Why does my Sourcetronic ST500 show Err.07?
Your Sourcetronic DC Drive might display Err.07 if there's an external force dragging the motor while it's running; in that case, cancel the external force or install a braking resistor. The error can also be caused by a high input voltage, so set the voltage to the normal range.
What to do if Sourcetronic ST500 show Err.31?
If Sourcetronic DC Drives show Err.31, check the PID feedback signal or set E2.11 to an appropriate value because PID feedback is less than the set value of E2.11.
What to do if Sourcetronic ST500 show Err.30?
If Sourcetronic DC Drives show Err.30, confirm whether the load is removed or not, or if the settings for parameters F8.31 and F8.32 align with the actual operating conditions.
What to do if Sourcetronic ST500 show Err.23?
If your Sourcetronic DC Drive displays Err.23, it indicates that the motor is shorted to ground. Replace the cable or motor.
What to do if Sourcetronic ST500 DC Drives show Err.08?
If your Sourcetronic DC Drive displays Err.08, it means that the range of the input voltage is not within the specification. Adjust the voltage to the range of the requirements of the specification.
What to do if Sourcetronic ST500 show Err.45?
If your Sourcetronic DC Drive displays Err.45, it may be due to loose wiring of the temperature sensor, so detect the wiring of the temperature sensor and eliminate the fault. It could also be that the motor temperature is too high, so decrease the carrier frequency or take other cooling measures to cool the motor.
What to do if Sourcetronic ST500 show Err.22?
If your Sourcetronic DC Drive shows Err.22, it indicates either overvoltage or overcurrent. You should eliminate the overvoltage or overcurrent fault.
What to do if Sourcetronic ST500 DC Drives show Err.13?
If your Sourcetronic DC Drive displays Err.13, it could be due to a few reasons. The lead wires from the inverter to the motor might be faulty, so eliminate any peripheral faults. If the inverter's three-phase output is unbalanced when the motor is running, check if the motor's three-phase winding is normal and eliminate any faults. If the drive panel is abnormal, seek technical support.
What to do if Sourcetronic ST500 show Err.09?
If your Sourcetronic DC Drive is showing Err.09, it could be due to a momentary power cut, in which case you should reset the fault. It could also be that the inverter's input voltage is not within the specification, so adjust the voltage to the normal range. If the bus voltage is not normal, seek technical support.
What to do if Sourcetronic ST500 DC Drives show Err.02?
If your Sourcetronic DC Drive displays Err.02, it could be due to several reasons. The acceleration time might be too short, so try increasing it. The manual torque boost or V/F curve may not be suitable, requiring adjustment. Ensure the voltage is within the normal range. Check for short-circuits or earthing at the inverter output and eliminate any peripheral faults. If using vector control, perform parameter identification for the motor. If the motor starts unexpectedly while rotating, select Speed Tracking Start or restart after stopping it. A sudden load increase during acceleration can also cause this, so cancel the sudden load. Finally, the inverter might be too small for the application, so choose one with a larger power level.
General| Brand | Sourcetronic |
|---|---|
| Model | ST500 Series |
| Category | DC Drives |
| Language | English |
Instructions for checking the inverter and its packaging after unpacking.
Explanation of the information provided on the inverter's nameplate.
Details on how to interpret the model designation of the inverter.
Crucial safety guidelines categorized by process: before installation, during installation, wiring, and before energizing.
Important precautions related to motor insulation inspection and thermal protection for safe operation.
Defines the suitable applications for the inverter and specifies circumstances requiring manufacturer consultation.
Detailed technical specifications including power, current, and adaptive motor ratings for various models.
Specifications for main circuit terminal screws and their recommended fastening torque.
Comprehensive standard specifications covering power input, control system, and personalization functions.
Description and illustration of the inverter's operation panel and its keys.
Explanation of the status lamps and unit combination indicators on the keyboard.
Detailed functions of each key on the operation panel, including PRG, Shift, and directional keys.
Mapping of display letters to corresponding numerical and alphabetical characters used on the digital display.
Illustrates how to view and modify function codes, including restoring factory settings.
Explains how to read parameters in different inverter statuses (stop, run, power-off).
Details on how to set and cancel the inverter's password protection feature.
Step-by-step guide for performing motor parameter auto tuning for optimal vector control performance.
Environmental requirements for inverter installation, including temperature, humidity, and site conditions.
Guidelines for proper installation direction and required clearance space for heat dissipation.
Provides an overview of the main circuit and control circuit wiring for the frequency inverter.
Detailed wiring diagram illustrating connections for main circuit and control circuit components.
Arrangement of main circuit terminals for various power ratings (0.75kW-75kW).
Arrangement of main circuit terminals for 45kW-132kW G3 models, showing terminal layouts.
Main circuit terminal arrangements for 160kW-630kW G3 models, including notes on DC reactor connection.
Explains the function of each terminal in the main circuit, including input, output, and ground connections.
Overview of control circuit terminals and their arrangement.
Detailed description of control circuit terminals, including power supply, PLC, analog, digital, and relay outputs.
Describes auxiliary interfaces like RS485, PT100, and signal input terminal circuits.
Critical safety precautions for wiring, emphasizing power breaker status, grounding, and correct connections.
Guidance on installing a spare circuit to ensure safety and prevent downtime in case of inverter faults.
Step-by-step flowchart and basic steps for commissioning the ST500 inverter.
Overview of parameter menu structure, codes, and functional descriptions, including notes on parameter change limits.
Details of basic monitoring parameters (d0.00-d0.41) used to check the inverter's running status.
Covers basic function parameters (F0.00-F0.27) related to motor control, frequency setting, and sources.
Details parameters for configuring digital and analog input terminals (F1.00-F1.46).
Parameters for configuring digital and analog output terminals (F2.00-F2.19), including high-speed pulse output.
Parameters related to start-up modes, speed tracking, and stop control (F3.00-F3.15).
Parameters specific to V/F control mode, including V/F curve settings and torque boost (F4.00-F4.14).
Parameters for vector control mode, covering speed loop, torque limit, and excitation gain (F5.00-F5.15).
Parameters for configuring keyboard functions, display settings, and status monitoring (F6.00-F6.19).
Parameters for auxiliary functions like jog control, jump frequency, and acceleration/deceleration time settings (F7.00-F7.54).
Parameters for fault detection and protection settings, including overcurrent, overload, and phase loss protection (F8.00-F8.35).
Parameters for communication settings, including baud rate, data format, and protocol selection (F9.00-F9.07).
Parameters for torque control mode, including torque setting sources and acceleration/deceleration times (FA.00-FA.07).
Parameters for optimizing control performance, such as current limiting and voltage settings (Fb.00-Fb.09).
Parameters for extended functions like proportional linkage and PID start deviation (FC.00-FC.02).
Parameters for wobbulate, fixed-length, and counting functions, suitable for textile and chemical industries (E0.00-E0.11).
Parameters for multi-stage speed settings and simple PLC operations (E1.00-E1.51).
Parameters for PID control, including setting sources, feedback, and tuning parameters (E2.00-E2.32).
Parameters for configuring virtual digital inputs (VDI) and virtual digital outputs (VDO) for flexible control (E3.00-E3.21).
Parameters for defining motor characteristics, essential for accurate inverter control and protection (b0.00-b0.35).
Parameters for managing function codes, including initialization, password settings, and display preferences (y0.00-y0.04).
Parameters for querying inverter fault history, providing details on fault types and their timing (y1.00-y1.30).
Details of basic monitoring parameters used to view inverter running status, including frequency, voltage, current, and input/output status.
Covers basic function parameters (F0.00-F0.27) related to motor control, frequency setting, and sources.
Details parameters for configuring digital and analog input terminals (F1.00-F1.46).
Parameters for configuring digital and analog output terminals (F2.00-F2.19), including high-speed pulse output.
Parameters specific to V/F control mode, including V/F curve settings and torque boost (F4.00-F4.14).
Parameters for vector control mode, covering speed loop, torque limit, and excitation gain (F5.00-F5.15).
Parameters for configuring keyboard functions, display settings, and status monitoring (F6.00-F6.19).
Parameters for auxiliary functions like jog control, jump frequency, and acceleration/deceleration time settings (F7.00-F7.54).
Parameters related to start-up modes, speed tracking, and stop control (F3.00-F3.15).
Parameters related to start-up modes, speed tracking, and stop control, including DC braking and S-curve settings.
Parameters specific to V/F control mode, including V/F curve settings and torque boost (F4.00-F4.14).
Parameters for vector control mode, covering speed loop, torque limit, and excitation gain (F5.00-F5.15).
Parameters for configuring keyboard functions, display settings, and status monitoring (F6.00-F6.19).
Parameters for auxiliary functions like jog control, jump frequency, and acceleration/deceleration time settings (F7.00-F7.54).
Parameters for fault detection and protection settings, including overcurrent, overload, and phase loss protection (F8.00-F8.35).
Fault protection action selections and parameters for motor overtemperature and power cut.
Parameters for cooling fan control, timing functions, and motor temperature monitoring.
Fault protection action selections for various conditions like speed deviation, overspeed, and encoder faults.
Fault protection settings for frequency detection, current detection, and motor temperature.
Fault protection settings for random arrivals (current/frequency) and module temperature.
Fault protection settings for output current overrun, random arrivals current, and motor temperature.
Parameters for communication settings, including baud rate, data format, and protocol selection (F9.00-F9.07).
Parameters for torque control mode, including torque setting sources and acceleration/deceleration times (FA.00-FA.07).
Parameters for optimizing control performance, such as current limiting and voltage settings (Fb.00-Fb.09).
Parameters for extended functions like proportional linkage and PID start deviation (FC.00-FC.02).
Parameters for wobbulate, fixed-length, and counting functions, suitable for textile and chemical industries (E0.00-E0.11).
Parameters for multi-stage speed settings and simple PLC operations (E1.00-E1.51).
Parameters for PID control, including setting sources, feedback, and tuning parameters (E2.00-E2.32).
Parameters for configuring virtual digital inputs (VDI) and virtual digital outputs (VDO) for flexible control (E3.00-E3.21).
Parameters for defining motor characteristics, essential for accurate inverter control and protection (b0.00-b0.35).
Parameters for managing function codes, including initialization, password settings, and display preferences (y0.00-y0.04).
Parameters for querying inverter fault history, providing details on fault types and their timing (y1.00-y1.30).
Lists common fault codes, their possible causes, and recommended solutions for troubleshooting inverter issues.
Defines Electromagnetic Compatibility (EMC) standards and general precautions for installation.
Covers EMC directives related to harmonic effects and electromagnetic interference mitigation.
Provides outside drawings and installation dimensions for the ST500 series inverters.
Detailed dimension drawings for 5.5-11kW G3 models, including installation space and weight.
Dimension drawings for 15-200kW G3 models, showing overall dimensions and installation details.
Dimension details for various ST500 models, including iron shell hanging series dimensions.
Outline dimensions for ST500 series inverters with base and DC reactor, for 132kW and 160-220kW models.
Outline dimensions for 250kW-400kW G3 models with base and DC reactor, and 450kW-630kW G3 with DC reactor.
Drawings illustrating the dimensions of the ST500 keyboard and its frame.
Provides dimensions for outside and inside installation panel openings for the ST500 keyboard.
Guidelines for routine and regular inspection of the inverter, including checks for display, cooling system, and terminals.
Lists parts requiring regular replacement, such as cooling fan, filter capacitor, and PCB, with recommended replacement intervals.
Instructions for proper storage of the inverter when not in immediate use, including environmental and testing recommendations.
Details on capacitor rebuilding procedures, including charging instructions based on storage duration.
Guidance on measuring current and voltage, noting potential inaccuracies and recommendations for instrument usage.
Information on optional expansion cards like RS485, PG, and CANbus cards for extended functionality.
Details on selecting built-in and external brake units and resistors for ST500 converters based on power rating.
Recommendations for power and control cable selection, including shielded symmetrical cables and twisted pair cables.
Guidance on interference countering techniques for inductive and radio frequency interference.
Defines the warranty period, conditions, and exceptions for the ST500 product.
Lists quality problems caused by user actions or environmental factors that are not covered under warranty.
Defines the communication content, application method, and bus structure for RS485 serial communication.
Describes RTU frame format, master command information, and slave responding information for Modbus communication.
Explains the Modbus protocol communication data structure and character intervals.
Defines communication parameter addresses and rules for labeling function code parameters.
Introduces the ST500's universal encoder expansion card options (PG cards) for closed-loop vector control.
Details the specifications and terminal signals for different PG card types (ST500_PG1, ST500_PG3, ST500_PG4, ST500_PG5).
Introduces the CAN bus communication card's suitability for ST500 inverters and refers to detailed protocol documentation.
Describes mechanical installation modes and terminal functions for the CAN bus communication card.
Introduces the 9KDP1 Profibus-DP communication card for ST500 inverters, enabling fieldbus control.
Details the DIP switch settings and terminal functions for the Profibus-DP communication card.
Illustrates the electrical diagram and parameter settings for a single pump constant pressure water supply application.
Provides the electrical diagram and parameter settings for controlling motor forward and reverse operation using terminal blocks.
Details the electrical diagram, connections, and parameter settings for displaying external frequency and current.
Shows the electrical diagram and parameter settings for controlling forward/reverse running and jog commands via terminal blocks.
Illustrates the electrical diagram and parameter settings for achieving multi-speed operation of the motor.
Provides the electrical diagram and parameter settings for controlling motor speed using an external potentiometer.
Details parameter settings for controlling motor speed using the keyboard potentiometer function.
Shows the electrical diagram and parameter settings for controlling motor speed with rise and fall ramps.
Illustrates the electrical diagram and parameter settings for external analog speed control using a 0-10V signal.
Provides the electrical diagram and parameter settings for external analog speed control using a 0-20mA current signal.
Shows the electrical diagram and parameter settings for air compressor constant pressure control using a two-wire pressure transmitter.
Illustrates the electrical diagram and parameter settings for switching frequency references between external potentiometer and keyboard encoder.
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