Abstract: A system and method for creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: System and method for implicit downcasting at compile time in a data flow program. A first data flow function in an object-oriented dataflow program is identified, where the first function includes an input of a parent data type and an output of the parent data type. The first function is analyzed to determine if the output preserves the run-time data type of the input. A second dataflow function in the object-oriented data flow program is identified, where the second function includes a program element that calls the first function, passing an input parameter of a child data type of the parent data type as input. If the analysis determines that an output parameter returned by the output of the first function will always be of the child data type, the program element is automatically configured at compile time to always downcast the output parameter from the parent data type to the child data type at run-time.

Abstract: System and method for implicit downcasting at compile time in a data flow program. A first data flow function in an object-oriented dataflow program is identified, where the first function includes an input of a parent data type and an output of the parent data type. The first function is analyzed to determine if the output preserves the run-time data type of the input. A second dataflow function in the object-oriented data flow program is identified, where the second function includes a program element that calls the first function, passing an input parameter of a child data type of the parent data type as input. If the analysis determines that an output parameter returned by the output of the first function will always be of the child data type, the program element is automatically configured at compile time to always downcast the output parameter from the parent data type to the child data type at run-time.

Abstract: A hybrid wheel alignment system and methodology use passive targets for a first pair of wheels (e.g. front wheels) and active sensing heads for another pair of wheels (e.g. rear wheels). The active sensing heads combine image sensors for capturing images of the targets with at least one spatial relationship sensor for sensing a relationship between the active sensing heads. One or both of the active sensing heads may include inclinometers or the like, for sensing one or more tilt angles of the respective sensing head. Data from the active sensing heads may be sent to a host computer for processing to derive one or more vehicle measurements, for example, for measurement of parameters useful in wheel alignment applications.

Abstract: A sensing head and system utilizes fault tolerant design and self-diagnosis. Alternative operation modes are provided when one or more functional modules or components fail. Unique designs provide redundant system resources. Self-diagnoses and tests are provided to isolate and identify sources of malfunctions.

Abstract: Inventory control systems for monitoring the removal and replacement of objects are described. An exemplary system includes at least one storage drawer, each storage drawer includes at least one storage location for storing objects, and configured to move in a first direction allowing increasing access to storage locations of the drawer, and a second direction allowing decreasing access to storage locations of the drawer. An image sensing device is provided to form at least one first image of the storage locations when a respective storage drawer moves in the second direction. The system includes a data processor configured to receive information representing images of the storage locations generated by the image sensing device, and determine an inventory condition of the objects stored in the respective storage drawer according to the at least one first image.

Abstract: A hybrid wheel alignment system and methodology use passive targets for a first pair of wheels (e.g. front wheels) and active sensing heads for another pair of wheels (e.g. rear wheels). The active sensing heads combine image sensors for capturing images of the targets with at least one spatial relationship sensor for sensing a relationship between the active sensing heads. One or both of the active sensing heads may include inclinometers or the like, for sensing one or more tilt angles of the respective sensing head. Data from the active sensing heads may be sent to a host computer for processing to derive one or more vehicle measurements, for example, for measurement of parameters useful in wheel alignment applications.

Abstract: Creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: A system and method for creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: A system and method for creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: System and method for analyzing a graphical program. A graphical program is provided that includes a plurality of interconnected nodes that visually indicate functionality of the program. The graphical program includes a plurality of block diagrams arranged in a hierarchical manner, including a top-level block diagram and one or more sub-block diagrams, where each block diagram includes a respective subset of the plurality of interconnected nodes. At least one of the block diagrams includes a node that includes at least one of the sub-block diagrams. When a block diagram executes, all the respective nodes of the block diagram execute. Each node in the plurality of interconnected nodes is configured to provide graphical code coverage information when executed. The graphical program is executed, thereby generating graphical code coverage information for the graphical program indicating which nodes executed, which is then stored.

Abstract: A system and method for creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: System and method for creating, configuring, representing, and using variables in programs. A graphical user interface (GUI) may be displayed in response to user input requesting creation and/or configuration of a variable for use in or comprised in one or more programs, e.g., on various devices. User input is received to the GUI configuring attributes of the variable, including: name, data type, and/or scope (e.g., local, global, or network). The configured attributes are stored and optionally displayed, e.g., in a resource tree, and the variable in each of the programs updated in accordance with the configured attributes. When at least one of the programs is incompatible with the configured variable, an error condition may be indicated, e.g., by providing information relating to portions of the program that are incompatible with the configured variable. The program may be modified in response to user input for compatibility with the configured variable.

Abstract: A system and method for creating and using configuration diagrams for configuring distributed systems. The methods described herein may be used for various types of operations in configuring distributed systems, including creating programs, managing programs in the distributed system, deploying programs to various distributed devices, configuring remote execution or inter-operation of distributed programs, and executing distributed applications. Embodiments of the invention utilize graphical iconic-based techniques for performing the above operations. The configuration diagram may include device icons which represent devices and program icons which represent programs. Device icons and program icons may be associated with each other to accomplish various program creation and deployment operations. Device icons and program icons may also interact with graphical program nodes or icons. Context sensitive device connections and/or program connections are displayed.

Abstract: A wheel alignment system may include a wheel alignment sensor configured to provide information relevant to the inclination of the wheel. The wheel alignment sensor may contain an encapsulated package. The encapsulated package may contain a micro electromechanical sensor configured to sense inclination of the micro electromechanical sensor and a digital signal processing system configured to compensate for a deficiency in the wheel alignment sensor. The wheel alignment system may also include a wheel alignment processing system associated with the wheel alignment sensor and configured to receive and process the information relevant to the inclination of the wheel from the wheel alignment sensor and to provide useful output relating to the information about the inclination of the wheel.

Abstract: System and method for creating a graphical program that uses multiple models of computation (MoC). A first plurality of graphical program elements is assembled in a graphical program in response to first input, where the assembled first plurality of graphical program elements have a first MoC. A structure is displayed in the graphical program indicating use of a second MoC for graphical program elements comprised within the interior of the structure. A second plurality of graphical program elements is assembled within the structure in response to second input, where the assembled second plurality of graphical program elements have the second MoC. The graphical program is executable to perform a function, for example, by executing the assembled first plurality of graphical program elements in accordance with the first model of computation, and executing the assembled second plurality of graphical program elements in accordance with the second model of computation.

Abstract: System and method for creating and executing a graphical program. A first plurality of graphical program elements (GPEs) having a first model of computation (MoC), e.g., homogenous dataflow, are assembled in a graphical program in response to first input. A structure, including an interior portion, is displayed in the graphical program, indicating use of a second MoC, e.g., multi-rate dataflow, for GPEs within the interior portion. A second plurality of GPEs having the second MoC are assembled within the interior portion of the structure in response to second input. The second plurality of GPEs are converted into a new third plurality of GPEs having the first MoC, e.g., by parsing the second plurality of GPEs to determine multiple primitives according to the second MoC, determining the third plurality of GPEs based on the primitives, and assembling the third plurality of GPEs in the graphical program.

Abstract: System and method for including an in-place structure in a graphical program. Input including the structure in the graphical program may be received, where the structure is displayed in the graphical program. At least one graphical program node may be associated with the structure. The at least one graphical program node may be executable to manipulate at least one of a first element or a second element. The structure may specify that data memory of the first element is useable as the data memory of the second element in the graphical program. The structure may be usable by a development environment to reduce memory usage of the graphical program during execution.

Abstract: System and method for including an in-place structure in a graphical program. Input including the structure in the graphical program may be received, where the structure is displayed in the graphical program. At least one graphical program node may be associated with the structure. The at least one graphical program node may be executable to manipulate at least one of a first element or a second element. The structure may specify that data memory of the first element is useable as the data memory of the second element in the graphical program. The structure may be usable by a development environment to reduce memory usage of the graphical program during execution.

Abstract: An integrated circuit (IC), for use in an imaging module of a wheel alignment system, incorporates an image sensor as well as a number of other features. Some of the added features are implemented within the integrated circuit. The IC also incorporates interfacing for signaling or communication with other devices in the imaging module or elsewhere in the wheel alignment system. Some examples of added internal features include a temperature sensor, unique chip ID, and chip power control. The addition of analog and/or digital I/O to the integrated circuit enables control of an image module illumination function, control of an imaging module positioning function, various cooling functions, and operator interface control. A communications hub may be added to the IC, to enable operation in a networked system environment.