Abstract:
A device performs a verification analysis of source code, where the verification analysis includes a coding rules check of the source code based on coding standards, and run-time error check of the source code. The device provides, for display, results of the coding rules check of the source code, and provides, for display, results of the run-time error check of the source code. The device provides, for display, from the results of the coding rules check of the source code, at least one of a coding rule error violation associated with the source code, or a coding rule warning violation associated with the source code.
Abstract:
A device may obtain first program code, and may cause the first program code to be executed. The device may determine a first execution state generated based on causing the first program code to be executed. The device may store the first execution state. The device may obtain second program code that includes a modification to the first program code, and may cause the second program code to be executed. The device may determine a second execution state generated based on causing the second program code to be executed. The device may store the second execution state. The device may receive an indication to restore the first execution state, and may restore the first execution state based on receiving the indication.
Abstract:
A graphical user interface for an interactive concurrent computing environment is discussed. The graphical interface conveys the concurrent nature of the computing environment and allows a user to monitor the status of the concurrent process being executed. The graphical interface may indicate the status of the process, the status of the various computing units of the process, or the status of groups of computing units. This allows the user to monitor the concurrent process as the process is executing including whether or not computing units of the concurrent process are idle, busy or stopped.
Abstract:
A system and method tests for functional equivalence prior to automatically retiming a high-level specification. An Intermediate Representation (IR) includes one or more graphs or trees based on the high-level specification. A functional equivalence (FE) analyzer determines whether one or more components in the graph meet certain value and state conditions and thus is a candidate for retiming. A scheduler can use components that fail FE as a retiming boundary.
Abstract:
A device may receive an indication to evaluate a first portion of program code and a second portion of program code provided in a first section of a user interface. The device may evaluate the first portion of program code and the second portion of program code. The device may generate a first result corresponding to the first portion of program code and may generate a second result corresponding to the second portion of program code based on evaluating the first portion of program code and the second portion of program code. The device may provide the first result and the second result in a second section of the user interface. The second section may be separate from the first section. The device may provide a correspondence indicator that indicates a correspondence between the first result and the first portion of program code.
Abstract:
A device may store a data structure including information identifying a geometric relationship between first and second coordinate values of a first data type. The data structure may also include a first array of a first length that includes the first coordinate value located at a position identifiable by a reference value. The data structure may also include a second array of a second length that includes the second coordinate value located at a position identifiable by the reference value. The data structure may also include a third array of a third length that includes an attribute value of a second data type, located at a position identifiable by the reference value. The device may receive an indication that one of the lengths is to be modified, and may modify the data structure so that the first length, the second length, and the third length are equivalent.
Abstract:
A device may determine historical state values to be used to calculate a current state value of a wrapped state associated with a model element. The wrapped state may be associated with a range of state values. The device may calculate the current state value of the wrapped state based on the historical state values, and may determine that the current state value is outside of the range of state values. The device may generate a modified current state value based on determining that the current state value is outside of the range of state values. The modified current state value may be within the range of state values. The device may modify a historical state value based on determining that the current state value is outside of the range of state values. The device may provide or store the modified current state value and the modified historical state value.
Abstract:
In an embodiment, a modeling component generated in a first modeling environment can be implemented in a second modeling environment. The modeling component is executed in the first modeling environment. A first behavior of the modeling component in the first modeling environment is obtained based on the executing. The modeling component is then executed in the second modeling environment. A second behavior of the modeling component in the second modeling environment is obtained based on the executing the modeling component in the second modeling environment. The first behavior is compared to the second behavior. Based on the comparing, it is verified that the second behavior of the modeling component complies with one or more modeling requirements of the second modeling environment. The second behavior of the modeling component may be implemented in the second modeling environment.
Abstract:
A device initiates a technical computing environment (TCE), and receives, via the TCE, a program command that permits the TCE to access a graphical processing unit that is remote to the device, where the program command permits the TCE to seamlessly transfer data to the remote GPU. The device transforms, via the TCE, the program command into a program command that is executable by the remote GPU, and provides the transformed program command to the remote GPU for execution. The device also receives, from the remote GPU, one or more results associated with execution of the transformed program command by the remote GPU, and utilizes the one or more results via the TCE.
Abstract:
A system may include a memory that stores instructions and a processor to execute the instructions to create a first set of objects, describing a graphical scene, in a first data structure based on data relating to the graphical scene. The processor may create a second set of objects in a second data structure based on the first set of objects in the first data structure, where at least one object of the first set of objects is associated with at least one object of the second set of objects and one or more properties for an object of the second set of objects is based on information associated with the first data structure. The processor may modify the second set of objects and provide the modified second set of objects to a browser for rendering the graphical scene.