To Next PageTo Next PageWhy does my Mitsubishi Electric FR-D700 Inverter show a heatsink overheat error?
A heatsink overheat error on your Mitsubishi Electric Inverter indicates that the heatsink has become too hot. To fix this, ensure the surrounding air temperature is within the specified limits. Clean the heatsink and replace the cooling fan if necessary.
What does it mean when my Mitsubishi Electric FR-D700 shows a motor overload trip?
A motor overload trip on your Mitsubishi Electric Inverter means the electronic thermal relay function for motor protection has activated. Try reducing the load. If you're using a constant-torque motor, set the constant-torque motor in Pr. 71 Applied motor. Adjust the stall prevention operation level accordingly.
What does it mean when my Mitsubishi Electric FR-D700 shows an inverter overload trip?
An inverter overload trip on your Mitsubishi Electric Inverter means the electronic thermal relay function, which protects the inverter elements, has been activated. To resolve this, try increasing the acceleration/deceleration time, adjusting Pr. 0 Torque boost setting, setting Pr. 14 Load pattern selection appropriately, reducing the load, or ensuring the surrounding air temperature is within the specified limits.
What to do if my Mitsubishi Electric FR-D700 displays regenerative overvoltage trip during acceleration?
If your Mitsubishi Electric Inverter displays a regenerative overvoltage trip during acceleration, try shortening the acceleration time. Use the regeneration avoidance function (Pr. 882, Pr. 883, Pr. 885, Pr. 886). Ensure Pr.22 Stall prevention operation level is set correctly. Set Pr.154 Voltage reduction selection during stall prevention operation = '11'.
What to do if my Mitsubishi Electric FR-D700 Inverter displays regenerative overvoltage trip during constant speed?
If your Mitsubishi Electric Inverter displays a regenerative overvoltage trip during constant speed operation, ensure the load is stable. Utilize the regeneration avoidance function (Pr. 882, Pr. 883, Pr. 885, Pr. 886). Consider using a brake resistor, brake unit, or power regeneration common converter (FR-CV) if necessary. Ensure Pr.22 Stall prevention operation level is correctly set. Set Pr.154 Voltage reduction selection during stall prevention operation = '11'.
What to do if my Mitsubishi Electric FR-D700 Inverter displays regenerative overvoltage trip during deceleration or stop?
If your Mitsubishi Electric Inverter displays a regenerative overvoltage trip during deceleration or at a stop, try the following: Increase the deceleration time. Lengthen the brake cycle. Use the regeneration avoidance function (Pr. 882, Pr. 883, Pr. 885, Pr. 886). Use a brake resistor, brake unit, or power regeneration common converter (FR-CV) as needed. Set Pr.154 Voltage reduction selection during stall prevention operation = '11'.
What causes a stall prevention (overcurrent) on a Mitsubishi Electric Inverter and how to fix it?
The overcurrent stall prevention on your Mitsubishi Electric Inverter has been activated. To resolve this: * Increase or decrease the Pr. 0 Torque boost setting by 1% and check the motor status. * Set a larger value in Pr. 7 Acceleration time and Pr. 8 Deceleration time. * Reduce the load weight. * Try General-purpose magnetic flux vector control. * Adjust the Pr. 13 Starting frequency setting. * Change the Pr. 14 Load pattern selection setting. * Set the stall prevention operation current in Pr. 22 Stall prevention operation level.
Why does my Mitsubishi Electric Inverter show an undervoltage error?
An undervoltage error on your Mitsubishi Electric Inverter indicates that the voltage at the main circuit power supply has dropped. Investigate the devices on the power supply line, including the power supply unit itself, to find the cause.
What to do if my Mitsubishi Electric FR-D700 shows overcurrent trip during deceleration or stop?
If your Mitsubishi Electric Inverter shows an overcurrent trip during deceleration or at a stop, try these steps: Increase the deceleration time. Check the wiring, looking for output short circuits or ground faults. Verify that the mechanical brake isn't activating too early. Also, consider lowering the stall prevention operation level and activating the stall prevention operation and the fast-response current limit operation (Pr.156).
What to do if my Mitsubishi Electric Inverter shows overcurrent trip during acceleration?
If your Mitsubishi Electric Inverter is showing an overcurrent trip during acceleration, try the following: Set a longer acceleration time. If 'E.OC1' appears at start, disconnect the motor and restart the inverter. If the error persists, the inverter may be faulty, so contact your sales representative. Check the wiring for output short circuit and ground fault. If the rated motor frequency is 50Hz, set Pr. 3 Base frequency to 50Hz. Lower the stall prevention operation level. Activate the stall prevention operation and the fast-response current limit operation (Pr.156). If operating with frequent regenerative driving, set the base voltage in Pr. 19 Base frequency voltage.
General| Series | FR-D700 |
|---|---|
| Overload Capacity | 150% for 60 seconds |
| Protection Class | IP20 |
| Enclosure Rating | IP20 |
| Communication | RS-485 |
| Output Frequency | 0.1 to 400 Hz |
| Control Method | V/f control, Vector control |
| Protection Functions | Overcurrent, Overvoltage, Undervoltage, Overload, Short circuit, Ground fault |
| Communication Options | RS-485 |
| Braking Unit | Optional external braking unit |
| Cooling Method | Fan cooled |
| Operating Temperature | -10 to 50 °C |
| Storage Temperature | -20 to +65°C |
| Ambient Humidity | 95% RH or less (non-condensing) |
| Altitude | Up to 1000 m |
| Dimensions (W x H x D) | Varies by model |
| Weight | Varies by model |
Guides users on how to unpack the inverter, check capacity plates, and identify all components.
Details the inverter and its compatible peripheral devices, including power supplies, reactors, and filters.
Provides instructions for removing and reinstalling the front and wiring covers of the inverter for access.
Covers environmental requirements, installation placement, and enclosure design for optimal inverter operation.
Explains the terminal connection diagram for main and control circuits, including safety signals and analog inputs.
Details specifications for main circuit terminals, power input, inverter output, and connections for optional units.
Outlines specifications for control circuit terminals, input/output signals, communication, and safety stop functions.
Describes connection procedures for optional units such as brake resistors, brake units, and converters.
Discusses electromagnetic compatibility, leakage currents, and countermeasures to reduce noise and interference.
Explains the installation of optional reactors for preventing peak currents and improving power factor.
Details the recommended use of magnetic contactors on the input and output sides for safety and maintenance.
Provides measures for surge voltage and insulation when driving 400V class motors, addressing potential insulation issues.
Lists general precautions for handling, wiring, and operating the inverter to prevent damage and ensure safety.
Explains how to configure interlocks and backup systems to ensure system safety in case of inverter failure.
Introduces the operation panel, its indicators, buttons, and basic functions for setting and monitoring parameters.
Provides a comprehensive list of all parameters, their settings, initial values, and related pages for detailed explanation.
Details how to adjust manual torque boost, magnetic flux vector control, and slip compensation for optimal motor performance.
Explains setting maximum/minimum frequencies and avoiding mechanical resonance points using frequency jumps.
Covers setting base frequency, voltage, and selecting load patterns for different V/F applications.
Describes setting frequency using multi-speed operations, jog, and remote settings via external terminals.
Details setting acceleration/deceleration times and patterns for smooth motor start and stop operations.
Covers motor overheat protection and selecting appropriate motors, including offline auto-tuning.
Explains DC injection braking, regenerative braking, and selection of motor stopping methods for controlled operation.
Details assigning functions to input/output terminals, including safety stop, communication, and various signals.
Explains selecting and displaying operating parameters on the panel, PU, and terminal FM for monitoring purposes.
Covers automatic restart and power-failure deceleration stop functions for reliable operation during power interruptions.
Describes retry functions and fault detection mechanisms for managing and responding to inverter faults.
Explains optimizing energy consumption, such as using optimum excitation control, especially for fan and pump applications.
Details techniques to reduce motor noise, suppress EMI, and avoid mechanical resonance via PWM carrier frequency and speed smoothing.
Covers analog input selection, bias/gain adjustment, and performing operations with analog signals for frequency control.
Explains functions like reset selection, PU disconnection detection, parameter write disable, and password protection to prevent errors.
Describes selecting operation modes (PU, External, Network) and managing command sources for flexible control configurations.
Details communication setup for PU connector, RS-485, Modbus-RTU, and computer link operations for remote control.
Explains how to reset the inverter after a fault, including procedures for operation panel, power reset, and RES signal.
Provides a comprehensive list of all inverter fault and alarm codes, their indications, and corresponding troubleshooting pages.
Details common causes for errors, warnings, alarms, and faults, along with their respective corrective actions.
Lists the mapping between digital characters displayed on the operation panel and their alphanumeric representations.
Provides a systematic checklist for common issues like motor not starting or abnormal noise, guiding users to potential causes and solutions.
Outlines daily and periodic inspection checks for the inverter, including motor operation, environment, cooling system, and parts condition.
Explains how to measure main circuit voltages, currents, and powers using various instruments for diagnostics and performance checks.
Details the electrical ratings of the inverter series, including power supply voltage, capacity, current, and regenerative braking torque.
Lists common specifications for the FR-D700 series, covering control methods, frequency settings, input/output signals, and environmental conditions.
Provides mechanical dimensions and panel cut-out drawings for various inverter models, aiding in installation planning.
