Techniques are described for integrating blood pressure measurement (BPM) into a portable electronic device. For example, an input interface of the device includes an integrated force sensor. Human-discernable feedback is output to the user, while using the force sensor to monitor fingertip pressure being applied by the user on the input interface, to guide the user into a first condition in which capillary fingertip blood flow (CFBF) is occluded. The human-discernable feedback is then output to the user, while continuing to use the force sensor to monitor the fingertip pressure, to guide the user into one or more subsequent conditions that allow non-occluded CFBF signals to be sensed by one or more sensors (e.g., the force sensor, an optical fingerprint sensor, etc.). The sensed non-occluded CFBF signals can be used to generate one or more CFBF-based BPM readings for the user (e.g., which can be calibrated to arterial BPM).

An electronic device according to certain embodiments may include: a sensor, a display panel including a sensor area overlaying or underlying the sensor and a pixel area including at least one pixel and a drive wiring line configured to drive the at least one pixel while surrounding the sensor area, a window disposed over the display panel, and one or more opaque members disposed between the sensor and the window and along an edge of the sensor area.

Various embodiments disclosed in the present document relates to a foldable electronic device. Various embodiments may provide an electronic device including: a first housing structure including a first surface, a second surface facing in a direction opposite to the first surface, and a first side member surrounding at least a portion of a space between the first surface and the second surface, wherein the first side member includes a first rotational support portion at an edge thereof when viewed from above the first surface; a second housing structure including a third surface, a fourth surface facing in a direction opposite to the third surface, and a second side member surrounding at least a portion of a space between the third surface and the fourth surface, wherein the second side member includes a second rotational support portion facing the first rotational support portion at an edge thereof when viewed from above the third surface; a flexible display including a first portion disposed on the first surface, a second portion disposed on the third surface, and a third portion disposed between the first portion and the second portion and having a shape variable depending on an angle between the first surface and the third surface; and a hinge structure which is connected to each of the first rotational support portion and the second rotational support portion, wherein the hinge structure is capable of forming a recess for accommodating at least a portion of the third portion when the angle between the first surface and the third surface is equal to or less than a designated first angle.

An electronic device, including: a device body, provided with a first accommodating space, a second accommodating space, and a first opening; a functional module; and an ejection mechanism, including a connecting rod, a slider, and a driving part. A guide rail is disposed on the slider, and the guide rail includes a first limiting section, an extending section, a second limiting section, and a retracting section which are connected in sequence. In a case that the slider is located at a second position, at least a portion of the functional module is located outside the first accommodating space, and a second end of the connecting rod is matched with the first limiting section. In a case that the slider is located at a first position, the functional module is located inside the first accommodating space, and the second end of the connecting rod is matched with the second limiting section.

In some examples, an electronic device comprises a display device having a first hardware indicator and a second hardware indicator, a camera, a microphone, and a processor coupled to the microphone, the camera, and the first and the second hardware indicators. The processor is to, based on a type of an application in use, control the first hardware indicator in response to a state of the camera, wherein the application has access to the camera and the microphone; and based on the type of the application in use, control the second hardware indicator in response to a state of the microphone.

An electronic device and method are disclosed herein. The electronic device includes a display, a biometric sensor, and at least one processor. The processor implements the method, including: when a touch input is detected to the display within the biometric sensing area, increase a brightness of a first pixel group within the biometric sensing area to a first brightness level, and execute at least one of maintaining and changing display of a second pixel group outside the biometric sensing area and, wherein the at least one of maintaining and changing display of the second pixel group includes one of: executing a black state in which display through the second pixel group is disabled, and changing a display attribute for the second pixel group such that a load on the second pixel group is reduced.

A foldable terminal apparatus, a terminal control method, a terminal apparatus, and a non-transitory computer-readable storage medium are provided. The foldable terminal apparatus comprises a terminal body and a bendable touch screen. The bendable touch screen in a bending direction has a fixed end connected to the terminal body and a free end, and the bendable touch screen is switched between a first state and a second state. In the first state, the bendable touch screen surrounds the terminal body on an outer side of the terminal body, and in the second state, the fixed end of the bendable touch screen is located on the terminal body and the free end is located outside the terminal body, such that the bendable touch screen is expanded.

A device for monitoring a health parameter of a person is disclosed. The device includes a device body, a radio frequency (RF) front-end connected to the device body and including a semiconductor substrate and an antenna array including at least one transmit antenna configured to transmit radio waves below the skin surface of a person and a two-dimensional array of receive antennas configured to receive radio waves, the received radio waves including a reflected portion of the transmitted radio waves, wherein the semiconductor substrate includes circuits configured to generate signals in response to the received radio waves, and an alignment feature integrated into the device body and configured to align the antenna array with an object.

An electronic device includes: a housing including a window facing in a first direction and a rear plate facing in a second direction; a display including a first layer disposed on the window, a second layer disposed on the first layer and having a first opening, and a conductive layer disposed on the second layer and having a second opening corresponding to the first opening; an FPCB disposed on the display and having a third opening corresponding to the second opening; a frame structure disposed between the FPCB and the rear plate and having a fourth opening corresponding to the third opening; a fingerprint sensor having at least a portion inserted into the fourth opening and facing in the first direction; and a dustproof member disposed between the display and the frame structure within a region formed by the third opening.

Operation of a head-mounted wearable device is responsive to whether a state of the device is being worn (donned) or not worn (doffed) on the head. The device may operate in a first mode while donned and a second mode while doffed. A capacitive sensor device having an electrode positioned in a bridge of the device provides output data. The output data is processed to determine a baseline value. Later, acquired output data is compared to the baseline value to determine don/doff data indicative of whether the device is donned or doffed. Data from other sensors, may also be used in conjunction with the output data to improve accuracy of the don/doff data. For example, if the output data is above the baseline value and accelerometer data is indicative of motion greater than a motion threshold, the don/doff data may be designated as donned.