Abstract: A surgical instrument, has an end effector that includes an ultrasonic blade, and a clamp arm that moves relative to the ultrasonic blade from an opened position toward an intermediate position and a closed position. The clamp arm is offset from the ultrasonic blade to define a predetermined gap in the intermediate position between the opened position and the closed position. A clamp arm actuator connects to the clamp arm and moves from an opened configuration to a closed configuration to direct the clamp arm from the opened position toward the intermediate position and the closed position. A spacer connects with the clamp arm to inhibit movement of the clamp arm from the intermediate position toward the closed position for maintaining the predetermined gap between the clamp arm and the ultrasonic blade.

Abstract: A user interface can be maintained in a responsive state on a user interface thread while synchronous application logic is running on a background thread. The application logic can access an object on the background thread, and the user interface can access the same object on the user interface thread. Additionally, a request for work to be done on an object can be received. If the request is to be dispatched to a background thread, then the work can be dispatched to the background thread without blocking the user interface thread. However, if the request is to be dispatched to the user interface thread, then the work can be dispatched to the user interface thread, and the background thread can be blocked.

Abstract: The isolation of user-interactive components form the logical components of an exemplary computing application environment is provided. In an illustrative implementation, an exemplary computing application environment comprises one or more user interface (UI) elements that run on an exemplary user-interface processing thread and application logic that illustratively operatively runs asynchronously on at least one other processing thread. In an illustrative implementation an isolation boundary is provided between an exemplary user interface and the application logic of the exemplary computing application environment. In the illustrative implementation, the isolation boundary can comprise an asynchronous view contract comprising a channel between an exemplary view layer of an exemplary user interface (e.g., one or more user-interactive components) and application logic.

Abstract: A user interface can be maintained in a responsive state on a user interface thread while synchronous application logic is running on a background thread. The application logic can access an object on the background thread, and the user interface can access the same object on the user interface thread. Additionally, a request for work to be done on an object can be received. If the request is to be dispatched to a background thread, then the work can be dispatched to the background thread without blocking the user interface thread. However, if the request is to be dispatched to the user interface thread, then the work can be dispatched to the user interface thread, and the background thread can be blocked.

Abstract: A client or Web application assembly or group of assemblies is bound to a version of shared assemblies associated with a particular targeted execution environment. The targeted execution environment (and thus the version of shared assemblies associated with it) may be selected or detected. A file such as a configuration file is automatically modified. The selected or detected execution environment may be the same as or different than the local version. The client or Web assembly is automatically bound to the targeted shared assemblies. A user interface enables the selection of a particular execution environment. Alternatively, a user interface informs of the detected targeted execution environment and enables the reconfiguration of the Web assembly. This invention provides a mechanism and process for maintaining legacy software after a new software development tool is installed, without deploying a new version of shared assemblies.

Abstract: The isolation of user-interactive components form the logical components of an exemplary computing application environment is provided. In an illustrative implementation, an exemplary computing application environment comprises one or more user interface (UI) elements that run on an exemplary user-interface processing thread and application logic that illustratively operatively runs asynchronously on at least one other processing thread. In an illustrative implementation an isolation boundary is provided between an exemplary user interface and the application logic of the exemplary computing application environment. In the illustrative implementation, the isolation boundary can comprise an asynchronous view contract comprising a channel between an exemplary view layer of an exemplary user interface (e.g., one or more user-interactive components) and application logic.

Abstract: A system and method of providing edit and continue support in a software program debugging environment. “Edit and continue” support allows a user (e.g., programmer and/or developer) to update the code and/or data structure(s) of an executing program while it is running. After the user has finished editing their code and resumes execution, an integrated development environment (IDE) propagates the edit(s) into a common language runtime (CLR) environment before continuing. Therefore, from the CLR environment's perspective, an edit is a block of intermediate language code (IL) and/or metadata that is inserted into a running process. Moreover, The IDE can facilitate: determining “legality” of an edit; building the edit; sending the edit to the CLR environment; and/or, facilitating the CLR environment switch execution to the edited code.

Abstract: A type inference option is available for a computer programming language. The option acts as a switch to specify whether or not type inference is applicable (e.g., on or off). Type inference can be employed in conjunction with late binding or options therefor. In this manner, a computer program can be developed with the convenience of type inference and the flexibility of late binding while still maintaining at a degree of type safety.

Abstract: Architecture for developing an application. The architecture provides an entry point to commonly used classes of an application development framework. A developer begins a project which predefines a set of collection classes. An exposer component includes an identifier component and a compiler for generating accessors to the collected classes. The identifier uses an attribute on a collection class which a compiler dynamically extracts in order to generate accessors to the desired collected classes and compiles the generated collection classes for use in the namespace.

Abstract: Interoperability of a first framework or platform (e.g., COM) and a second different framework or platform (e.g., .NET) is provided via an attribute mechanism. The attribute mechanism is provided in a non-COM based platform (e.g., .NET) to expose classes to COM. In this manner, a compiler (e.g., the .NET compiler) creates class and events interfaces and adds attributes to the class and interfaces as appropriate for correct interoperability and marshaling. By adding this attribute mechanism to a class in .NET, the .NET compiler is able to use the class declarations (such as public methods, properties, and events) to automatically generate a class interface and an events interface, including appropriate dispatch IDs and GUIDs. Validation is performed on the class being mapped to provide an indication, such as an error message or warning, to the user that the underlying framework marshaling layer cannot marshal certain data types as desired or expected.

Abstract: A client or Web application assembly or group of assemblies is bound to a version of shared assemblies associated with a particular targeted execution environment. The targeted execution environment (and thus the version of shared assemblies associated with it) may be selected or detected. A file such as a configuration file is automatically modified. The selected or detected execution environment may be the same as or different than the local version. The client or Web assembly is automatically bound to the targeted shared assemblies. A user interface enables the selection of a particular execution environment. Alternatively, a user interface informs of the detected targeted execution environment and enables the reconfiguration of the Web assembly. This invention provides a mechanism and process for maintaining legacy software after a new software development tool is installed, without deploying a new version of shared assemblies.

Abstract: Interoperability of a first framework or platform (e.g., COM) and a second different framework or platform (e.g., .NET) is provided via an attribute mechanism. The attribute mechanism is provided in a non-COM based platform (e.g., .NET) to expose classes to COM. In this manner, a compiler (e.g., the .NET compiler) creates class and events interfaces and adds attributes to the class and interfaces as appropriate for correct interoperability and marshaling. By adding this attribute mechanism to a class in .NET, the NET compiler is able to use the class declarations (such as public methods, properties, and events) to automatically generate a class interface and an events interface, including appropriate dispatch IDs and GUIDs. Validation is performed on the class being mapped to provide an indication, such as an error message or warning, to the user that the underlying framework marshaling layer cannot marshal certain data types as desired or expected.