
Technical Parameters:
Winding constant
| VALUE
| UNIT
|
| DC resistance | 10.2 | Ω |
Voltage @ Fp
| 25.9 | V |
Current @ Fp
| 2.6 | A |
Inductance
| 1.3 | mH |
Peak force
| 20.5 | N |
Con force
| 8.9 | N |
Actuator constant
| 2.55 | Ka |
Power @ Fp
| 65.3 | W |
Total stroke
| 3 | mm |
Max winding temp
| 150 | ºC |
Actuator weight
| 110 | g |
