A skin audible watch for orientation identification includes a dial (1) and a strap (2). A plurality of sound collection modules (3) are arranged along a circumference of the dial (1), and the sound collection modules (3) are sequentially connected with a digital filter (4), an analog-to-digital converter (5), a single-chip microcomputer (6), and a row and column drive module (7); the single-chip microcomputer (6) is also connected with vibration motors (8) and a gyroscope (9); a number of the vibration motors corresponds to a number of orientations; the digital filter (4), analog-to-digital converter, single-chip microcomputer, row and column drive module, the vibration motors and the gyroscope are located inside the dial; the row and column drive module is connected with a current contact pin (12), and a free end of the current contact pin extends out of a surface of the vibration motors.

The present disclosure provides an electronic apparatus and a wearable apparatus. The electronic apparatus may include a housing assembly and an electronic component. The housing assembly is configured to connect with a connector, and includes a housing and an engaging member. The housing defines a mounting groove. The engaging member is arranged in the mounting groove and capable of moving relative to the housing to engage with the connector or disengage the connector. The electronic component is disposed in the housing. The housing defines a sink. The housing assembly further includes a baffle mounted in the sink, and the baffle defines a through hole being configured to let the connector pass therethrough.

An input sensing part includes: a plurality of first sensing electrodes in an active area; a plurality of second sensing electrodes in the active area and adjacent to the first sensing electrodes; a plurality of first sensing lines in an inactive area around the active area, extending to the active area, and connected to the first sensing electrodes via portions of the first and second sensing electrodes in a plan view; and a plurality of second sensing lines in the inactive area and extending from the second sensing electrodes.

Wearable devices having a primary and secondary power source are disclosed, wherein the secondary power sources are located in links of a band portion of the wearable device and the secondary power sources provide a secondary source of power beyond that provided by the primary power source. One exemplary wrist-wearable device includes a centralized processor pod having a primary power source, a wireless communication radio, and one or more sensors. The exemplary wrist-wearable device further includes a band with a plurality of links. Each of the plurality of links can include a secondary power source. The exemplary wrist-wearable device further includes communicative pathways that can be configured to convey at least power and data between the links and centralized processor pod. The communicative pathways can be configured to convey power from the secondary sources of power to the centralized processor pod beyond the power provided by the primary power source.

Watch bands described herein include electrochromic features that provide adjustable color control based on an applied voltage to offer a variety of colors and color combinations to be displayed by a single band. The user or a control system can control, select, and/or adjust one or more colors of the watch band for visual display. Accordingly, a variety of colors can be displayed at different times without requiring different watch bands for each color or color combination. The color changing features can be used as a visual output of information from the watch to the user.

Watch bands described herein include electrochromic features that provide adjustable color control based on an applied voltage to offer a variety of colors and color combinations to be displayed by a single band. The user or a control system can control, select, and/or adjust one or more colors of the watch band for visual display. Accordingly, a variety of colors can be displayed at different times without requiring different watch bands for each color or color combination. The color changing features can be used as a visual output of information from the watch to the user.

There is provided a wearable device, comprising connectors comprising a first connector and a second connector for interfacing with another device and/or a charger; a first switch for connecting the first connector and the second connector to a battery charging circuit of the wearable device; a second switch for connecting the first connector and the second connector to a communication circuit of the wearable device; a control unit configured to: enable an electrical connection between the connectors and the battery charging circuit, when the first switch is closed and the second switch is open; and enable communication with another device for data transfer via the connectors, when the first switch is open and the second switch is closed.

A wearable device includes a device body and a strap body connected to the device body. The device body includes an upper housing and a lower housing fixedly connected. A circuit board is provided in an inner cavity formed by the upper housing and the lower housing. The upper housing includes an insulating portion and a meal portion fixedly connected to at least one end of the insulating portion. The metal portion is electrically connected to the circuit board and used as an upper electrode for monitoring biological information. The lower housing includes a lower body portion matching the insulating portion, and a lower connecting portion located on at least one end of the lower body portion. The upper electrode matches the lower connecting portion and is fixedly connected to the strap body.

A wearable device includes a device body and a strap body connected to the device body. The device body includes an upper housing and a lower housing fixedly connected. A circuit board is provided in an inner cavity formed by the upper housing and the lower housing. The upper housing includes an insulating portion and a meal portion fixedly connected to at least one end of the insulating portion. The metal portion is electrically connected to the circuit board and used as an upper electrode for monitoring biological information. The lower housing includes a lower body portion matching the insulating portion, and a lower connecting portion located on at least one end of the lower body portion. The upper electrode matches the lower connecting portion and is fixedly connected to the strap body.

A wearable detection device includes a main body, a first belt body, and a second belt body. The first belt body and the second belt body are connected to two sides of the main body. The main body includes a power source, a control circuit connected to the power source, and a processor connected to the control circuit. The wearable detection device further includes a flexible circuit board and a plurality of to-be-conducted chips. The flexible circuit board is disposed in the first belt body and is connected to the main body. The plurality of to-be-conducted chips are disposed in the first belt body and are connected to the flexible circuit board. When the first belt body and the second belt body are interconnected, the to-be-conducted chip positioned at a junction point is connected.