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Provides information on the inverter's basic operation and STOBER applications.
Identifies the target audience for this manual.
Lists related manuals and where to find the latest document versions.
Provides contact information for technical questions and documentation queries.
Defines technical abbreviations used in the manual.
Lists registered trademarks of STOBER and other companies.
Emphasizes keeping the manual accessible for safe product handling.
Details the requirement for risk assessment according to Machine Directive 06/42/EC.
Specifies environmental requirements and prohibited applications for inverter installation.
Defines the necessary qualifications for personnel performing inverter tasks.
Provides instructions for safe transportation and storage of the inverter.
Details safety procedures for installing and connecting the inverter.
Outlines safety precautions during commissioning, operation, and service.
Provides guidelines for the proper disposal of inverter components.
Highlights potential dangers related to motor and drive operation.
Explains the meaning and usage of safety notices (Notice, Caution, Warning, Danger).
Explains the standard device state machine and its operational requirements.
Describes the device state machine according to the DSP 402 profile.
Explains the role and allocation of parameters in the inverter system.
Details the hierarchical structure of parameters and their subject areas.
Lists and describes the available data types for inverter parameters.
Explains how to address parameters via fieldbus, including important information.
Describes the POSITool software as the interface for inverter configuration.
Explains the functionality and use of the inverter's operator panel.
Details selecting a STOBER standard motor using the configuration assistant.
Explains the use of electronic nameplates for servo motors with absolute encoders.
Guides on manually entering motor specifications when nameplates are unavailable.
Introduces additional parameters related to motor data and control.
Explains parameterization for the SLVC-HP control mode for AC motors.
Details the configuration for evaluating motor temperature sensors like PTC, KTY, and Pt.
Describes how to deactivate motor encoders when not in use.
Details the evaluation of different encoder types connected to Interface X4.
Explains the connection and parameterization of binary input encoders.
Covers the connection and parameterization of encoders for Interface X120.
Details the connection and parameterization of encoders for Interface X140.
Guides parameterization of brake control for V/f-control mode.
Details brake control parameterization for sensorless vector control.
Explains brake control parameterization for the SLVC-HP mode.
Covers parameterization of brake control for vector control mode.
Details brake control for servo motors, with active or manual electronic nameplate.
Explains how brake management monitors brake tests and functional capability.
Details the activation and prerequisites for single-axis brake management.
Explains brake management for multi-axis operation.
Covers brake management for POSISwitch multi-axis setups.
Describes the procedure for testing brake functionality and torque application.
Details the prerequisites and steps for performing a single-axis brake test.
Notes on performing brake tests for multi-axis operation.
Notes on performing brake tests for POSISwitch multi-axis operation.
Explains the brake grinding function for cleaning friction surfaces.
Details performing the brake grinding function for single-axis operation.
Identifies the hardware components used for remote maintenance and IGB-Motionbus.
Covers the communication interfaces, protocols, and network conditions for IGB.
Explains how to diagnose the IGB network status using parameters.
Introduces establishing a direct connection between PC and inverter/IGB network.
States requirements for a direct connection, focusing on IP addresses and subnets.
Explains IP address structure, subnet masks, and network/device sections.
Guides on finding PC network interface IP and subnet mask using POSITool.
Details steps to adjust the inverter's IP address to match the computer's subnet.
Provides step-by-step instructions to establish a direct connection with POSITool.
Explains how to read configuration and parameters from the SDS 5000 via direct connection.
Details the procedure for writing data to the inverter using POSITool.
Introduces the IGB-Motionbus function for cyclic data exchange between inverters.
Guides on activating the IGB-Motionbus function via the configuration assistant.
Explains the two-step parameterization process for the IGB-Motionbus.
Details setting up unambiguous addresses and expected station numbers for IGB-Motionbus.
Explains how to parameterize process data exchange via the IGB-Motionbus.
Warns about risks and explains non-regular operation of IGB.
Describes how to diagnose IGB-Motionbus errors and network quality.
Details how to exchange master position data via the IGB-Motionbus.
Introduces remote maintenance capabilities and necessary precautions.
Provides guidance on system administration and network setup for remote access.
Introduces the assistant for configuring network and remote service settings.
Details network settings for obtaining IP addresses for remote maintenance.
Explains how to configure the activation signal for remote maintenance.
Covers the configuration of Internet proxy server settings for remote maintenance.
Describes saving and loading remote maintenance settings for different projects.
Explains how to apply gateway inverter settings to other inverters in the network.
Details setting up a connection via a local network using the LAN Teleserver.
Provides a flowchart for configuring internet connection settings.
Explains how to configure internet settings specifically for POSITool.
Addresses security mechanisms to prevent unauthorized data manipulation.
Details the prerequisites and steps for activating remote maintenance.
Guides on establishing a connection to the inverter using POSITool.
Provides methods for safely deactivating remote maintenance connections.
Explains how to monitor remote maintenance sessions using Netviewer software.
Describes how to interpret LED indicators and parameters for remote maintenance status.
Defines the scope of the maintenance terms and conditions.
Covers contract conclusion, written form requirements, and performance timelines.
Specifies payment terms, invoicing, and pricing for services.
Defines intellectual property rights and licensing for supplied software.
Covers software updates, new functions, and their provision.
Requires customer testing of supplied software and reporting of faults.
Details the 24-hour customer hotline for support and fault reporting.
Outlines customer responsibilities and STOBER's role in remote maintenance.
Specifies customer duties regarding malfunctions, IT security, and cooperation.
Addresses STOBER's liability for software defects and customer acceptance.
Defines the process for acceptance testing of services and work results.
Covers governing law, venue, contract amendments, and invalid provisions.
Provides step-by-step instructions for replacing inverters using the Paramodule.
Guides on changing the inverter application by replacing the Paramodule.
Explains how to copy a Paramodule for use in additional inverters.
Introduces the process of updating inverter firmware live.
Lists the firmware files required for live updates and their location.
Details the procedure and safety precautions for live firmware updates.
Describes inverter actions executed automatically or controlled by parameters.
Lists actions that can be executed without requiring motor enable.
Explains saving current configuration and parameters to Paramodule.
Describes how to reset memorized values E33 to E37 and E41.
Lists actions that require motor energization before execution.
Details the phase test for servo motors to check phase order and motor poles.
Explains the autotuning action for measuring motor parameters like resistance and inductance.
Guides on optimizing the current controller for improved motor performance.
Describes the winding test to check symmetry of ohmic resistors in motor windings.
Details optimizing parameters for the SLVC-HP control mode.
Explains the reference value generator action for motor control.
Explains the meaning of different LED combinations for inverter status.
Describes how the display indicates device states, parameters, and events.
Provides general information on display indications after self-test.
Explains how events are indicated on the display and their severity levels.
Lists and categorizes various faults and events, including causes and resolutions.
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