Abstract: An exemplary apparatus for assembling a lens group comprise a lens tray, a plurality of cylindrical holes and a plurality of guiding grooves. The lens tray has a first surface and an inner side surface in each hole. The cylindrical holes are defined in the first surface for receiving a plurality of optical elements therein. The guiding grooves are defined in each inner side surface and exposed at the first surface, each groove communicats with the corresponding hole for allowing air to flow therethrough.

Abstract: A method for making a lens array, is provided. The method includes: providing a mold core having a plurality of molding surfaces to form the optical surfaces of the lenses; applying a molding material on the mold core; placing a transparent sheet on the molding material and pressing the molding material toward the molding surfaces of the mold core, the transparent sheet having a smooth surface for contacting the molding material; applying a given light beam onto the transparent sheet to solidify the molding material beneath the transparent sheet; and removing the mold core and the transparent sheet to obtain a lens array.

Abstract: An exemplary apparatus for coupling a first lens to a second lens includes a base, a first wall, a second wall, a recess, and an elastic member. The base has a top surface. The first wall protrudes from the top surface. The second wall is opposite to the first wall and protrudes from the top surface. The recess is defined in the top surface and positioned between the first wall and the second wall. The recess is configured for receiving the second lens. The elastic member is positioned on the top surface. A first end of the elastic member is connected with the first wall. The elastic member is configured for exerting a force on the first lens such that the first lens can be cooperatively clamped between a second end of the elastic member and the second wall.

Abstract: An exemplary illuminating apparatus comprises a light source holder, a linear light source and two elongated reflecting plates. The linear light source is mounted on the light source holder. The elongated reflecting plates are mounted on opposite sides of the light source holder. Each of the elongated reflecting plates is rotatable about a rotation axis relative to the light source holder.

Abstract: An eye includes a socket, an eyeball, an eyelid and at least two electromagnetic units. The socket defines a spherical bay. The eyeball is received in the spherical bay. One end of the eyelid has an eyelash, the other end of the eyelid has a magnetic element corresponding to the eyelash. The at least two electromagnetic units are disposed on different positions of an upper side of the socket. In this case, the eyelid is movably arranged between the socket and the at least two electromagnetic units.

Abstract: An interactive toy system comprises an image sensor, an information collecting unit, a memory, a comparative unit, a main control unit, and a light emitting diode array. The image sensor picks up movements of a user and output electrical signals. The information collecting unit collects the electrical signals and outputting processed signals after processing the electrical signals. The memory has a series of reference levels and an operation procedure stored therein, the operation procedure comprising many control signals corresponding to the reference levels. The comparative unit receives the processed signals and comparing the processed signals with the reference levels to output one of the corresponding control signals. The light emitting diode array is configured for emitting patterns of light by the main control unit based on the control signal from the comparative unit.

Abstract: A socket, comprising at least two insertion holes and a clasp device rotatably fastened on the socket. The clasp device comprises a clasp body, a cover, a bottom plate, and a connection body. The cover is positioned relative to the bottom plate, and the connection body is positioned between the cover and the bottom plate, wherein the cover, the bottom plate and the connection body define a receiving cavity.

Abstract: A camera module includes a substrate, an image sensor, a shell, and at least two lens modules. The image sensor comprises at least two image sensor portions connecting with each other via a connecting portion. The at least two image sensor portions are mounted on the substrate. The connecting portion is separated from the substrate. The shell is mounted on the substrate and has a chamber for receiving the image sensor. The lens modules are each mounted in the shell corresponding to the image sensor portions. The lens module captures and transmits images to the image sensor portion of the image sensor.

Abstract: A light source device includes a light conduction component, a light source and light diffusion components. The light conduction component has a first surface and a second surface opposite to the first surface. The second surface has a light incidence portion. The first surface has a first portion and a second portion. The first portion is substantially coaxial with the light incidence portion and surrounded by the second portion. The light source is configured to emit lights to the light incidence portion. The light diffusion components are positioned on the second portion.

Abstract: A portable electronic device includes a camera module and a main body. The camera module includes a housing, a lens received in the housing, an image sensor received in the housing for capturing an image of an object, a first ferromagnetic or magnetic element fixed to the housing, a plurality of metallic connecting pins electrically connected to the image sensor and exposed at an opposite side of the image sensor to the lens. The main body includes a printed circuit board, and a second ferromagnetic or magnetic element. The camera module is detachably coupled to the main body in a manner that the first ferromagnetic or magnetic element is magnetically attached to the second ferromagnetic or magnetic element, and the metallic connecting pins are electrically coupled to the printed circuit board.

Abstract: An artificial eye includes a frame, an eyeball, a pupil and a magnetic member. The frame defines a substantially spherical-shaped cavity and an opening communicating with the cavity. The eyeball is substantially spherical shaped and rotatably received in the cavity. The pupil is positioned on the eyeball and exposed to the outside of the frame through the opening. The magnetic member is positioned on the eyeball.

Abstract: An apparatus for assembling a lens module, is provided. The lens module includes a lens and a lens holder for receiving the lens. The lens holder has a through hole and a retainer formed in the through hole. The apparatus includes a base for supporting the lens holder, and a supporter formed on the base, for extending through the through hole of the lens holder and supporting the lens thereon. A height of the supporter is greater than a depth of the through hole of the lens holder. The supporter is movable relative to and away from the lens holder so as to place the lens on the retainer in the through hole of the base.

Abstract: An exemplary plural-view device includes a plane mirror, a display panel, a support member connected to the plane mirror or the display panel, and a camera module. The camera module is mounted to the support member and electrically connected with the display panel. The support member is adjustable relative to at least one of the plane mirror and the display panel for adjusting a field of view of the camera module.

Abstract: A display panel comprising a substrate, a display array formed on the substrate, and a test circuit disposed on the substrate and comprising shorting bars, testing lines, a first and a second isolation layers, and a conductive structure. The shorting bars include a first short bar. The testing lines include a first testing line vertical with the first shorting bar and electrically connecting the display array. The first isolation layer is formed between the shorting bars and the testing lines. The second isolation layer is disposed on the shorting bars, the testing lines, and the first isolation layer and has a first and a second holes, which correspond to the first shorting bar. The second hole penetrates through the first isolation layer. The conductive structure is formed on the second isolation layer and electrically connects the first testing line and the first shorting bar through the first and second holes.

Abstract: A display panel comprising a substrate, a display array formed on the substrate, and a test circuit disposed on the substrate and comprising shorting bars, testing lines, a first and a second isolation layers, and a conductive structure. The shorting bars include a first short bar. The testing lines include a first testing line vertical with the first shorting bar and electrically connecting the display array. The first isolation layer is formed between the shorting bars and the testing lines. The second isolation layer is disposed on the shorting bars, the testing lines, and the first isolation layer and has a first and a second holes, which correspond to the first shorting bar. The second hole penetrates through the first isolation layer. The conductive structure is formed on the second isolation layer and electrically connects the first testing line and the first shorting bar through the first and second holes.