Abstract: A computer-implemented method for assigning a plurality of simulation tasks to a plurality of simulation agents. A simulation task processing list is received, which comprises several simulation tasks to be completed. The simulation tasks to be completed are assigned to the simulation agents such that not all simulation tasks present in the simulation task processing list are assigned to the simulation agents. For the unassigned simulation tasks, it is checked whether simulation task-dependent data of the simulation task are at least partially identical to the simulation task-dependent data of the assigned simulation tasks. At least one unassigned simulation task is assigned to a simulation agent such that after the previously assigned simulation task has been completed, the simulation agent is assigned another simulation task, the simulation task-dependent data of which are at least partially identical to the simulation task-dependent data of the simulation task assigned immediately before it.

Abstract: A test system for applying a method for resource-optimized parameter variation of scenarios for testing at least one real and/or virtual system under test and/or for displaying test results. At least one scenario is provided, wherein the scenario is defined by at least one parameter and wherein the parameter is configured by at least one numeric value and/or text value, wherein the numeric value and/or the text value is configurable by additional numeric and/or text values. At least one scenario-based test is performed, wherein the scenario is defined by and is varied over configured parameters. The test results is outputted.

Abstract: A computer-implemented method and system for determining mutually compatible system elements required for an error-free execution of a virtual test and/or a simulation of a vehicle device and/or a vehicle function, with the steps: providing a parked selection or selecting of at least one first system element required for executing the virtual test and/or the simulation of the vehicle device and/or the vehicle function; determining at least one second system element supporting a compatibility requirement of the first system element; and outputting the determined second system element required for the error-free execution of the virtual test and/or the simulation of the vehicle device and/or the vehicle function and supporting the compatibility requirement of the first system element.

Abstract: A validation system for executing a method for prioritizing validation tasks, wherein the validation tasks are carried out by execution units of the validation system, wherein the execution units are divided into at least two groups and each group is assigned capabilities by the validation system and/or by a user of the validation system, so that execution units of a respective group have the capabilities of the group and, when the validation tasks are executed automatically by the validation system and/or by the user, a requirement of the respective validation task for the capability of the execution units and a priority for execution are specified and, taking into account the priorities and the capable execution units, an execution sequence is determined and the validation task is executed according to the execution sequence by the capable execution units.

Abstract: A method and system for performing a virtual test of a device for the at least partial autonomous guidance of a motor vehicle, comprising performing the virtual test by an algorithm using the at least one parameter set of driving situation parameters, wherein the virtual test performed by the algorithm simulates the at least one parameter set of driving situation parameters; and, if a predetermined condition and/or a condition determined by the algorithm is fulfilled, changing the at least one first parameter, detected by the at least one vehicle sensor and/or a third parameter relating to a vehicle actuator during a runtime of the virtual test.

Abstract: A method for semi-automated development data management for control devices includes saving a development data model in a central data store comprising a plurality of mutually related configuration data units, wherein the configuration data units each store control commands and/or configuration parameters. The method further includes providing a ruleset and identifying an initial configuration data unit, wherein it is possible, using the ruleset, to identify further configuration data units automatically on a basis of a relationship thereof with the initial configuration data unit. In addition, the method includes applying the provided ruleset to the development data model in order to identify a subset of configuration data units within the development data model and saving the identified subset.

Abstract: A method for visualizing system models in a model management environment, which includes the steps of opening the system model in the model editor, receiving a user input for rescaling a block, determining a relative horizontal position and a relative vertical position for each port in the block, calculating a new absolute horizontal and vertical position of each port in the block based on the relative horizontal and vertical position and the new size preset for the block, and displaying the block and each port in the block.

Abstract: A method for visualizing system models in a model management environment, which includes the steps of opening the system model in the model editor, receiving a user input for rescaling a block, determining a relative horizontal position and a relative vertical position for each port in the block, calculating a new absolute horizontal and vertical position of each port in the block based on the relative horizontal and vertical position and the new size preset for the block, and displaying the block and each port in the block.

Abstract: A method for semi-automated development data management for control devices includes saving a development data model in a central data store comprising a plurality of mutually related configuration data units, wherein the configuration data units each store control commands and/or configuration parameters. The method further includes providing a ruleset and identifying an initial configuration data unit, wherein it is possible, using the ruleset, to identify further configuration data units automatically on a basis of a relationship thereof with the initial configuration data unit. In addition, the method includes applying the provided ruleset to the development data model in order to identify a subset of configuration data units within the development data model and saving the identified subset.

Abstract: A computer-implemented method for managing at least one data element in control unit development, the method allows uniform management of data elements over the entire development process by providing a management unit having a user interface, associating the data element with the management unit, and associating an access configuration with the management unit. The access configuration defines the accessibility of the data element by a user via the user interface.

Abstract: A computer-implemented method for managing at least one data element in control unit development, the method allows uniform management of data elements over the entire development process by providing a management unit having a user interface, associating the data element with the management unit, and associating an access configuration with the management unit. The access configuration defines the accessibility of the data element by a user via the user interface.