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Loading...What to do if my Lenze Control Unit motor rotates CCW?
If the motor rotates counter-clockwise (CCW) when viewed from the motor shaft, the feedback system is not connected in the correct phase relation. Connect the feedback system in the correct phase relation.
Why Lenze Control Unit motor does not follow the setpoint change?
If the Lenze Control Unit motor does not follow the setpoint change, it might not be connected in the correct phase relation. Connect the motor in the correct phase relation at the terminals U, V, W.
What to do if there is a current overload of the axis module in Lenze ECS?
If the Lenze Control Unit axis module experiences a current overload, such as due to frequent and prolonged acceleration processes or continuous overload with Imotor exceeding 1.05 x INx, check the drive dimensioning.
How to fix short circuit of motor cable in Lenze Control Unit?
To resolve a short circuit in the Lenze Control Unit motor cable, search for the cause of the short circuit and check the motor cable. If the issue is excessive capacitive charging current, use a motor cable that is shorter or has lower capacitance.
What to do if Lenze ECS motor is thermally overloaded?
If the motor is thermally overloaded in your Lenze Control Unit system due to impermissible continuous current or frequent/long acceleration processes, check the drive dimensioning. You can also switch off monitoring by setting C0583 = 3.
How to fix thermal overload on Lenze ECS Control Unit motor?
If the Lenze Control Unit motor is thermally overloaded due to impermissible continuous current or frequent/long acceleration processes, check the drive dimensioning and switch off monitoring (C0584 = 3). This issue occurs when the motor temperature exceeds C0121, as detected via resolver or incremental value encoder.
What to do if my Lenze ECS Control Unit motor temperature is above +150 °C?
If the motor temperature exceeds the +150 °C threshold, it could be due to thermal overload from impermissible continuous current or frequent/long acceleration processes, or because no PTC/temperature contact is connected. Check the drive dimensioning and correct the wiring.
What to do if my Lenze ECS Control Unit motor does not react to setpoint change?
If the motor isn't responding to setpoint changes, it might not be connected in the correct phase relation. Ensure the motor is correctly connected at terminals U, V, and W.
Why Lenze Control Unit motor rotates CCW when viewed to the motor shaft?
If the Lenze Control Unit motor rotates CCW when viewed to the motor shaft, the feedback system is not connected in the correct phase relation. Connect the feedback system in the correct phase relation.
What to do if there is a current overload of the axis module > C0123 in Lenze Control Unit?
If the Lenze Control Unit axis module experiences a current overload exceeding C0123, possibly due to frequent or prolonged acceleration phases, check the drive dimensioning and the setting of C0123.
General| Category | Control Unit |
|---|---|
| Protection class | IP20 |
| Product series | ECS series |
| Output current | Depends on specific model |
| Communication interfaces | CANopen, Ethernet |
| Relative humidity | 5% to 95% (non-condensing) |
Provides essential information for connecting and commissioning ECSxA axis modules, including safety instructions.
Lists key features of the ECSxA axis module, including safety functions, CAN interfaces, and feedback systems.
Introduces the concept of system blocks (SB) as hardware function blocks integrated into the axis module.
Covers essential safety measures for personal safety and preventing damage to material assets.
Presents technical specifications including output power, DC-bus voltage, and current ratings for axis modules.
Explains how continuous current depends on output voltage and control factor.
Details dimensions and mounting steps for standard installation using fixing rails.
Explains mounting requirements for push-through design, including cooling and protection class.
Covers requirements for collective coolers and mounting steps for cold-plate design.
Covers electromagnetic compatibility aspects like assembly, filtering, shielding, and earthing.
Details plug connectors, their assignments, and cable cross-sections for power connections.
Explains connections for control electronics, digital/analog signals, and safety functions.
Lists prerequisites and checks before initial switch-on, including wiring verification.
Details basic settings configuration using the Global Drive Control program, including motor data and feedback.
Explains configuration for resolvers, TTL encoders, SinCos encoders, and absolute value encoders.
Details setting node addresses and baud rates via DIP switches or codes for CAN interfaces.
Details the consequences and display options for TRIP, Message, Warning, FAIL-QSP, and Off responses.
Provides a comprehensive overview of all monitoring functions, their sources, and possible responses.
Covers setting monitoring times for process data input objects, communication errors, and bus states.
Locating diagnostic codes and fault history values within the GDC parameter menu.
Methods for analyzing faults using LED displays, keypads, history buffer, and LECOM status words.
Lists common drive malfunctions, their causes, and suggested remedies.
Provides an overview of fault messages, their sources, and possible responses.
Controls axis module states like Quick stop, Operation inhibit, Controller inhibit, and TRIP.
Controls driving machine functions including phase, speed, and motor control.
Comprehensive list of Lenze codes, their settings, and important information.
