99 results about "Touch user interface" patented technology

An electronic device coupleable to a display screen includes a camera system that acquires optical data of a user comfortably gesturing in a user-customizable interaction zone having a z₀ plane, while controlling operation of the device. Subtle gestures include hand movements commenced in a dynamically resizable and relocatable interaction zone. Preferably (x,y,z) locations in the interaction zone are mapped to two-dimensional display screen locations. Detected user hand movements can signal the device that an interaction is occurring in gesture mode. Device response includes presenting GUI on the display screen, creating user feedback including haptic feedback. User three-dimensional interaction can manipulate displayed virtual objects, including releasing such objects. User hand gesture trajectory clues enable the device to anticipate probable user intent and to appropriately update display screen renderings.

A sensory device (200) for providing a touchless user interface to a mobile device (100) is provided. The sensory device can include at least one appendage (210) having at least one sensor (220) that senses a finger (232) within a touchless sensing space (101), and a connector (230) for communicating sensory signals received by the at least one sensor to the mobile device. The sensory device can attach external to the mobile device. A controller (240) can trace a movement of the finger, recognize a pattern from the movement, and send the pattern to the mobile device. The controller can recognize finger gestures and send control commands associated with the finger gestures to the mobile device. A user can perform touchless acquire and select actions on or above a display or removable face plate to interact with the mobile device.

The invention provides 3D touch gesture recognition on touch surfaces incorporating finger posture detection and includes a touch user interface device in communication with a processing device. The interface device includes a sensor array for sensing spatial information of one or more regions of contact and provides finger contact information in the form of a stream of frame data. A frame is read from the sensor array, subjected to thresholding, normalization, and feature extraction operations to produce a features vector. A multi-dimensional gesture space is constructed having desired set of features, each represented by a space dimension. A gesture trajectory is a sequence of transitions between pre-calculated clusters, and when a specific gesture trajectory is detected, a control signal is generated.

Some embodiments provide a meta touch interface (MTI) with multiple position indicators with each position indicator operating as a separate pointing tool that can be activated (i) using taps on a touchpad or other touch sensitive surface or (ii) by pressing certain keyboard keys. The MT pointer allows for adjacent UI elements to be selected without having to reposition the MT pointer for each selection or activation. Some embodiments provide a multi-device UI that comprises at least two UIs, wherein the first UI is presented on an essentially horizontal plane that is aligned with operational focus and the second UI that is presented on an essentially vertical plane that is aligned with visual focus of the user. Some embodiments provide a precision pointer that includes an adjustable magnified region to better present underlying on-screen content, thereby allowing the user to more precisely position the pointer.

This invention relates to signal space architectures for generalized gesture capture. Embodiments of the invention includes a gesture-primitive approach involving families of “gesteme” from which gestures can be constructed, recognized, and modulated via prosody operations. Gestemes can be associated with signals in a signal space. Prosody operations can include temporal execution modulation, shape modulation, and modulations of other aspects of gestures and gestemes. The approaches can be used for advanced touch user interfaces such as High-Dimensional Touch Pad (HDTP) in touchpad and touchscreen forms, video camera hand-gesture user interfaces, eye-tracking user interfaces, etc.

The invention discloses a three-dimensional (3D) virtual projection and virtual touch user interface and an achieving method. The three dimensional virtual projection and virtual touch user interface comprises a depth detecting device, an eyes image optical parallax calculation module, an eyes image processing module, a 3D display device, a gesture identification module, a camera and a virtual touch controller. The depth detecting device detects to obtain distance information between the head and the hands of a user and the 3D display device, the eyes image optical parallax calculation module calculates eyes image optical parallax according to the distance information, the eyes image processing module processes an image according to information of the eyes image optical parallax and sends processed image to the three dimensional display device to be virtually projected in a scope of arm length of the user, the gesture identification module identifies user finger moving tracks through the depth detecting device and the camera, the virtual touch controller conducts corresponding reactions according to gestures and the moving tracks of the user. The 3D virtual projection and virtual touch user interface not only achieves the 3D virtual projection and virtual touch user interface with feedbacks, but also brings the user interactive experience which is convenient to use and novel.

A digital picture frame includes a near-touch user interface component that senses when an object is within a predetermined spatial region of the digital picture frame; a true-touch user interface component that senses physical contact with the digital picture frame; and a processor that receives input signals from the near-touch user interface component and the true-touch user interface component and executes device controls based on inputs from both user interface components.

Briefly, a feature rich touch subsystem is disclosed. The feature rich touch subsystem includes one or more novel user input capabilities that enhance the user experience.

System and method involving user interfaces and remote control devices. These user interfaces may be particularly useful for providing an intuitive and user friendly interaction between a user and a device or application using a display, e.g., at a “10 foot” interaction level. The user interfaces may be specifically designed for interaction using a simple remote control device having a limited number of inputs. For example, the simple remote control may include directional inputs (e.g., up, down, left, right), a confirmation input (e.g., ok), and possibly a mute input. The user interface may be customized based on current user activity or other contexts (e.g., based on current or previous states), the user logging in (e.g., using a communication device), etc. Additionally, the user interface may allow the user to adjust cameras whose video are not currently displayed, rejoin previously left videoconferences, and/or any of a variety of desirable actions.

Various examples are directed to an electronic device capable of touch input through a touch-sensitive surface and/or voice input through a microphone. In some examples, the electronic device may be used in an automobile. For example, some or all of the electronic device may be mounted in a dashboard for use while driving. The electronic device may provide informational content, entertainment content, navigation, and communication features in such a manner that user interaction may be minimized, thus providing a safe driving experience. This can be accomplished by performing tasks and presenting content automatically, without the need for user input, and by allowing user input through voice controls, touch screen controls, and/or physical controls mounted on the dashboard or steering wheel, among other possibilities.

Techniques for concurrently presenting multiple, distinct user interfaces for a single software application on multiple display devices. Each of the user interfaces can be interactive, such that user input received with respect to any of the user interfaces (presented on any of the display devices) can change the state of the application and/or modify data associated with the application. Further, this state or data change can be reflected in all (or a subset) of the user interfaces.

In an electronic, context-sensitive controller system for a medical technology device, at least one external input and output device, with a touchscreen user interface, is provided with an adapter module. The medical technology device is operated and/or controlled via a computer-assisted application in order to exchange data with a control module. An interface between the adapter module and the control module is designed to exchange control data for control of the medical technology device via the touchscreen user interface of the external input and output device.

Systems and methods are provided for populating user information onto an electronic form using human interactions via touch, voice, gestures or an input device. The electronic form is selected by the user for completion using a user profile of stored data. When a form field requires a manual input—such as a form field with multiple potential values—a user is prompted to complete the field using one or more of the human interactions to allow the user to easily complete the field. These human interactions may include touching the form field with a finger on a touchscreen user interface, speaking the form field name, gesturing or selecting via the input device to generate a window of different potential values, and then touching, speaking, gesturing of selecting via the input device the value that the user prefers.

A system and a method are disclosed for providing a touch interface for electronic devices. The touch interface can be any surface. As one example, a table top can be used as a touch sensitive interface. In one embodiment, the system determines a touch region of the surface, and correlates that touch region to a display of an electronic device for which input is provided. The system may have a 3D camera that identifies the relative position of a user's hands to the touch region to allow for user input. Note that the user's hands do not occlude the display. The system may render a representation of the user's hand on the display in order for the user to interact with elements on the display screen.

A user interface method and a mobile terminal is disclosed. If a finger touches and moves in a specific direction on a keypad having a touch sensor, a touch is detected by the touch sensor and a type of touch direction is identified by a control unit according to the angle of a touch direction. A screen of a display unit is partitioned into a plurality of blocks, and a screen highlight is located at a specific block. The control unit for moving the screen highlight on the display unit according to the type of the touch direction. A path of the screen highlight is set in one of a forward direction with continuous movement, a forward direction with discontinuous movement, a backward direction with continuous movement, and a backward direction with discontinuous movement. A user interface according to the present invention can include a pointer in the display unit, the pointer being controlled by linking a pointer position with a touch position.

By enabling mobile devices, such as smart phones and tablets, to leverage native user interface components, the methods and systems described herein provide users a more seamless experience, wherein the user can potentially be oblivious to the fact that the application is not executing locally on the mobile device. In some embodiments, a user interface is provided which the user uses to trigger the display of a native user interface component. In some embodiments, the systems and methods described herein auto-adjust the pan and zoom settings on the mobile device to ensure that remote windows are presented in a manner that makes it easier for the user to interact with the device. The systems and methods described herein permit the user to switch to the new window in focus or a visual cue may be displayed to indicate that a window has been created somewhere on the remote desktop.

A computing system for displaying a GUI element on a natural user interface is described herein. The computing system includes a display configured to display a natural user interface of a program executed on the computing system, and a gesture sensor configured to detect a gesture input directed at the natural user interface by a user. The computing system also includes a processor configured to execute a gesture-recognizing module for recognizing a registration phase, an operation phase, and a termination phase of the gesture input, and a gesture assist module configured to first display a GUI element overlaid upon the natural user interface in response to recognition of the registration phase. The GUI element includes a visual or audio operation cue to prompt the user to carry out the operation phase of the gesture input, and a selector manipulatable by the user via the operation phase of the gesture.

The present invention is based on a touch based control of a user terminal. The touch based control may comprise a touch screen, a touch pad or other touch user interface enabling “multitouch”, where a touch sensing surface is able to recognize presence of two or more touch points. Two detected touch points on the sensing surface define end points of a line segment. Length of the line segment is determined providing basis for a first control signal and angle of the line segment compared to a reference line is determined providing basis for a second control signal. These control signals are used to control a moving object in a virtual space.

The invention discloses an interface UI (user interface) control configuration method based on description. The method includes the steps: step one, describing attributes and events of controls in a graphical form designer; step two, describing editor information associated with the attributes and the events of the controls in the graphical form designer; step three, describing control rules of the attributes of the controls during editing on the graphical form designer; step four, describing Xm1 element structures generated on the graphical form designer by the controls; step five, describing generative rules of the controls in generation of deployment engines. The interface UI control configuration method based on description has the advantages that flexibility in extension of the attributes of the UI controls can be realized, the method is supportive to combinational configuration of controls different in edition and form type, and requirements on flexible configuration in development of different types of forms can be met.