Abstract: A system and method are provided to enable a user to specify function signatures for automated code generators to generate code based on a model representation. The method for automatically generating a function based on the model representation includes providing at least a portion of the model representation. A function signature is received for the model representation. The function signature is generated by a user. The function is generated based on the model representation and the function signature. A user interface can be provided to enable the user to enter the function signature and also to present a preview of a function that results from the function signature as modifications are made to the function signature. The user can enter the function signature using regular expressions, if desired.

Abstract: The described embodiments present techniques for recovering from syntax errors. These techniques correct potential errors while preserving the shape of the parse tree, and the specific implementation of the techniques can be automatically generated from the grammar. These techniques may operate by looking back at states associated with previously-received tokens to determine pair matching status, when a synchronizing symbol is received. The techniques can respond to the pair matching status determination by potentially adding a synthesized token or by deleting a token that has already been received. The techniques may use a structure referred to herein as a tuple to assist with the evaluation of the pair matching status. Some of the techniques utilize indentation information to evaluate the pair matching status, while other techniques ignore such information. The described embodiments also include a technique for automatically generating the tuples from a set of grammar rules associated with the parser.

Abstract: A method and system for providing a block for use in a block diagram in a graphical modeling environment which is capable of outputting information regarding the dynamic state of the block.

Abstract: A method of controlling the conditional execution of elements and subsystems in a block diagram is disclosed. Data structures known as Execution Contexts are created and associated with individual block diagram elements and subsystems. The Execution Contexts allow execution of the associated element or subsystem upon satisfaction of a specified pre-condition. The Execution Contexts may be inherited by other elements and subsystems in the block diagram and propagated programmatically throughout the block diagram. The use of the Execution Contexts allows for efficient code generation and block diagram execution, as well as supporting modular design concepts.

Abstract: In a computer-implemented method for running a test, the test to test a system under test is generated. At least a portion of the test is designated to be run as a distributed test. The designated test portion is selected to be run in one of a synchronous execution mode or an asynchronous execution mode. Tasks of the generated test are distributed to a plurality of workers. The distributed tasks are run with the plurality of workers according to the execution mode selection.

Abstract: A computer-implemented method may include defining an input bus signal in a graphical block diagram model by associating the input bus signal with a first group of signals, at least two of the first group of signals having a different data type; defining an output bus signal in the graphical block diagram model by associating the second bus signal with a second group of signals, each of the second group of signals corresponding to one of the first group of signals; defining an input to a non-virtual operation block in the graphical block diagram model as the input bus signal; defining an output to the non-virtual operation block in the graphical block diagram as the output bus signal; and simulating an operation performed on the input bus signal by the non-virtual operation block, the operation being performed on each of the first group of signals and output to each of the second group of signals.

Abstract: A schema that enables a user to store data generated in an array-based computing environment in a scientific data file is disclosed. The schema may provide a mapping between the data types of the array-based computing environment and the data types of the scientific data file format. The schema may also apply when data is loaded from the scientific data file into the array-based computing environment. When the data is stored in the scientific data file, the file contains descriptions of the data as the variables of the array-based computing environment so that the data in the file can be loaded into the array-based computing environment without additional user input. The loaded variables (name and value) are identical to their state before the data is stored in the file.

Abstract: The present invention provides a method and system for registering rules for attributes of an entity with an entity validation and inference unit. The entity validation and inference unit can further validate input values for an entity and/or infer attributes of an entity using the associated registered rules. The entity validation and inference unit can also provide information regarding attributes, relations, and behaviors of an entity using the associated registered rules in response to a query. The present invention also provides a mechanism for a user to query an entity or the entity validation and inference unit regarding valid values for an entity. The mechanism also allows the user to query the registered rule associated with the entity.

Abstract: This invention allows users to build, manipulate, and finally deploy various model configurations with little performance overhead, better syntactic clarity and configuration flexibility.

Abstract: A method of saving portions of a simulation or execution engine image at various points in a simulation or execution is disclosed. The saving of the simulation or execution context in addition to the more traditional saving of the system state information enables the restoration of a simulation or execution that is capable of producing, in a subsequent simulation or execution of a block diagram continuing from the point of the saved simulation or execution, results that are identical to those of the initial simulation or execution. The ability to restore more than just system state variables enables a user to run multiple variations of a simulation from a given point without having to replicate the simulation up until the point of the saved initial simulation, and the ability to run multiple iterations of a block diagram execution in a non-simulation execution from a given point without having to replicate the execution of the block diagram up until that point.

Abstract: The present invention is directed toward automatically integrating a late bound program language into an external environment. The external environment may be an early bound environment, a late bound environment or some combination thereof. Associated with the late bound program environment is a modular execution engine and an interface mechanism, wherein the interface mechanism is capable of expressing late bound semantics in a format compatible with the external environment.

Abstract: The present invention provides systems and methods for providing two or more parameterization functions which are associated with a single graphical language environment. Such an arrangement allows for modeling of complex models with interaction across multiple domains. In the present invention, the graphical language environment include components, represented by nodes, that have multiple parameterization functions associated with them, yet operate within a single graphical language environment. A change in one parameterization function associated with one or more nodes is propagated across all associated nodes within the domain.

Abstract: Graphical programming or modeling environments in which a coding standard can be applied to graphical programs or models are disclosed. The present invention provides mechanisms for applying the coding standard to graphical programs/models in the graphical programming/modeling environments. The mechanisms may detect violations of the coding standard in the graphical model and report such violations to the users. The mechanisms may automatically correct the graphical model to remove the violations from the graphical model. The mechanisms may also automatically avoid the violations in the simulation and/or code generation of the graphical model.

Abstract: A method and apparatus, including a computer program apparatus, which facilitate invoking methods of objects defined within an object-oriented environment from an array-based technical computing environment often used in conventional mathematical tools. When a method is invoked from the computing environment, the techniques automatically compare the array input parameters with data-types accepted by methods defined within the object-oriented environment. Based on this comparison, the invention selects a method that best accepts the input arrays. The invention, therefore, allows a user to easily invoke methods from external objects, such as Java objects, directly from the technical computing environment of the mathematical tool.

Abstract: Exemplary embodiments may employ techniques for dynamically dispatching requests to resources operating in a distributed computing environment, such as a computing cloud, according to one or more policies. Embodiments may further dynamically adjust resources in the computing environment using predictive models that use current loads as an input. Embodiments may still further maintain a state for a processing environment independent of the type or configuration of a device used to access the environment on behalf of a user.

Abstract: Methods and systems for translating models generated in one modeling environment into models that can be used in other modeling environments are disclosed. Models are created using different data formats in different modeling environments. These data formats are generally incompatible with each other. Therefore, the present invention provides a neutral data format that can store information relating to models generated in one modeling environment, and that can be used by other modeling environments to create their models. The present invention may export models created in one modeling environment into the neutral data format. The neutral data format may subsequently be imported into other modeling environments in which new models are generated using the information contained in the neutral data format. The present invention also provides animation of the newly generated models by animation clients via open animation interfaces that support multiple animation clients at a simultaneous time.

Abstract: A computer-implemented method may include defining an input bus signal in a graphical block diagram model by associating the input bus signal with a first group of signals, at least two of the first group of signals having a different data type; defining an output bus signal in the graphical block diagram model by associating the second bus signal with a second group of signals, each of the second group of signals corresponding to one of the first group of signals; defining an input to a non-virtual operation block in the graphical block diagram model as the input bus signal; defining an output to the non-virtual operation block in the graphical block diagram as the output bus signal; and simulating an operation performed on the input bus signal by the non-virtual operation block, the operation being performed on each of the first group of signals and output to each of the second group of signals.

Abstract: A computer-implemented method may include defining an input bus signal in a graphical block diagram model by associating the input bus signal with a first group of signals, at least two of the first group of signals having a different data type; defining an output bus signal in the graphical block diagram model by associating the second bus signal with a second group of signals, each of the second group of signals corresponding to one of the first group of signals; defining an input to a non-virtual operation block in the graphical block diagram model as the input bus signal; defining an output to the non-virtual operation block in the graphical block diagram as the output bus signal; and simulating an operation performed on the input bus signal by the non-virtual operation block, the operation being performed on each of the first group of signals and output to each of the second group of signals.

Abstract: A system and method of exposing debugging information in a graphical modeling and execution environment is disclosed. The present invention allows a user to view debugging information in the same window as the graphical view of the model being executed. Debugging data is associated with relevant components of the model displayed in the graphical view. A separate execution list view shows the methods called during the execution of the block diagram in the current time step up until the current point in execution. User-set breakpoints and conditional breakpoints may be set in both the model view and the execution list view. Values may be obtained for all of the displayed methods. The debugging tool may be implemented by using it in conjunction with a graphical modeling and execution environment, such as a block diagram environment or state diagram environment.

Abstract: A system generates an executable process for execution by a concurrent computing environment, generates a configuration that specifies configurable properties of the concurrent computing environment, and initiates execution of the executable process, with the concurrent computing environment, to initiate configuration of the concurrent computing environment based on the configurable properties of the configuration.