Hon Hai Precision Industry Co., Ltd.

Hong-Fu Jin Precision Industry (Shenzhen) Co., Ltd.

Cheng-Yi Lai

Tzu-Hsiu Hung

Chun-Cheng Ko

Chien-Hung Lee

Feng-Ching Su

Shih-Hao Tung

An optical lens system of the present disclosure assembly includes, in order from an object side to an image side, a first lens element, a second lens element, a third lens element, a fourth lens element, a fifth lens element, a sixth lens element, an optical filter and a sensor. The first lens element and the fourth lens element each have a negative power. The second lens element, the third lens element, the fifth lens element and the sixth lens element each have a positive power.

Optical lens system

An optical lens of the present disclosure assembly includes, in order from an object side to an image side, a first lens element, a second lens element, a third lens element, a fourth lens element, a fifth lens element, a sixth lens element, an optical filter and a sensor. The optical lens also has an axis. The first lens element, the fourth lens element and the sixth lens element have negative power, the second lens element, the third lens element and the fifth lens element have positive power.

Optical lens

A display device which can elevate and rotate to a position includes a base, a controlling member mounted to the base, and a supporting frame. A display is mounted on the supporting frame, and a first magnetic piece is positioned on the controlling member. A second magnetic piece is positioned on the supporting frame. The first and second magnetic pieces are configured to attract each other. The controlling member includes a first elastic piece between the base and the supporting frame. The first elastic piece retracts to enable the supporting frame to rotate. The controlling member can slide to detach the second magnetic piece from the first magnetic piece, and the first elastic piece retracts to allow an upward rotation of the supporting frame thereby changing height of the display.

Supporting structure and display device using the same

A moored balloon includes a balloon, a wire coupled to the balloon, an antenna, a cable coupled to the balloon, a rotating device hung below the balloon, and a fixing device. The rotating device comprises a rotating unit and a bracket. The rotating unit comprises a bearing seat mounted on the bracket, a bearing unit mounted on the bearing seat, and a shaft passing through the bearing unit and coupled to the balloon. The fixing device comprises a receiving tube for receiving the antenna. The receiving tube is located on the bracket. The shaft moves with the balloon to generate a twisting force, the bearing unit counterbalances the twisting force to prevent the cable being twisted with the wires.

Anti-coiling wire structures and moored balloons with the same

A mounting apparatus, able to maintain the relative position of a camera during rotations between portrait and landscape presentations of an electronic device, includes a camera. The mounting apparatus is mounted to an electronic device, which has a display screen. When the electronic device is rotated from a first presentation state to a second presentation state, the camera remains in position above the display screen.

Mounting apparatus for position-retaining camera

A camera assembly includes a camera and a rotating mechanism configured to drive the camera to rotate. The rotating mechanism includes a base, a driving device, a first driving gear, a second driving gear connected with the camera, and a switch gear. The driving device, the second driving gear, and the switch gear are located on the bracket. The first driving gear is located on the base. The switch gear is driven to selectively engage with the one of the first driving gear and the second driving gear. When the switch gear is connected with the first driving gear, the bracket is driven to rotate and rotate the camera on a first plane. When the switch gear is connected with the second driving gear, the driving device drives the camera to rotate via the switch gear and the second driving gear.

Camera assembly and rotating mechanism

A motor for providing rotational movement along different directions simultaneously includes a stator, a rotor, a power shaft rotated together with the rotor, a first driving shaft, a first transmission gear located on the first driving shaft, a second driving shaft, and a second transmission gear located on the second driving shaft. The power shaft includes at least one driving gear located on an end portion of the power shaft. The first transmission gear and the second transmission gear engage with the driving gear to drive the first driving shaft and the second driving shaft to rotate, respectively.

Motor, holder and image capture device using same

An exemplary display device includes a display housing, a camera, a bracket and a transmission unit connected between the camera and the bracket. The transmission unit includes a camera rotation unit, a bracket rotation unit and a linkage unit. The camera rotation unit is fixed on the display housing and connected with the camera. The bracket rotation unit is fixed on the display housing and rotatably connected with the bracket. The linkage unit interconnects the camera rotation unit and the bracket rotation unit. When the display housing is rotated, the bracket rotation unit rotates in unison with the display housing relative to the bracket, the bracket rotation unit drives the camera rotation unit to rotate via the linkage unit, and the camera rotation unit drives the camera to rotate thereby adjusting an angle of the camera relative to the display housing.

Display device with camera and transmission unit for automatically adjusting camera angle

A buffering device for fixing a flexible cable includes a fixing part and a moving part. The two connecting ends of the flexible cable move relatively to each other. One of the connecting ends is connected to a circuit board. The fixing part defines two sliding cutouts fixed at two opposite sides of the flexible cable and adjacent to the connecting end of the flexible cable clamping and sandwich the flexible cable between the mount and the circuit board. The moving part includes a movable support and two second cushions. The movable support comprises a top support frame and a bottom support frame. The movable support is inserted into the sliding cutouts and moves back and forth in the sliding cutouts. The two second cushions sandwich the flexible cable between the top support frame and a bottom support frame.

Buffering device for fixing flexible cable

An exemplary gear transmission device includes a driving assembly including a driving shaft, a shaft coupling, a circular driving gear, a resilient mechanism and a driven gear engaging with the driving gear. The shaft coupling is fixed to the driving shaft and rotatable in unison with rotation of the driving shaft. The circular driving gear substantially surrounds and is operatively coupled to the shaft coupling and rotatable under urging of the shaft coupling. The resilient mechanism is held between the driving gear and the shaft coupling and is elastically deformable in circumferential directions of the shaft coupling. When the driving gear moves axially and collides with the driven gear without meshing with the driven gear, the driving gear rotates slightly relative to the shaft coupling thereby elastically deforming the resilient mechanism and the driving gear reaches a position where it can mesh with the driven gear.

Gear transmission device with resilient connection between driving gear and driving shaft

An exemplary motion sensing controller includes an infrared light detection module, a spherical light output member, and a processing unit. The infrared light detection module is configured for detecting infrared light and includes a lens module. The spherical light output member is configured for outputting infrared light. The infrared light detection module has a sensing surface configured for capturing images of the spherical light output member. The processing unit is electrically connected with the infrared light detection module. The processing unit is configured for receiving signals of the images of the spherical light output member, computing dimensions and positions of the images of the spherical light output member on the sensing surface, and computing positions of the spherical light output member with respect to the lens module based on the dimensions and the positions of the images of the spherical light output member on the sensing surface.

Motion sensing controller and game apparatus having same

A portable electronic device includes a housing defining a through hole, a barrel positioned in the housing, a lens fixed at an end of the barrel and a light detection unit fixed at the other end of the barrel away from the lens. The lens includes an imaging portion facing the light detection unit and an incidence portion facing the through hole. The incidence portion forms a reflecting surface angled relative to an optical axis of the imaging portion, such that light entering from the through hole through the incidence portion is then reflected by the reflecting surface and refracted by the imaging portion, and is then received by the light detection unit.

Portable electronic device with camera module

An optical touch system includes a display screen having a contact surface, two infrared light sources emitting infrared light to cover the contact surface, two linear infrared sensors each having a sensing surface with a lengthwise direction thereof parallel to the contact surface, a processor, and a controller. Each linear infrared sensor captures an image of the contact surface with an infrared portion representing a touch area of a contact object, the image has an aspect ratio greater than that of the contact surface. The processor determines the touch location of the contact object based on the aspect ratios of the image and the contact surface, the location of the infrared portion on the image, the area of the infrared portion and the area of the touch portion of the contact object. The controller executes an instruction according to the determined location of the contact object.

Optical touch system with display screen

An optical touch system includes a display screen having a contact surface, an infrared light source emitting infrared light to cover the contact surface, a linear infrared sensor having a sensing surface with a lengthwise direction thereof parallel to the contact surface, a processor, and a controller. The linear infrared sensor captures an image of the contact surface with an infrared portion representing a touch area of a contact object, the image having an aspect ratio greater than that of the contact surface. The processor determines the touch location of the contact object based on the aspect ratios of the image and the contact surface, the location of the infrared portion on the image, the area of the infrared portion and the area of the touch portion of the contact object on the contact surface. The controller executes an instruction according to the determined location of the contact object.

An exemplary touch panel display includes a display panel, light source modules, and a camera. The display panel includes a touch surface. The light source modules are disposed on a periphery of the display panel. Light from the light source modules cooperatively forms a substantially planar illumination field. The camera is provided at a periphery of the display panel. When an object contacts or is adjacent to the touch surface, some of the light of the illumination field is reflected by the object to the camera.

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Taipei, Taiwan

Cheng-Yi Lai