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Loading...What to do if Parker Controller motor is running unstable?
If your motor is running unstable with the Parker Controller, it could be due to: * Too big load? Reduce load. * Too big with load change? Reduce load change, increase capacity. * Phase loss? Correct wiring. * Motor malfunction.
How to resolve 'Flycatching Fault' on Parker AC10?
To resolve a 'Flycatching Fault' on your Parker Controller, try tracking again. If the issue persists, contact manufacturer.
What to do if Parker AC10 shows Current Malfunction Before Running?
If your Parker Controller shows a 'Current Malfunction Before Running', it means a current alarm signal exists before running. Check if the control board is properly connected to the power board.
What causes a 'Parameters Tuning Wrong' error on a Parker AC10 Controller?
A 'Parameters Tuning Wrong' error on your Parker Controller indicates that incorrect motor parameters have been entered. Connect the motor correctly.
What to do if Parker AC10 Controller shows Current Zero Excursion Malfunction?
If your Parker Controller shows a 'Current Zero Excursion Malfunction', check the flat cable. If the issue persists, contact Parker.
What should I do if my Parker AC10 Controller shows DC Over-Voltage?
If your Parker Controller displays a DC Over-Voltage error, consider the following potential causes and solutions: 1. Supply voltage too high: Check if the rated voltage is input. 2. Load inertia too big: Add braking resistance (optional). 3. Deceleration time too short: Increase deceleration time. 4. Motor inertia rise again: Set the parameter of rotary speed loop PID correctly. 5. Parameter of speed loop PID is set abnormally: Set the parameter of rotary speed loop PID correctly.
What causes a Parker Controller to display 'Motor Overload'?
A 'Motor Overload' message on your Parker Controller typically indicates that the load is too heavy. You should reduce the load, check the drive ratio, or increase the motor’s capacity.
What to do if my Parker Controller displays 'Inverter Overload'?
If your Parker Controller is showing an inverter overload, it could be due to a load that is too heavy. Try to reduce the load, check the drive ratio, or increase the inverter’s capacity.
General| Overload Capacity | 150% for 60 seconds |
|---|---|
| Analog Inputs | 2 |
| Analog Outputs | 1 |
| Communication Options | Modbus RTU |
| Protection Rating | IP20 |
| Input Voltage | 200-240VAC, 380-480VAC, 500-575VAC, 600VAC, 690VAC |
| Digital Outputs | 2 |
| Protection | Overcurrent, Overvoltage, Undervoltage, Overtemperature, Short Circuit |
| Operating Temperature | -10°C to +50°C |
| Humidity | 5% to 95% (non-condensing) |
| Dimensions | Varies by model |
| Weight | Varies by model |
| Braking | Built-in dynamic braking |
Important precautions to take before and during equipment installation.
Explains how to set and modify inverter parameters using the keypad.
Guidelines for vertical installation and required clearance dimensions.
Instructions for connecting power supply, motor, and grounding terminals.
Detailed description of each control terminal and its function.
Techniques for reducing electromagnetic interference (EMI) and noise.
Explains how to use the keypad for parameter setting, monitoring, and control.
Covers fundamental parameters like password, rated current, power, and control mode.
Parameters related to start/stop commands, direction setting, and frequency sources.
Configuration of digital and analog I/O terminals for various functions.
Parameters for configuring analog input channels and output signals.
Parameters for overload protection, fault detection, and system protection.
Crucial parameters for motor identification, tuning, and performance optimization.
Settings for Modbus communication, including address, mode, and baud rate.
Parameters for configuring the Proportional-Integral-Derivative control loop.
Lists common fault codes, their causes, and possible solutions for the inverter.
Provides guidance on diagnosing and resolving motor-related malfunctions.
Information on electromagnetic compatibility and potential radio interference.
Parameters related to start/stop commands, direction setting, and frequency sources.
Configuration of digital and analog I/O terminals for various functions.
Parameters for timing control and system protection features.
Crucial parameters for motor identification, tuning, and performance optimization.
