What to do if Savch Inverter shows a short circuit fault?
A short circuit fault in the Savch Inverter can occur if acceleration is too fast; increase the acceleration time. It may also be caused by internal damage to the IGBT, in which case you should seek support. Check for strong interference sources from peripheral equipment or ensure the grounding is properly connected.
Why is there overcurrent during acceleration in my Savch S3100A Inverter?
If your Savch Inverter experiences overcurrent during acceleration, the acceleration time may be too short, so increase it. Check the input power voltage and ensure it's adequate. The inverter's power rating might be too low; select one with a higher power. For vector control, perform parameter self-learning. Adjust manual lifting torque or the V/f curve if they're unsuitable. If the motor is rotating when starting, use speed tracking or start after the motor stops. Also, check for and eliminate any short circuits in the inverter output circuit.
What causes overcurrent at constant speed in Savch S3100A Inverter?
If your Savch Inverter shows overcurrent at a constant speed, check for abrupt or abnormal load changes and reduce them. Ensure the input power voltage is sufficient. The inverter's power may be too small, so choose a higher-powered model. Perform parameter self-learning if using vector control. Also, inspect the inverter output circuit for any short circuits and eliminate any peripheral faults.
How to fix overcurrent during deceleration with Savch Inverter?
If your Savch Inverter displays overcurrent during deceleration, increase the deceleration time. If there is large load inertia torque, add appropriate energy consumption brake components. The inverter's power may be insufficient; select a frequency converter with a higher power. If using vector control, perform parameter self-learning. Also, check for any short circuits in the inverter output circuit and eliminate peripheral faults.
What to do if Savch S3100A is overloaded?
If the Savch Inverter is overloaded, the acceleration might be too rapid, so increase the acceleration time. Avoid restarting the rotating motor after a shutdown. Check the input power voltage to ensure it is adequate. The load may be too large, so select an inverter with a higher power rating.
How to troubleshoot module overheat in Savch Inverter?
If the Savch Inverter module overheats, refer to overcurrent countermeasures if the inverter experiences overcurrent. Rewire if the output three phases have interphase or ground short circuits. Clear blocked air ducts or replace damaged fans. Reduce the ambient temperature if it's too high. Check and reconnect loose connections of the control board or plug-ins. For a damaged auxiliary power supply or abnormal control board, seek service.
Why is my Savch S3100A Inverter showing overvoltage during deceleration?
If your Savch Inverter experiences overvoltage during deceleration, increase the deceleration time. If there is large load inertia, increase energy consumption brake components. Check the input power to ensure it's within the correct range.
How to resolve motor overload on a Savch Inverter?
If the Savch Inverter indicates a motor overload, check the input power voltage. Ensure the motor's rated current is set correctly by resetting it. Inspect the load; if the motor is blocked or the load mutation is too large, adjust the torque boost. If the motor is overloaded, choose the right motor.
What causes overvoltage during acceleration in a Savch Inverter?
If your Savch Inverter shows overvoltage during acceleration, check the input power for any abnormalities. Avoid restarting the rotating motor after a momentary power failure; allow it to stop first.
What to do for BUS undervoltage on Savch S3100A Inverter?
If the Savch Inverter shows a BUS undervoltage error, check the input power supply voltage. In case of an instant power outage, reset the fault. If the circuit board is abnormal, seek service.
Explains symbols like DANGER and CAUTION for safe operation and maintenance.
Outlines checks to perform after receiving the inverter, ensuring package contents and condition.
Provides critical safety precautions for wiring, installation, and operation of the inverter.
Details environmental conditions to avoid for proper inverter performance and longevity.
Lists recommended environmental conditions for optimal inverter function and lifespan.
Explains the naming convention and specifications for different inverter models.
Provides detailed technical specifications for the inverter series, including output and input data.
Lists standard specifications for 220V single/three-phase series inverters.
Details general technical specifications, control, and operation characteristics.
Illustrates the main and control circuit wiring for AC motor drive connections.
Provides dimensional data and figures for various inverter models and keypad sizes.
Lists inverter physical dimensions (W, W1, W2, H, H1, D, M, N) by model.
Shows detailed diagrams of inverter external dimensions for different sizes.
Describes external dimensions and installation for small and large power keypads.
Explains the layout and functions of the digital operator's keyboard and display.
Details how to operate the keypad for parameter setting, failure resetting, and other functions.
Guides users through the three-level menu for setting inverter parameters.
Lists and describes basic function parameters like command source and frequency selection.
Covers parameters related to motor control, including modes and self-learning.
Details parameters specific to vector control mode, focusing on speed loop and torque settings.
Explains parameters for V/f control, including curve settings and voltage/frequency adjustments.
Describes the configuration and functions of various input terminals.
Covers parameters for multi-speed and simple PLC operation modes.
Details the functions and configurations of the inverter's output terminals.
Explains parameters related to starting, stopping, braking, and acceleration/deceleration modes.
Covers parameters related to the display, keys, and user interface.
Details parameters for jog operation, jump frequency, and other accessibility features.
Describes parameters for PID control, including source, feedback, and tuning settings.
Lists parameters for fault detection, protection settings, and automatic reset functions.
Details parameters for serial communication setup, including address, baud rate, and data format.
Explains parameters for wobble frequency and jump frequency functions.
Covers parameter modification properties, allowing read-only or read/write access.
Details parameters for torque control, including method selection and settings.
Covers parameters for optimizing inverter performance, such as PWM depth and current limit.
Lists parameters for monitoring inverter status like frequency, voltage, and current.
Lists common faults, their possible reasons, and corrective measures.
Provides a general method for troubleshooting common motor and inverter issues.
Guides on selecting appropriate braking resistors based on application and motor parameters.
Lists recommended specifications for breakers, cables, and contactors based on model.
Provides recommendations for input/output AC reactors and DC reactors by model.
Lists recommended input and output filters for each inverter model.
General| AC Frequency | 50Hz / 60Hz |
|---|---|
| Output Waveform | Pure Sine Wave |
| Rated Power | 3000W |
| DC Voltage | 48V |
| AC Voltage | 230VAC |
| Output Voltage | 220V/230V/240V |
| Continuous Power | 3000W |
| Peak Power | 6000W |
| Cooling | Fan Cooling |
| Protection Features | Overload, Short Circuit, Over Voltage, Under Voltage, Over Temperature |
| Operating Temperature | -10°C to +50°C |
To Next Page
