An object approaching a wearable device of a user is identified. In response to determining that the approaching object is a previously identified target of the user, one or more applications displayed in a user interface of the wearable device, and how said one or more applications are organized on the user interface of the wearable device, are modified based on the identified approaching object. The modified user interface is displayed to the user.

An electronic device displays a reminder for increasing the first battery level above a first preset battery level when the a current time is within a first preset time period preceding a scheduled mode change and the first battery level is below a first preset battery level. The electronic device forgoes displaying the reminder for increasing the first battery level above the first preset battery level when the current time is outside of the first preset time period and the first battery level is below a first preset battery level.

The present invention provides a device comprising: a case shell having cavities and protrusions, a screen cover with a plurality of buttons, a plurality of connectors, and a cover light. The present invention further includes a stand positioned along the back side of the case shell, wherein the stand extends outwards from the back side of the case shell.

An electronic device, an information processing method, and a program with high security are proposed. The electronic device includes a fingerprint sensor and a control unit. The control unit detects a fingerprint and a gesture of a finger that performs a touch operation on the fingerprint sensor. The control unit executes processing associated with the fingerprint and the gesture detected at the time of the touch operation while performing fingerprint authentication based on the fingerprint detected at the time of the touch operation.

A touch indicating cover includes a light-guide plastic piece, a printed circuit layer, an ink layer, a passivation layer, and a light-emitting component. The light-guide plastic piece has a first surface and a second surface opposite to each other, wherein the second surface of the light-guide plastic piece comprises a plurality of microstructures. The printed circuit layer is disposed on the first surface of the light-guide plastic piece. The ink layer is disposed on the printed circuit layer and the first surface of the light-guide plastic piece, wherein the ink layer comprises a light-emitting pattern region corresponding to the microstructures. The passivation film is disposed on the ink layer. The light-emitting component is embedded in the first surface of the light-guide plastic piece and connected to the printed circuit layer, wherein the light-emitting component is disposed adjacent the light-emitting pattern region.

In accordance with some embodiments, a method is performed at a first device with one or more processors, non-transitory memory, and a display. The method includes displaying, on the display, a device control transfer affordance while operating the first device based on user input from an input device that is in communication with the first device. The method includes receiving a device control transfer user input from the input device selecting the device control transfer affordance that is displayed on the display of the first device. In response to receiving the device control transfer user input, the method includes configuring a second device to be operated based on user input from the input device and ceasing to operate the first device based on user input from the input device.

A method of recording measurement data for characterizing a response of a given type of device to an applied force, the given type defining devices of that type as comprising a defined arrangement of a surface and N force sensors of the device concerned, where N≥1, each force sensor configured to output a sensor signal, wherein in the defined arrangement the N force sensors are operatively coupled to a defined input region of the surface so as to sense a force applied to that input region, the method comprising: for a specimen device of the given type, performing at least one measurement procedure, each measurement procedure comprising at least one measurement operation, each measurement operation comprising applying a defined force at a corresponding location on the input region of the device concerned and recording measurement data for that device and location based on the sensor signals of the N force sensors of that device. Also disclosed are a related computer-implemented method of generating a characterization definition for devices of the given type, a computer-implemented method of generating a configuration definition for devices of the given type for a given use case defined by a use-case definition, a method of configuring a candidate device of the given type for the given use case, and a method of assessing or calibrating a candidate device of the given type.

An electronic device is provided. The electronic device includes a first housing, a second housing slidably coupled to the first housing, a display of which at least a part is fixed to the second housing so that an information display region, which is a part of the electronic device visible on the outside, increases or decreases according to the sliding of the second housing, and a support member including a bendable structure, supporting at least a part of the display, and moving according to the sliding of the second housing, wherein, the information display region increases if the second housing slides in a first direction at a reference position at which the end of the second housing and the end of the first housing are substantially aligned, and the information display region decreases if the second housing slides in a second direction opposite to the first direction at the reference position.

A touch indicating cover includes a light-guide plastic piece, a printed circuit layer, an ink layer, a passivation layer, and a light-emitting component. The light-guide plastic piece has a first surface and a second surface opposite to each other, wherein the second surface of the light-guide plastic piece comprises a plurality of microstructures. The printed circuit layer is disposed on the first surface of the light-guide plastic piece. The ink layer is disposed on the printed circuit layer and the first surface of the light-guide plastic piece, wherein the ink layer comprises a light-emitting pattern region corresponding to the microstructures. The passivation film is disposed on the ink layer. The light-emitting component is embedded in the first surface of the light-guide plastic piece and connected to the printed circuit layer, wherein the light-emitting component is disposed adjacent the light-emitting pattern region.

In accordance with some embodiments, a method is performed at a first device with one or more processors, non-transitory memory, and a display. The method includes displaying, on the display, a device control transfer affordance while operating the first device based on user input from an input device that is in communication with the first device. The method includes receiving a device control transfer user input from the input device selecting the device control transfer affordance that is displayed on the display of the first device. In response to receiving the device control transfer user input, the method includes configuring a second device to be operated based on user input from the input device and ceasing to operate the first device based on user input from the input device.