Abstract: Embodiments are directed toward apparatuses, systems, and methods to implement policies for dynamically switching between an integrated graphics mode and a discrete graphics mode for providing a display signal to an external USB Type-C port. Some embodiments include a controller configured to provide signals to a first multiplexer and to a second multiplexer, and based on a platform policy, control the at least first or the second multiplexer to dynamically switch to the first graphics mode to output signals received from an integrated graphics controller to the external USB Type-C port or to switch to the second graphics mode to output signals received from a discrete graphics controller to the external USB Type-C port. Other embodiments may be described and/or claimed.

Abstract: The subject innovation relates to an apparatus that includes an integrated case with all parts disposed within. The apparatus includes a processor, at least two displays, at least two cameras, and a storage system. The storage system comprises code to direct the processor to obtain input from the at least two cameras, and provide display information to the at least two displays.

Abstract: Systems and methods may provide for implementing dynamically adaptive frequency adjustment. In one example, the method may include analyzing a first set of transmission information and a second set of transmission information based on a likelihood of transmission interference, and determining a dynamically adapted camera frequency, wherein the dynamically adapted camera frequency is to minimize the transmission interference.

Abstract: An example of an electronic device with a first camera and a second camera is described. The first camera receives a first image stream, and the second camera receives a second image stream that includes a face of a user of the electronic device. The electronic device also includes a camera control module that identifies gesture based on a change in the second image stream, identifies a camera control feature of the first camera based on the gesture, and activates the camera control feature for the first camera.

Abstract: An example of an electronic device with a first camera and a second camera is described. The first camera receives a first image stream, and the second camera receives a second image stream that includes a face of a user of the electronic device. The electronic device also includes a camera control module that identifies gesture based on a change in the second image stream, identifies a camera control feature of the first camera based on the gesture, and activates the camera control feature for the first camera.

Abstract: Disclosed herein are reconfigurable ports and methods for doing the same.

Abstract: Systems and methods may provide for implementing dynamically adaptive frequency adjustment. In one example, the method may include analyzing a first set of transmission information and a second set of transmission information based on a likelihood of transmission interference, and determining a dynamically adapted camera frequency, wherein the dynamically adapted camera frequency is to minimize the transmission interference.

Abstract: Systems and methods may provide to prevent user input capture. In one example, the method may include measuring an attribute based on a user's interaction with a user input component of a user input device, generating a user input signature based on the measured attribute, generating an obscuring signature based on the user input signature, and transmitting a control signal, based on the obscuring signature, to obscure a user's input activity and prevent user input capture.

Abstract: The subject innovation relates to an apparatus that includes an integrated case with all parts disposed within. The apparatus includes a processor, at least two displays, at least two cameras, and a storage system. The storage system comprises code to direct the processor to obtain input from the at least two cameras, and provide display information to the at least two displays.

Abstract: Disclosed herein axe reconfigurable ports and methods for doing the same.

Abstract: Provided herein is a system that includes a communication link between a first electronic device and a second electronic device. The communication link includes a first flat connector disposed in the first electronic device and a second flat connector disposed in the second electronic device. Each of the flat connectors includes a lens coupled to a fiber optic cable. Data is transferred through the communication link from the first flat connector to the second flat connector over an air gap between the first flat connector and the second flat connector.

Abstract: Systems and methods may provide to prevent user input capture. in one example, the method may include measuring an attribute based on a user's interaction with a user input component of a user input device, generating a user input signature based on the measured attribute, generating an obscuring signature based on the user input signature, and transmitting a control signal, based on the obscuring signature, to obscure a user's input activity and prevent user input capture.

Abstract: Disclosed herein axe reconfigurable ports and methods for doing the same.

Abstract: Disclosed herein are reconfigurable ports and methods for doing the same.

Abstract: Disclosed are embodiments of methods and circuits to generate spread spectrum clocks.

Abstract: Disclosed herein are reconfigurable ports and methods for doing the same.

Abstract: Disclosed are embodiments of methods and circuits to generate spread spectrum clocks.

Abstract: A noise injection method for characterizing common clock timing margin (jitter) includes injecting a single tone frequency, varying the amplitude of the injected frequency; measuring the signal produced at various signal amplitudes and analyzing the data obtained from measuring the signal. The obtained measurements may be analyzed using various characterizations such as measured jitter on input, measured jitter transfer, measured jitter tolerance, etc.

Abstract: A noise injection method for characterizing common clock timing margin (jitter) is disclosed. The method includes the steps of injecting a single tone frequency, varying the amplitude of the injected frequency; measuring the signal produced at various signal amplitudes and analyzing the data obtained from measuring the signal. The measurements obtained may be analyzed using various characterizations such as measured jitter on input, measured jitter transfer, measured jitter tolerance etc.