A hybrid wearable device comprising (A) a smart watch with at least a digital display, a general-purpose processor, an instruction and data memory, and a communications component, and (B) an alternate (mechanical, quartz, kinetic, or other) watch movement, that has these two components interact with each other and with the user.

An electronic watch includes a power source, an electrostatic motor including a rotor in which a plurality of electret films are arranged in a rotational direction and a plurality of fixed electrodes arranged in the rotational direction at positions facing the rotor, a hand rotating in conjunction with the rotation of the rotor, and a motor control circuit controlling the electrostatic motor. The motor control circuit selectively executes a hand movement mode for rotating the hand and a stop mode for keeping the hand stationary. In the stop mode, the motor control circuit keeps the rotor stationary through electrostatic forces exerted on the electret films from the fixed electrodes with the polarities of the fixed electrodes maintained.

An electronic watch includes a power source, an electrostatic motor including a rotor in which a plurality of electret films are arranged in a rotational direction and a plurality of fixed electrodes arranged in the rotational direction at positions facing the rotor, a hand rotating in conjunction with the rotation of the rotor, and a motor control circuit controlling the electrostatic motor. The motor control circuit selectively executes a hand movement mode for rotating the hand and a stop mode for keeping the hand stationary. In the stop mode, the motor control circuit keeps the rotor stationary through electrostatic forces exerted on the electret films from the fixed electrodes with the polarities of the fixed electrodes maintained.

Provided is a watch-type terminal comprising: a main body which can be mounted on an area of a human body; a pressure sensor which is mounted on an area of the main body in an on-land mode and detects an external pressure change; and a control unit which switches the on-land mode to an underwater mode and controls the execution of a particular function, in case the pressure change is greater than or equal to a preset reference change amount.

Embodiments of the present invention disclose a display screen control method and apparatus, and a terminal. The method in the embodiments of the present invention includes obtaining a height difference and an acceleration that are generated when a terminal moves from an initial position to a target position and determining, according to the height difference and the acceleration, whether a first predetermined movement is satisfied. The method also includes when the first predetermined movement is satisfied, triggering the terminal to turn on a display screen.

For reducing power consumption associated with record of the positional information, an electronic apparatus comprises a positional information acquisition unit configured to acquire positional information of the electronic apparatus including time information; a memory; a clock circuit; and a processor configured to acquire first timing in a first operating state and second timing in a second operating state which differs from the first operating state, control the positional information acquisition unit to acquire, in the first operating state, the positional information of the electronic apparatus including the time information, control the memory to store a time of day measured by the clock circuit at the first timing, and control the positional information acquisition unit to acquire, in the second operating state, positional information of the electronic apparatus at the second timing.

For reducing power consumption associated with record of the positional information, an electronic apparatus comprises a positional information acquisition unit configured to acquire positional information of the electronic apparatus including time information; a memory; a clock circuit; and a processor configured to acquire first timing in a first operating state and second timing in a second operating state which differs from the first operating state, control the positional information acquisition unit to acquire, in the first operating state, the positional information of the electronic apparatus including the time information, control the memory to store a time of day measured by the clock circuit at the first timing, and control the positional information acquisition unit to acquire, in the second operating state, positional information of the electronic apparatus at the second timing.

An information processing system include plural deformable devices to be worn on a living body for use, each device being configured to be detachably attached to at least another one of the devices, in which each device includes a display unit, and a processor, when communication among the plural devices is in a disconnection state, the processor of each device independently controls display of the corresponding one of the display units, and when the plural devices are in a communication state, the processors work cooperatively so as to control the display of the display units of the devices.

An information processing system include plural deformable devices to be worn on a living body for use, each device being configured to be detachably attached to at least another one of the devices, in which each device includes a display unit, and a processor, when communication among the plural devices is in a disconnection state, the processor of each device independently controls display of the corresponding one of the display units, and when the plural devices are in a communication state, the processors work cooperatively so as to control the display of the display units of the devices.

Power consumption due to failed automatic calibration is suppressed. An electronic watch is provided with a magnetic sensor, a processor for performing calibration of the magnetic sensor and controlling two or more function modes, and an acceleration sensor for sensing movement of a user. The processor determines whether a state of movement sensed by the acceleration sensor is a calibratable state in which calibration of the magnetic sensor can be performed, performs discrimination of a function mode being executed among the two or more function modes, and performs the calibration of the magnetic sensor when (i) the state of movement sensed by the acceleration sensor is the calibratable state and (ii) the function mode is not a non-default mode, the non-default mode being a function mode executed in accordance with an operation by the user.