Abstract: An automatic guiding method for a self-propelled apparatus (10) is provided. The self-propelled apparatus (10) turns and irradiates when a signal light emitted by a charging dock (20) is sensed by a flank sensor (103), and changes its turn direction when another different signal light from the charging dock (20) is sensed by a forward sensor (102). The charging dock (20) switches to emit another signal light different from the signal light currently emitted when each time is triggered by the signal light emitted by the self-propelled apparatus (10). Repeatedly execute the above actions and make the self-propelled apparatus approach the light-emitting unit (202) until the self-propelled apparatus (10) reaches a charging position. It can accurately guide the self-propelled apparatus (10) to the charging position by arranging only two sensors on the self-propelled apparatus.

Abstract: An optical lens includes a first lens, a filter, and a shading sheet between the first lens and the filter. The first lens is configured to emit a first light with a wavelength in a first wavelength range and a second light in a second wavelength range. The filter is after the first lens, allowing the through transmission of the first light for imaging but reflecting the second light. The shading sheet absorbs at least a part of the second light. An imaging device and an electronic device using same are also provided.

Abstract: A lens effectively rejecting light from outside of a field of view of an image-capturing device can be assembled with other lenses in a lens barrel to form a lens module. The lens includes a central effective optical area and a connection area arranged surrounding the effective optical area. The connection area includes a side surface and adjacent first end surface, the side surface includes a first plane area and an inclined plane area. The inclined plane area extends from an end of the first plane area away from the first end surface toward the axis of the lens. The disclosure also provides the lens module having the above lens.

Abstract: A substrate structure includes a glass substrate, a first circuit layer, a second circuit layer, and at least one conductive region. The glass substrate has a first surface and a second surface opposing the first surface. The first circuit layer is disposed on the first surface. The second circuit layer is disposed on the second surface. The conductive region includes a plurality of conductive micro vias. The conductive micro vias penetrate through the glass substrate. The conductive micro vias are electrically connected to the first circuit layer and the second circuit layer, and the conductive micro vias have a via size of 2 ?m to 10 ?m.

Abstract: A method of automatically following human for purifying air nearby is applied to a self-propelled air-purifying apparatus (1). The self-propelled air-purifying apparatus (1) moves by itself and purifies the ambient air by operating air-purifying module during moving. When detecting a human, the self-propelled air-purifying apparatus automatically follows the human and purifies the ambient air around the human by operating the air-purifying module during the following. The present disclosed example can effectively improve the air quality around the human.

Abstract: An optical lens includes a lens barrel, a first lens, and a diaphragm film. The first lens is received within the lens barrel. The diaphragm film is fixed on the lens barrel. The first lens includes a spherical area, a stacking area, and a connecting area. The connecting area is coupled between the spherical area and the stacking area. The connecting area includes a planar area. The diaphragm film is located on the planar area.

Abstract: Provided is a display device including: a backlight module; a first display panel disposed on the backlight module and including a first polarizer; and a second display panel disposed on the backlight module and including a second polarizer, wherein the first polarizer has a first projection, the second polarizer has a second projection, and an area of an overlap between the first projection and the second projection accounts for 10% or less of an area of the second projection, wherein the first display panel comprises a non-display area, and the second display panel corresponds in position to the non-display area.

Abstract: An optical lens includes a first lens and a second lens facing the first lens. The first lens includes a first flange structure. The first flange structure includes a first surface facing the second lens. The first surface includes a first positioning portion. The second lens includes a second flange structure. The second flange structure includes a second surface facing the first lens. The second surface includes a second positioning portion. The first positioning portion engages with the second positioning portion.

Abstract: A touch and/or display panel with minimal border area includes a first substrate with first and second opposite surfaces. The panel further comprises a film on the first surface and bent to the second surface, the film is flexible and wires are patterned into the film. The film comprises first and second ends, the first end is located on the first surface, and the second end is located on the second surface and a chip is formed on the second end. A method for making the panel is also disclosed.

Abstract: Provided is a display device including: a backlight module; a first display panel disposed on the backlight module and including a first polarizer; and a second display panel disposed on the backlight module and including a second polarizer, wherein the first polarizer has a first projection, the second polarizer has a second projection, and an area of an overlap between the first projection and the second projection accounts for 10% or less of an area of the second projection.

Abstract: Multiple analytes may be dysregulated singularly or concurrently in certain physiological conditions and may be advantageously assayed together using analyte sensors capable of detecting multiple analytes. Certain analyte sensors capable of the detection of multiple analytes may include first and second working electrodes, analyte-responsive active areas disposed on each of the working electrodes, and reference and counter electrodes. Analyte sensors that include multiple working electrodes but do not include reference and counter electrodes can also be used in conjunction with another sensor that contains reference and counter electrodes, such that these electrodes are shared.

Abstract: A heat dissipating fin assembly includes a bottom, a plurality of first heat dissipating fins, a plurality of second heat dissipating fins, an inner cover and an outer cover. The first heat dissipating fins extend from an inner end toward an outer end. The second heat dissipating fins are arranged between two of the first heat dissipating fins in staggered. The inner cover is disposed near the inner end and connected to the first heat dissipating fins. The outer cover is disposed near the outer end and connected to the second heat dissipating fins. The inner cover and the outer cover are separated to form an opening, and the dusts entering the heat dissipating fin assembly through the inner end are ejected via the opening. The second heat dissipating fins extend from around the opening to the outer end.

Abstract: A visualization device for a flow field includes a chamber, a power supply, at least one pair of electrodes, and at least one flow field observation module. The flow field observation module includes a high-speed camera, a light detecting component, and a light filter component. The power supply outputs a voltage to generate a plasma, and the pair of electrodes is disposed in the chamber. The flow field observation module is disposed outside the chamber and captures an image of a fluid particle excited by the plasma toward the chamber. The light filter component is disposed between the high-speed camera and the chamber. The light detecting component obtains a light information within the chamber and sends the light information to the light filter component.

Abstract: The present application related to a camera system and a camera fill light method. The camera system establishes a wireless communications connection with a fill light, captures an original image by a camera in the camera system, and then transmits a first test light signal to the fill light such that a first flash is performed by the fill light. The camera captures a first light source image during the first flash period of the fill light. A fill light controller in the camera system compares differences of the brightness or the chroma of different image information and, after determining the present location of the fill light, calculates a dislocation result of the present location of the fill light and the best placement location of the fill light. The camera system yields the dislocation result to the photographer via a notification message.

Abstract: An environmentally friendly straw for easy disassembly includes a first straw half body and a second straw half body. The first straw half body has a first extended part that extends from the bottom of the first straw half body. The second straw half body has a second extended part that extends from the bottom of the second straw half body. The second straw half body is detachably coupled to the first straw half body to commonly form a hollow tubular body. The first straw half body is separated from the second straw half body when an external force is applied to the first extended part and the second extended part, respectively.

Abstract: A manufacturing method of a substrate structure includes the following steps. A first build-up circuit structure is formed. At least one copper pillar is formed on the first build-up circuit structure. A dielectric layer is formed on the first build-up circuit structure, and the dielectric layer wraps the copper pillar. A second build-up circuit structure and a capacitive element are formed on the dielectric layer. In particular, the second build-up circuit structure and the first build-up circuit structure are respectively located at two opposite sides of the dielectric layer. The capacitive element is disposed in a capacitive element setting region within the second build-up circuit structure. The copper pillar penetrates the dielectric layer and is electrically connected to the second build-up circuit structure and the first build-up circuit structure.

Abstract: A chip packaging structure includes a circuit redistribution structure, a chip, a sealing layer, and an antenna pattern. The circuit redistribution structure includes a first and a second circuit layer, and a conductive pad. The second circuit layer is disposed on and electrically connected to the first circuit layer. The conductive pad is electrically connected to the second circuit layer. The chip is disposed on the circuit redistribution structure and electrically connected to the second circuit layer. The sealing layer having an opening and a groove covers the chip and the circuit redistribution structure. The opening exposes the conductive pad. A portion of the groove communicates with the opening. The antenna pattern includes a first and a second portion. The first portion covers sidewalls of the opening and is electrically connected to the conductive pad. The second portion is filled in the groove and electrically connected to the first portion.

Abstract: A circuit carrier board structure includes a first substrate, a second substrate, an adhesive layer, and a plurality of contact pads. The first substrate includes a first surface and a second surface, and also includes a plurality of first build-up layers sequentially stacked. The first build-up layers include a first dielectric layer and a first circuit layer. The second substrate includes a third surface and a fourth surface, and also includes a plurality of second build-up layers sequentially stacked. The second build-up layers include a second dielectric layer and a second circuit layer. The second surface is combined to the third surface. The connection pads are on the first surface and electrically connected to the first circuit layer. The first substrate is electrically connected to the second substrate. A manufacturing method of the circuit carrier board structure is also provided.

Abstract: A lens module reducing stray light includes at least two overlapping lenses, each of the lenses includes a light passing area and a flange area outside the light passing area. Each of the lenses includes a first surface disposed toward one adjacent lens. The first surface has optical microstructures, the optical microstructures scatter light entering the flange area. The first surface also includes an overlapping portion protruding from the first surface in the flange area. Adjacent lenses are accurately aligned by the overlapping portion, the overlapping portion includes a second surface away from the first surface. The second surface of each lens is in contact with the second surface of the adjacent lens, and the second surface is a smooth surface. An optical lens and an electronic device are also disclosed.

Abstract: A circuit carrier board structure includes a first substrate, a second substrate, an adhesive layer, and a plurality of contact pads. The first substrate includes a first surface and a second surface, and also includes a plurality of first build-up layers sequentially stacked. The first build-up layers include a first dielectric layer and a first circuit layer. The second substrate includes a third surface and a fourth surface, and also includes a plurality of second build-up layers sequentially stacked. The second build-up layers include a second dielectric layer and a second circuit layer. The second surface is combined to the third surface. The connection pads are on the first surface and electrically connected to the first circuit layer. The first substrate is electrically connected to the second substrate. A manufacturing method of the circuit carrier board structure is also provided.