Triple Win Technology(shenzhen) Co.ltd.

Mfc Sealing Technology Co., Ltd.

Hon Hai Precision Industry Co., Ltd.

National Applied Research Laboratories

Chun-Yao Huang

Cheng-An Lin

Yo-Yu Chang

Hsin-Yi Tsai

Kuo-Cheng Huang

Min-Wei Hung

Jheng-Jie Jhou

Yu-Kai Wang

A lens module of enhanced stability and strength when mounted to an image-capturing device includes a voice coil motor. The voice coil motor includes a casing and a first connection plate connected to the casing. The first connection plate defines at least one first mounting hole. An electronic device using the lens module is also provided.

Lens module of improved stability and electronic device having the same

A structured light emitting module which gives an adjustable and resettable patterned structure to the laser light emitted comprises a laser source, a structured light lens, an optical diffraction element, and a driver. The optical diffraction element is located above the laser source, and the lens and the optical diffraction element cooperate to convert the laser into a speckled or other pattern. The lens is disposed in the driver, the driver can move the lens microscopically to change an illumination range or the structure of the patterned laser light which is output.

Structured light emitting module, 3D structured light sensor, and electronic device using the same

A lens module includes a voice coil motor, a lens received in the voice coil motor, a light emitting element adapted for emitting lights, a prism, and a DLP sensor. The prism faces and inclines towards the light emitting element. The prism is configured to reflect the lights from the light emitting element to the DLP sensor. The voice coil motor is configured to automatically adjust a distance between the lens and the DLP sensor according to a sharpness of the pattern and send electronic signals to the DLP sensor. When the DLP sensor receives the electronic signals, the DLP sensor rotates to change states of the DLP sensor according to the electronic signals and control an amount of the lights reflected into the lens according to the electronic signals thereby forming a pattern with a higher degree of sharpness than the pattern previously captured.

Lens module and electronic device using same

A light emitting device and an image capturing device using the light emitting device. The light emitting device includes a light emitting element, a digital micro mirror (DMD), a reflecting prism, and a housing. The light from the light emitting element is modulated by the DMD into structured light. The reflecting prism is on an optical path of the source light. The reflecting prism guides the source light to the DMD. The housing defines a receiving cavity. The light emitting element, the reflecting prism, and the DMD are received in the receiving cavity. The housing defines a light exit opening, the structured light exits from the light exit opening.

Light emitting device and image capturing device using same

A camera module testing fixture for testing a performance of a camera module includes a mounting body, a fixture block set detachably mounted to the mounting body, an actuating module, a cover fixed on the actuating module, and a base. The mounting body and the actuating module are disposed on a same first side of the base. The actuating module is configured to move the cover along a first direction to above the fixture block set and further configured to move the cover along a second direction perpendicular to the first direction and perpendicular to the mounting body.

Camera module testing fixture

A structured light emitting module includes a light source and a diffractive optical component. The light source generates laser light. The diffractive optical component is arranged on an optical path of the laser light emitted by the light source for diffracting the laser light. There is no lens arranged on an optical path of the laser light emitted by the light source.

Structured light sensing assembly

A testing device with enhanced accessibility for repair and replacement purposes includes a base, an upper seat, a test board and a needle seat. The upper seat is mounted on the base. The test board is sandwiched between the base and the upper seat. A receiving groove is defined on the upper seat. The receiving groove extends through the upper seat to partially expose the test board. The needle seat is detachably fixed to the upper seat. A lower part of the needle seat is received in the receiving groove and abuts against the test board. An upper portion of the needle seat protrudes from the upper seat and is configure for connecting connection terminals of a product to be tested.

Testing device having a detachable needle holder

A camera module for facilitating industrialized water assembly includes a lens driver, a holder, a printed circuit board, and at least two conductive adhesives. The lens driver includes at least one pin. The lens driver is mounted on the holder. The pin extends from the lens driver to the holder. The holder includes at least one conductive layer corresponding to the pin. The conductive layer includes a first end and a second end opposite to the first end. The holder is mounted on the printed circuit board. One conductive adhesive connects the pin to the first end of the conductive layer, the other one conductive adhesive connects the second end of the conductive layer to the printed circuit board, that makes the conductive layer electrically connect to the printed circuit board.

Camera module facilitating industrialized assembly line and electronic device with the same

Provided is a barrier seal for an electrostatic chuck in the plasma etching process. The barrier seal comprises multiple sealing portions to block the connecting layer of the electrostatic chuck and the plasma gas. The groove of the electrostatic chuck may be completely filled by the barrier seal. Even one of the multiple sealing portions is destroyed in the plasma etching process by the plasma gas, the barrier seal still prevents leaking of the electrostatic chuck effectively. The barrier seal provides a buffer period for engineers to replace the damaged barrier seal before the leaking occurs. Danger of leaking caused by abrupt breaking of the barrier seal is reduced. Furthermore, the barrier seal facilitates stability and safety of the plasma etching process. The yield of products manufactured by the electrostatic chuck may be improved.

Barrier seal for electrostatic chuck

A test device for the image-capturing ability of a fish-eye camera comprises a test box, an image test console carrying the fish-eye camera, a light plate on the image test console to cover the fish-eye camera, and a plurality of light source plates in the test box, surrounding the image test console and the light plate. The light plate further comprises a cap, the cap being a hollow hemisphere.

Device for testing fish-eye camera

Provided are a method, a guiding sheet, a partial filling jig, and a full filling jig for installing an elastomer ring in the semiconductor processing equipment. The guiding sheet, the partial filling jig, and the full filling jig dispose the elastomer ring in the groove of the semiconductor processing equipment smoothly and evenly. Furthermore, the surface of the elastomer ring may be divided to multiple arcs portions. Each one of the arc portions may be pressed by the partial filling jig or the full filling jig in a particular sequence. When the groove is filled by the elastomer ring accurately and completely, the elastomer ring may block the fluid and the etching gas effectively. The elastomer ring may help the semiconductor processing equipment to work continuously and maintain qualities of the etching wafers.

Method of installing elastomer ring in semiconductor processing equipment and guiding sheet and jig used in installing elastomer ring

An inspection system and method for inspecting the surface defects of the specimen is provided. The inspection system includes a laser focus module, a microscope objective module, an image pick-up module, and a process module. The laser focus module configured to emit laser beam on the specimen by a predetermined angle relative to a surface of the specimen, and to generate scattered light and reflected light when the laser beam irradiates on the surface defects of the specimen. The process module can calculate the real size of the defects by using the intensity information obtained from the image pick-up module and the microscope objective module or using the diameter information obtained from the reflected light image while the reflected light projects on a screen.

Growing community of inventors

Taipei, Taiwan

Chun-Yao Huang