Abstract: Provided is an electronic device including a first body, a second body and a conductor wire. The first body has a first opening. The second body is slidably arranged at the first body and has a second opening. The second body slides between a first position and a second position relative to the first body. The conductor wire includes a fixed section and a movable section. The fixed section is arranged in the second body. The movable section is at least partially arranged in the first body and passes through the first opening to be connected with the fixed section at the second opening. When the second body slides between the first position and the second position, relative positions of the movable section positioned in the first opening and the first opening are unchanged. The electronic device has an attractive appearance and a good protection effect on internal assemblies.

Abstract: A pressure pivoting electronic mirroring device has a supporting unit a mirroring display panel and a pressure hinge assembly. The mirroring display panel is connected with the supporting unit via a cable. The pressure hinge assembly has a pivoting seat arranged on a back surface of the mirroring display panel, a supporting portion in the mirroring display panel, a fastener attached on the supporting portion and a pivoting portion pivoted with the pivoting seat and arranged protruding on the back surface of the mirroring display panel to connected to the supporting unit, and a cabling space allowing the cable to inset therethrough is defined in the pivoting portion. The fastener is fastened on the supporting portion when the pivoting portion and the pivoting seat are relatively pivoted.

Abstract: The disclosed methods and systems can be used to install and configure a skin analysis device, for example. In one aspect, a system for installing a device onto a plane area is disclosed. The system comprises: an installation assistor comprising a reference mark for determining a position for installing the device; and a bracket for mounting the device. The bracket includes: at least one side substantially flat for affixing to the plane area; a sliding member extending from a side of the bracket that is opposite to the side for affixing to the plane area; and a raised member extending from the side of the bracket that is opposite to the side for affixing to the plane area, at a predetermined distance from the sliding member, wherein the raised member corresponds to a recessive portion of the device that is configured to lodge the raised member.

Abstract: A body fat monitor structure includes a foot pad and a body fat monitor disposed in the body fat monitor. The foot pad includes a base layer and a cloth layer laminated on the base layer. The base layer has a hollow area, and the body fat monitor is accommodated in the hollow area. The body fat monitor includes housing and a set of measurement components disposed in the housing. The set of measurement components at least has an electrical contact exposed from the housing, the cloth layer has a sensor portion disposed corresponding to the electrical contact, and the sensor portion is configured by conductive yarn knitted on the cloth layer and exposed between an upper and a lower surfaces of the cloth layer.

Abstract: A pressure pivoting electronic mirroring device has a supporting unit a mirroring display panel and a pressure hinge assembly. The mirroring display panel is connected with the supporting unit via a cable. The pressure hinge assembly has a pivoting seat arranged on a back surface of the mirroring display panel, a supporting portion in the mirroring display panel, a fastener attached on the supporting portion and a pivoting portion pivoted with the pivoting seat and arranged protruding on the back surface of the mirroring display panel to connected to the supporting unit, and a cabling space allowing the cable to inset therethrough is defined in the pivoting portion. The fastener is fastened on the supporting portion when the pivoting portion and the pivoting seat are relatively pivoted.

Abstract: An electronic mirroring device having a pressure hinge is provided, the electronic mirroring device has a supporter, a mirroring display and a pressure hinge assembly. The mirroring display is connected into the supporter by a cable. The pressure hinge assembly is connected with the supporter and the mirroring display, and the pressure hinge assembly has a first hinge portion and a second hinge portion pivoted with each other, a cabling space allowing the cable inserted therethrough is defined in the first hinge portion, a contacting surface is defined on the first hinge portion for a pivoting motion related to the second hinge portion, and the second hinge portion is located corresponding to the first hinge portion via the contacting surface. A fastener attached on the contacting surface is arranged between the first and the second hinge portion to position the electronic mirroring device anywhere in a continuous range.

Abstract: A movable hook apparatus, used for an object and a supporting structure, includes positioning axle attached onto the object and insertion member protruded therefrom, securement base attached onto the supporting structure; and a pair of rotating hook members with pivotal attachment portion pivotally attached onto securement base, hooking portion at the pivotal attachment portions and counter weight portion at outer side thereof to achieve equilibrium state; gap between two hooking portions is greater than width of insertion member, and a minimum of the gap is smaller than the width of insertion member. The insertion member is inserted between two hooking portions. When the two hooking portions are locked and positioned by the insertion member, the two hooking portions supports the weight of the positioning axle and the object.

Abstract: A display device having rotary cover structure includes: a display main body (1), having a display screen (11) and a back cover (12), two slide rails (13) arranged at two sides of the display screen (11), and a side edge part (14) arranged between the two slide rails (13); two rotation shaft assemblies (2), disposed at the side edge part (14), and having two rotation shafts (21) disposed corresponding to the two slide rails (13); an axial core line (L2) of each the rotation shaft (21) is arranged to be parallel to a central line (L1) of the side edge part (14); and a slide cover (3), having two slide blocks (31) sliding along the two slide rails (13) and capable of being displaced between a shielding position for shielding the display screen (11) and an exposing position allowing the display screen (11) to be exposed.

Abstract: A lens module including a base, a lens, a front cover, a first shielding plate set, a second shielding plate set, and a gasket is provided. The lens is disposed on the base. The front cover is rotatably disposed above the base and the lens, and the front cover has a first through hole. Each of the first shielding plate set and the second shielding plate set is pivoted on the base. The second shielding plate set and the first shielding plate set interfere with each other. The gasket is fixed in the first through hole and coupled to the second shielding plate set. The gasket has a second through hole. When the base and the front cover rotate relative to each other, the gasket rotates with the front cover and drives the first shielding plate set and the second shielding plate set to limitedly swing.

Abstract: A mirroring device having a housing, a mirroring assembly, an adjustable illuminator and an actuator is provided. The housing has a light transmissive cover. The mirroring assembly is disposed at the housing, the mirroring assembly has a display surface and the display surface exposes the outer housing, and the light transmissive cover surrounds the mirroring assembly. The adjustable illuminator is disposed in the housing corresponding to the light transmissive cover, the adjustable illuminator has a bracket, the bracket surrounds the mirroring assembly, at least one illumination component and at least one corresponding pivotal plate are arranged on the bracket, and the pivotal plate could pivot to change projecting direction of the illumination component. The actuator has a pusher connected to the pivotal plate for pushing the pivotal plate to pivot and thereby alter the projecting direction of the illumination component and focus position of the illumination component.

Abstract: A fixing structure, adapted to fix an electronic device on a carrying plane is provided, and the fixing structure includes a fixing plate, a carrying frame, a first pivot portion, a second pivot portion and a connection portion. The fixing plate is disposed on the carrying plane, and the carrying frame is detachably disposed on a back surface of the electronic device. The first pivot portion is disposed on the fixing plate at a side opposite to the carrying plane. The second pivot portion is disposed on the carrying frame at a side facing the fixing plate. The first pivot portion and the second pivot portion are respectively pivoted to two opposite sides of the connection portion. The electronic device and the carrying frame are adapted to be pivotally rotated relative to the carrying plane and the connection portion through the first pivot portion and the second pivot portion.

Abstract: A lens module including a base, a lens, a front cover, at least a shielding plate and a gasket is provided. The lens is disposed within the base. The front cover is disposed over the base and the lens, and the base and the front cover may rotate relatively. The shielding plate is pivoted on the base and has a first guide portion. The gasket is fixed on the front cover, the shielding plate is located between the gasket and the base. The gasket has a through hole corresponding to the lens and a second guide portion coupled to the first guide portion. When the base and the front cover rotate relatively, the first guide portion is guided by the second guide portion, the shielding plate can limitedly swing to move to the through hole to cover the lens or move away from the through hole to expose the lens.

Abstract: The disclosed methods and systems can be used to install and configure a skin analysis device, for example. In one aspect, a system for installing a device onto a plane area is disclosed. The system comprises: an installation assistor comprising a reference mark for determining a position for installing the device; and a bracket for mounting the device. The bracket includes: at least one side substantially flat for affixing to the plane area; a sliding member extending from a side of the bracket that is opposite to the side for affixing to the plane area; and a raised member extending from the side of the bracket that is opposite to the side for affixing to the plane area, at a predetermined distance from the sliding member, wherein the raised member corresponds to a recessive portion of the device that is configured to lodge the raised member.

Abstract: A lens module including a base, a lens, a front cover, a first shielding plate set, a second shielding plate set, and a gasket is provided. The lens is disposed on the base. The front cover is rotatably disposed above the base and the lens, and the front cover has a first through hole. Each of the first shielding plate set and the second shielding plate set is pivoted on the base. The second shielding plate set and the first shielding plate set interfere with each other. The gasket is fixed in the first through hole and coupled to the second shielding plate set. The gasket has a second through hole. When the base and the front cover rotate relative to each other, the gasket rotates with the front cover and drives the first shielding plate set and the second shielding plate set to limitedly swing.

Abstract: A fixing structure, adapted to fix an electronic device on a carrying plane is provided, and the fixing structure includes a fixing plate, a carrying frame, a first pivot portion, a second pivot portion and a connection portion. The fixing plate is disposed on the carrying plane, and the carrying frame is detachably disposed on a back surface of the electronic device. The first pivot portion is disposed on the fixing plate at a side opposite to the carrying plane. The second pivot portion is disposed on the carrying frame at a side facing the fixing plate. The first pivot portion and the second pivot portion are respectively pivoted to two opposite sides of the connection portion. The electronic device and the carrying frame are adapted to be pivotally rotated relative to the carrying plane and the connection portion through the first pivot portion and the second pivot portion.

Abstract: A body fat monitor structure includes a foot pad and a body fat monitor disposed in the body fat monitor. The foot pad includes a base layer and a cloth layer laminated on the base layer. The base layer has a hollow area, and the body fat monitor is accommodated in the hollow area. The body fat monitor includes housing and a set of measurement components disposed in the housing. The set of measurement components at least has an electrical contact exposed from the housing, the cloth layer has a sensor portion disposed corresponding to the electrical contact, and the sensor portion is configured by conductive yarn knitted on the cloth layer and exposed between an upper and a lower surfaces of the cloth layer.

Abstract: A lens module including a base, a lens, a front cover, at least a shielding plate and a gasket is provided. The lens is disposed on the base. The front cover is disposed above the base and the lens, and the base and the front cover may rotate relatively. The shielding plate is pivoted on the base and has a first guide portion. The gasket is fixed on the front cover, the shielding plate is located between the gasket and the base. The gasket has a through hole corresponding to the lens and a second guide portion coupled to the first guide portion. When the base and the front cover rotate relatively, the first guide portion is guided by the second guide portion, the shielding plate can limitedly swing to move to the through hole to cover the lens or move away from the through hole to expose the lens.

Abstract: A mirror assembly including a base, a first mirror, at least one first magnetic component, at least one second magnetic component, at least one supporting frame, and at least one second mirror is provided. The base has a first recess, a side wall portion surrounding the first recess, and at least one second recess located on the side wall portion. The first mirror is disposed on the base and covers the first recess. The first magnetic component is disposed on the side wall portion and corresponding to the second recess, and is located in the first recess. The second magnetic component is inserted into the second recess, and the first magnetic component and the second magnetic component attract each other. The supporting frame is pivoted to the second magnetic component so as to rotate relative to the base. The second mirror is disposed on the supporting frame.

Abstract: A method for measuring the thickness of the thermal grease is provided. A heat dissipation module, suitable for dissipating heat from a chip, is provided. The heat dissipation module has a surface provided with a chip bonding area. A layer of thermal grease is coated on the chip bonding area. A first measuring point is selected from an area of the surface outside the chip bonding area, and a second measuring point is selected from the top surface of the thermal grease. A non-contact measuring device is provided. Then the non-contact measuring device is disposed above the thermal grease, and the first measuring point and the second measuring point are measured by using the non-contact measuring device to respectively obtain a first measuring value and a second measuring value. The first measuring value is compared with the second measuring value, so as to obtain the thickness of the thermal grease.