Abstract: A multi-modal user interface is described that hides response latency delays. A graphical user interface (GUI) supports different user input modalities including low delay inputs which respond to user inputs without significant delay, and high latency inputs which have a significant response latency after receiving a user input before providing a corresponding completed response. The GUI accepts user inputs in a sequence of mixed input modalities independently of response latencies without waiting for responses to high latency inputs, and responds to each user input in the sequence as if each preceding user input in the sequence had been performed without response latencies.

Abstract: At design time of a graphical user interface (GUI), a software component (VUIcontroller) is added to the GUI. At run time of the GUI, the VUIcontroller analyzes the GUI from within a process that executes the GUI. From this analysis, the VUIcontroller automatically generates a voice command set, such as a speech-recognition grammar, that corresponds to controls of the GUI. The generated voice command set is made available to a speech recognition engine, thereby speech-enabling the GUI. Optionally, a GUI designer may add properties to ones of the GUI controls at GUI design time, without necessarily writing a voice command set. These properties, if specified, are then used at GUI run time to control or influence the analysis of the GUI and the automatic generation of the voice command set.

Abstract: A multi-modal user interface is described that hides response latency delays. A graphical user interface (GUI) supports different user input modalities including low delay inputs which respond to user inputs without significant delay, and high latency inputs which have a significant response latency after receiving a user input before providing a corresponding completed response. The GUI accepts user inputs in a sequence of mixed input modalities independently of response latencies without waiting for responses to high latency inputs, and responds to each user input in the sequence as if each preceding user input in the sequence had been performed without response latencies.

Abstract: At design time of a graphical user interface (GUI), a software component (VUIcontroller) is added to the GUI. At run time of the GUI, the VUIcontroller analyzes the GUI from within a process that executes the GUI. From this analysis, the VUIcontroller automatically generates a voice command set, such as a speech-recognition grammar, that corresponds to controls of the GUI. The generated voice command set is made available to a speech recognition engine, thereby speech-enabling the GUI. Optionally, a GUI designer may add properties to ones of the GUI controls at GUI design time, without necessarily writing a voice command set. These properties, if specified, are then used at GUI run time to control or influence the analysis of the GUI and the automatic generation of the voice command set.

Abstract: In a text processing system (1) are provided a speech recognition device (2) to which a spoken command information signal (SI) can be applied in a command inputting mode of the speech recognition device (2) and which is arranged for producing a control data (CI) assigned to one of the applied spoken command information signals (SI), and a text processing device (20, 21) which can be brought to an active state for processing a text data (TI), while a text-block data (MT) of a stored text data (TI) can be featured in the text processing device (20, 21) and the text processing device (20, 21) can be supplied with a control data (CI) by the speech recognition device (2) for changing a featured text-block data (MT) and, furthermore, text change means (32) are provided to which a further control data (BI) assigned to a further spoken command information signal (SI) can be delivered in the command inputting mode of the speech recognition device (2), while the text change means (32) are arranged for changing a text-b