Abstract: The present disclosure generally relates to providing media playback controls to a user. In some embodiments, methods and user interfaces for displaying media playback controls are described.

Abstract: A display unit is connected to an agricultural implement to provide inputs and operational controls, as well as status and set up, of the implement. The display unit can be a touchscreen or other device that can receive inputs to set up, control, store information, and recall information associated with the operation of the agricultural implement. The display unit can provide a number of different types of inputs to allow for the control of the various components of the implement. An alert system can provide tiered alerts, such as based upon the severity of the alerts, to provide for notice to a user as to one or more issues associated with the implement or an operation thereof.

Abstract: An approach is disclosed for providing digital street hailing. The approach involves, for example, initiating an activation of a camera of a passenger device to present live imagery thereon. The approach also involves processing sensor data collected from sensor(s) of the passenger device to determine a pointing direction of the camera. The approach further involves identifying vehicle(s) in the live imagery based at least on the pointing direction. The approach further involves retrieving driver information of the vehicle(s) via a network. The approach further involves initiating a repreparation of the driver information on a user interface of the passenger device. The approach further involves, in response to a user selection of one of the vehicle(s) based on the repreparation, initiating a repreparation of additional information of the selected vehicle on the passenger device, and/or a transmission of a ride request to a device associated with the selected vehicle.

Abstract: An apparatus includes at least one memory configured to store map data. The apparatus also includes at least one processor configured to segment one or more objects from one or more environment surfaces in the map data. The at least one processor is also configured to determine an offset based on a projectile drift. The at least one processor is further configured to generate a safety bounding box around each of the one or more objects using the offset.

Abstract: A computer-implemented method, system and computer program product for recording information in a user interface of an application more desired to be seen and heard by viewers. A user interface of an application (e.g., gaming application) is displayed. Upon detecting an initiation of recording the user interface of the application, the user interface of the application is modified to ensure that the information desired to be viewed and heard by the viewers is recorded, such as by adjusting a size of a user interface element, adjusting an audio element of the user interface, etc. After such modifications, the modified user interface of the application is recorded and broadcasted to viewers via a video live streaming service. In this manner, viewers are able to see and hear information desired to be viewed and heard that may have been previously lost during the recording of the user interface prior to such modifications.

Abstract: An attitude display system for use in an aircraft has at least one display unit visible by a pilot within a cockpit. A symbology generator is configured for receiving input from at least one attitude sensor and generating symbology image data representative of a pear-shaped attitude indicator, distorted vertically to represent a pitch of the aircraft and rotated to represent a roll angle of the aircraft. The symbology generator may further be configured for adding a horizontal line that represents a horizon, a regular trapezoid representing a downward gravity vector at a base of the trapezoid, a pitch angle of the aircraft, split wings representing an angle of attack of the aircraft, and a stall warning in a sawtooth crack shape. A tail portion of a T-shape with the curved top edge is itself curved in a direction opposite that of an aircraft spin direction.

Abstract: A self-flying hands-free massage apparatus includes: a drone or quad-copter component, configured to autonomously fly and hover in air; multiple video cameras that capture live video of the surroundings; and a processor that performs real-time computer vision analysis of live video, to guide the apparatus at which directions to fly and where to remain hovering. The self-flying apparatus remains hovering approximately 50 to 100 centimeters from a Target Body-Region, such as shoulders or upper-back of a human. A telescopic arm extends from the hovering apparatus, and pivots or rotates to bring an affixed electric massage unit towards the Target Body-Region, for massaging it. Tactile sensors detect touch, and assist in confirming that autonomous hands-free massaging is indeed performed. Data sensed by LIDAR sensors and thermal imagers assists in commanding the self-flying apparatus and its telescopic arm, and augments data obtained by computer vision analysis of live video from the video cameras.

Abstract: Method starts with processor causing virtual reality (VR) interface for communication session to be displayed on first user interface of a first head-wearable apparatus and on second user interface of second head-wearable apparatus. Processor detects first touch input from first VR input device and second touch input from second VR input device. Processor monitors location of the first touch input within the first user interface and location of the second touch input within second user interface. Processor determines distance between location of the first touch input within first user interface and location on first user interface corresponding to location of second touch input within second user interface. Processor causes first and second VR input devices to generate haptic feedback response based on the distance. Haptic feedback response increases in intensity or speed as distance decreases and decreases in intensity or speed as distance increases. Other embodiments are described herein.

Abstract: Techniques for configuring layouts and display view hierarchies and presenting display views in an operating environment of a process plant according to the layouts and display view hierarchies include providing graphical user controls at a graphical display configuration application for defining a layout. The layouts indicate a manner in which divide one or several display screens into one or several display regions, where each display region presents a display view that includes indications of process control elements. The graphical display configuration application also includes graphical user controls for defining a display view hierarchy of the display views by assigning levels of detail to the display views and designating some of the display views as subviews of other display views. An operator application obtains the defined layout and display view hierarchy and presents the display views at an operator workstation according to the obtained layout and/or display view hierarchy.

Abstract: An interactive device is described that is configured to: display an output of a remote device, wherein an output delay exists between the output being generated by the remote device and the output being displayed on the interactive device, generate an interaction data in dependence on an interaction with the interactive device at a location, transmit the interaction data to the remote device, display an updated output of the remote device, the updated output being generated by the remote device subsequent to receiving the interaction data, wherein the interactive device being further configured to: generate an interaction image of an area of the updated output of the remote device corresponding to the location of the interaction, determine an interaction indication in dependence on the interaction image, displaying an interaction indication on the interactive device at a location of one or more further interactions with the interactive device.

Abstract: A control knob for an appliance deploys a round bezel region that surround a fixed electronic display panel that is touch sensitive. The appliance state or operating condition is modified by the user rotating the bezel and selecting graphic user interface (GUI) icons on the electronic display. The bezel orientation modifies the GUI to display icons that operate the appliance in different modes. In a first mode of power control, the GUI displays power levels and the bezel orientation modifies the power level. In a second mode, the GUI displays temperature settings and the bezel orientation modifies the temperature. The GUI displays icons that when activated switch between the first and second mode as well as turn off the appliance. Another icon may activate a third mode that enables control and display of other settings, such as temperature units, time and date, count down timers and the like.

Abstract: A device implementing a system for power management includes at least one processor configured to, detect first gesture state associated with motion of a device, the first gesture state being associated with meeting a first threshold of device motion, and set, in response to detecting the first gesture state, the device to a first power state. The at least one processor is further configured to detect, subsequent to detecting the first gesture state, a second gesture state associated with motion of the device, the second gesture state being associated with meeting a second threshold of device motion, and set, in response to detecting the second gesture state, the device to a second power state. The at least one processor is further configured to update, based on setting the device to the second power state, image data on a display of the device.

Abstract: An information processing system that a user easily masters a relation between an execution process and an utterance instruction. The information processing system includes a display device, a microphone, an output unit, a display control unit, and an execution unit. The display device can display information. The microphone can obtain voice. The output unit outputs word information based on voice in natural language obtained with the microphone. The display control unit additionally displays utterance examples in association with touch objects included in a screen that is currently displayed on the display device. The execution unit executes a predetermined process linked to a touch object based on words included in a corresponding utterance example and the output word information at least.

Abstract: Method starts with processor causing virtual reality (VR) interface for communication session to be displayed on first user interface of a first head-wearable apparatus and on second user interface of second head-wearable apparatus. Processor detects first touch input from first VR input device and second touch input from second VR input device. Processor monitors location of the first touch input within the first user interface and location of the second touch input within second user interface. Processor determines distance between location of the first touch input within first user interface and location on first user interface corresponding to location of second touch input within second user interface. Processor causes first and second VR input devices to generate haptic feedback response based on the distance. Haptic feedback response increases in intensity or speed as distance decreases and decreases in intensity or speed as distance increases. Other embodiments are described herein.

Abstract: A computer device comprises a screen (6) capable of touch acquisition, and a processor (8) designed to control the display of a depiction of a keypad on a keypad portion (10) of the screen (6) and to determine textual input data when a touch input tool is moved over the keypad portion (10) of the screen (6). The processor (8)is furthermore designed, when a touch input tool is moved continuously over the screen (6), to detect the movement of the touch input tool from the keypad portion (10) to a control portion (12) of the screen (6), to detect the movement of the touch input tool into the control portion (12) and determine a system operation on the basis of this movement, and, if the continuous movement ends in the control portion (12), to execute the system operation.

Abstract: Method starts with processor causing virtual reality (VR) interface for communication session to be displayed on first user interface of a first head-wearable apparatus and on second user interface of second head-wearable apparatus. Processor detects first touch input from first VR input device and second touch input from second VR input device. Processor monitors location of the first touch input within the first user interface and location of the second touch input within second user interface. Processor determines distance between location of the first touch input within first user interface and location on first user interface corresponding to location of second touch input within second user interface. Processor causes first and second VR input devices to generate haptic feedback response based on the distance. Haptic feedback response increases in intensity or speed as distance decreases and decreases in intensity or speed as distance increases. Other embodiments are described herein.

Abstract: A device and method for controlling the audio level of a device are provided. The device includes a housing, a roll unit mounted such that it is able to rotate in the housing, a flexible, touch-sensitive display configured to be rolled on the roll unit around a roll axis so that a first, curved portion of the display forms a side screen bent around the roll unit, and a second, planar portion of the display forms a front screen, wherein the area of the front screen changes according to a rotation of the roll unit, and a controller configured to adjust, in response to detecting a predefined multi-touch gesture on the side screen, an audio output volume of the device.

Abstract: Method starts with processor causing virtual reality (VR) interface for communication session to be displayed on first user interface of a first head-wearable apparatus and on second user interface of second head-wearable apparatus. Processor detects first touch input from first VR input device and second touch input from second VR input device. Processor monitors location of the first touch input within the first user interface and location of the second touch input within second user interface. Processor determines distance between location of the first touch input within first user interface and location on first user interface corresponding to location of second touch input within second user interface. Processor causes first and second VR input devices to generate haptic feedback response based on the distance. Haptic feedback response increases in intensity or speed as distance decreases and decreases in intensity or speed as distance increases. Other embodiments are described herein.

Abstract: A data processing device comprises: a displaying unit that displays various different screens; an operation receiving unit, which is layered on the displaying unit, that receives operation inputted from a user on the screen; an operation evaluating unit that evaluates contents of the operation by the user on the operation receiving unit; and a screen generating unit that generates a screen including a operation object, and changes the screen in response to the contents of an operation. The operation evaluating unit switches its mode from first mode of a default state to a second mode in response to a drag operation in the lengthwise direction of the operation object on the operation object on the screen, and evaluates an identical drag operation in a direction that is different from the lengthwise direction of the operation object to be different instruction operations between the first mode and the second mode.

Abstract: An image sharing method implemented on a first electronic device having a touchscreen includes establishing, by the first electronic device, a first wireless link with a second electronic device by using a short-range wireless communications technology. The method further includes sending, by the first electronic device, face feature information to the second electronic device over the first wireless link. The method further includes receiving, by the first electronic device, a matching result sent by the second electronic device. When the first electronic device determines that the matching result is matching success information, the method further includes sending, by the first electronic device, an image (for example, a photo or a video) corresponding to the face feature information to the second electronic device.