Abstract: Technologies for manipulating a graphical user interface (GUI) of a display of a computing device include a touch screen of the display capable of receiving user input via physical contact of the user's fingers. The computing device determines whether the user has initiated multi-finger input gesture from which and a hand rotation angle may be determined based on touch points corresponding to the physical contact between the user's fingers and the touch screen. Based on the hand rotation angle, the computing device may take an action on the GUI, such as rotate an orientation of the GUI and/or display a virtual keyboard on the GUI relative to the hand rotation angle and/or the touch points. Other embodiments are described herein and claimed.

Abstract: An example system for generating hardware device input includes a gesture detector to detect an input device trigger from one of two coupled touch-enabled displays. The example system also further includes a redirector to intercept touch data from a triggered touch-enabled display. The example system further includes an emulator to generate hardware input data based on the intercepted touch data and send the hardware input data to an operating system. The example system also includes a user interface to display a virtual input device on the triggered touch-enabled display and receive touch data via the virtual input device.

Abstract: An example system for generating hardware device input includes a gesture detector to detect an input device trigger from one of two coupled touch-enabled displays. The example system also further includes a redirector to intercept touch data from a triggered touch-enabled display. The example system further includes an emulator to generate hardware input data based on the intercepted touch data and send the hardware input data to an operating system. The example system also includes a user interface to display a virtual input device on the triggered touch-enabled display and receive touch data via the virtual input device.

Abstract: An apparatus for fast inking a touch display is described herein. The system for fast inking a touch display can include receiving touch input and generate touch sensor data. The system can include a graphics processing unit (GPU) including a fast inker and a display pipeline. The GPU can transmit human interface device (HID) data generated from the touch sensor data to a writing application memory and the fast inker. The fast inker can convert the HID data into inking data to be sent to the display pipeline through a direct hardware path. The writing application can convert the HID data into inking data to be sent to the display pipeline. The system can also include a touch display to display pixels marked according to the inking data received by the display pipeline.

Abstract: An apparatus for fast inking a touch display is described herein. The system for fast inking a touch display can include receiving touch input and generate touch sensor data. The system can include a graphics processing unit (GPU) including a fast inker and a display pipeline. The GPU can transmit human interface device (HID) data generated from the touch sensor data to a writing application memory and the fast inker. The fast inker can convert the HID data into inking data to be sent to the display pipeline through a direct hardware path. The writing application can convert the HID data into inking data to be sent to the display pipeline. The system can also include a touch display to display pixels marked according to the inking data received by the display pipeline.

Abstract: Systems and methods may provide for a debug tool including a debug port and a controller including logic to send, via the debug port, a debug mode request to an external port of a target device. Additionally, the target device may include a connector having the external port and a port controller coupled to the external port, wherein the port controller includes logic to detect the debug mode request via the external port, activate a program path between the external port and the port controller in response to the debug mode request, and process one or more commands received via the program path. In one example, the target device further includes a multiplexer coupled to the external port and the port controller, wherein the logic is to send a routing signal to the multiplexer to activate the program path.

Abstract: The present disclosure provides systems and methods for stream-based media management. A device may be configured to receive information streams including displayable content and to at least display the displayable content. For example, a stream manager in the device may be configured to control how the displayable content is displayed on a display in the device based on activity detected in the information streams. The activity may be defined by user preferences as trigger activities. For example, upon detecting a trigger activity in an information stream, the stream manager may cause the displayable content to be displayed or hidden, may cause the manner in which the displayable content is displayed (e.g., size, shape, order, etc.) to be altered, or may cause a visible or audible alert to be generated.

Abstract: In accordance with some embodiments, a touch input device such as a touch screen or track pad or touch pad may be operated in mouse mode by touching the screen simultaneously with more than one finger. In one embodiment, three fingers may be utilized. The three fingers in one embodiment may be the thumb, together with the index finger and the middle finger. Then the index finger and the middle finger may be used to left or right click to enter a virtual mouse command.

Abstract: Generally, this disclosure provides systems and methods to facilitate real-time language translation between two speakers. A system may include an audio beamforming microphone configured to detect speech in a first language from a first speaker and to detect speech in a second language from a second speaker; a language translation module configured to translate the speech in the first language to text in the second language and to translate the speech in the second language to text in the first language; and a display element configured with a first display element side and a second display element side and further configured to display the text in the first language on the first display element side and to display the text in the second language on the second display element side.

Abstract: Technologies for manipulating a graphical user interface (GUI) of a display of a computing device include a touch screen of the display capable of receiving user input via physical contact of the user's fingers. The computing device determines whether the user has initiated multi-finger input gesture from which and a hand rotation angle may be determined based on touch points corresponding to the physical contact between the user's fingers and the touch screen. Based on the hand rotation angle, the computing device may take an action on the GUI, such as rotate an orientation of the GUI and/or display a virtual keyboard on the GUI relative to the hand rotation angle and/or the touch points. Other embodiments are described herein and claimed.

Abstract: An adaptor may include a base modular unit that includes a plurality of surface connectors, a first port and circuitry. At least one surface connector may couple to an expansion modular unit. Circuitry or logic may provide information from the first port to the at least one surface connector.

Abstract: For one disclosed embodiment, an apparatus includes a first housing and a second housing coupled to the first housing. The first housing and the second housing are rotatable between an open configuration and a closed configuration. The apparatus further includes and a touch input device supported by the first housing. The touch input device is configured to have a first active touch surface when the first housing and the second housing are in the open configuration, and a second active touch surface when the first housing and the second housing are in the closed configuration. The first active touch surface is smaller than the second active touch surface.

Abstract: Systems and methods may provide for a debug tool including a debug port and a controller including logic to send, via the debug port, a debug mode request to an external port of a target device. Additionally, the target device may include a connector having the external port and a port controller coupled to the external port, wherein the port controller includes logic to detect the debug mode request via the external port, activate a program path between the external port and the port controller in response to the debug mode request, and process one or more commands received via the program path. In one example, the target device further includes a multiplexer coupled to the external port and the port controller, wherein the logic is to send a routing signal to the multiplexer to activate the program path.

Abstract: In one example a electronic device comprises at least one heat generating component, a thermal management module comprising logic, at least partly including hardware logic, to receive a signal from the sensor indicating that the electronic device is coupled to an external device, receive thermal dissipation capability data from the external device, and update a thermal management platform for the electronic device to accommodate the thermal dissipation capability data received from the external device. Other examples may be described.

Abstract: For one disclosed embodiment, an apparatus includes a first housing and a touch input device supported by the first housing. The touch input device includes a first touch surface layer, a second touch surface layer, and a touch sensor disposed between the first touch surface layer and the second touch surface layer. The touch sensor is configured to detect a first touch input associated with the first touch surface layer and a second touch input associated with the second touch surface layer.

Abstract: A disclosed data processing system includes a processor and an operating system kernel that includes communication drivers to support sideband interrupt deferring of polling associated with I/O requests. The communication drivers may implement a driver stack that includes a sideband miniport driver to detect an application program read request for device data from an input/output (I/O) device. The I/O device may be a sensor or another type of human interface device. The sideband miniport driver may pend the read request and maintain an interrupt pipe of a communication transport between the host system and the I/O device in a disabled state. With the interrupt pipe disabled, the host system drivers are unable to poll the I/O device. The sideband miniport driver may pend the read request and keep the interrupt pipe disabled until a sideband interrupt is communicated to the sideband miniport driver.

Abstract: An electronic device may include a first wireless communication component and a second wireless communication component. The first wireless communication component is to operate (or communicate) using a first protocol, and to receive a wireless signal from another device by the first protocol. The second wireless communication component is to operate (or communicate) using a second protocol, and to begin communicating with the another device using the second protocol in response to receiving a trigger signal.

Abstract: An adaptor may include a base modular unit that includes a plurality of surface connectors, a first port and circuitry. At least one surface connector may couple to an expansion modular unit. Circuitry or logic may provide information from the first port to the at least one surface connector.

Abstract: Methods and apparatus relating to variable touch screen scanning rate based on user presence detection are described. In one embodiment, the scan rate of a touch screen is modified based on proximity data. The proximity data indicates the proximity of a user to the touch screen. The proximity data is generated by one or more proximity sensors that are communicatively coupled (e.g., via a scan rate control logic) to the touch screen. Other embodiments are also disclosed and claimed.

Abstract: Generally, this disclosure provides systems and methods to facilitate real-time language translation between two speakers. A system may include an audio beamforming microphone configured to detect speech in a first language from a first speaker and to detect speech in a second language from a second speaker; a language translation module configured to translate the speech in the first language to text in the second language and to translate the speech in the second language to text in the first language; and a display element configured with a first display element side and a second display element side and further configured to display the text in the first language on the first display element side and to display the text in the second language on the second display element side.