Abstract:
A testing apparatus includes a thermal control chamber including a test room, which temperature is controlled within a testing temperature range; a carrier frame including a direction guiding unit installed securely within the test room and formed with one guiding groove and a carrier rod extending through the guiding groove in the direction guiding unit; and a clamping unit mounted on the carrier rod for clamping a display-panel module securely, wherein, movement of the carrier rod transversely within the guiding groove relative to the direction guiding unit results in disposing the display-panel module to extend along one of several testing directions for undergoing a burn-in test.
Abstract:
A test apparatus includes a test site, a buffer carrying device, a transport carrying device, a handling mechanism and a dry air flow guide mechanism. The test site performs a test procedure on the objects. The buffer carrying device is disposed close to a side of the test site, holds the objects and performs a temperature conditioning process. The transport carrying device is disposed close to another side of the test site, moves back and forth along a transporting direction, transports the objects into and out of the test site, and heats up the objects. The handling mechanism carries the objects among the buffer carrying device, the test site and the transport carrying device. The dry air flow guide mechanism guides a dry air to surround the test site, the buffer carrying device, the transport carrying device and the handling mechanism and generates a dry environment to prevent dew condensation.
Abstract:
The present invention relates to a total luminous flux measurement system and a method thereof for measuring a total luminous flux of a light emitting component. The total luminous flux measurement system includes a light receiving module, a first light detector and a processing module. The light receiving module is disposed on a central normal of the light emitting component and divides a projection light field to a forward light field and a side light field. The light receiving module receives a beam in the forward light field to obtain a forward luminous flux. The first light detector is disposed on a side of the light receiving module to receive a beam in the side light field to obtain a first side luminous flux. The processing module electrically connects the light receiving module and the first light detector to calculate the total luminous flux at the light emitting component.
Abstract:
An image capturing device includes a cube prism and three image capturing units. The cube prism includes an incident surface, a first exiting surface, a second exiting surface, and a third exiting surface orthogonal to each other, and further includes a first splitting surface, a second splitting surface, a third splitting surface, and a forth splitting surface orthogonal to each other. The light incident into the incident surface is split by the four splitting surfaces into monochromatic lights, and the monochromatic lights respectively exit from the three exiting surfaces to be received by the image capturing units to form images. The images can be combined as a multicolored image. Accordingly, the light-use efficiency and the image resolution can be improved, and the color fault of the image can be avoided.
Abstract:
The invention discloses a light emitting component measuring system and the method thereof which is capable of measuring the optical proprieties of a plurality of the devices under test (DUT). Each DUT is capable of receiving electricity so as to output an initial ray, wherein each initial ray has a first wavelength range. The light emitting component measuring system comprises a filtering device and a sensing device. The filtering device comprises a first filtering portion which can filter a corresponding third wavelength of the said initial rays and output a plurality of first filtered rays simultaneously. Each first filtered ray has a second wavelength range respectively. The said sensing device receives the ray outputted from the filtering device and generates an optical data accordingly.
Abstract:
An electronic load device provided for testing an OT (power supply to be tested) and the working bandwidth is regulated and set according to the output impedance of the OT. The electronic load device comprises a CPU, an impedance-bandwidth table, a voltage-current measurement unit, a power stage and a control module. Firstly, a current pulled out from the OT to the power stage is called by the CPU. Thereafter, an output impedance of the OT is measured by the voltage-current measurement unit and analysis by the CPU. Next, a working bandwidth of the electronic load device is regulated and set by the control module according to the output impedance and the impedance-bandwidth table.
Abstract:
An optical image system surface resolution calibration method is provided herein, which utilizes a calibration standard and an image sensor device. The surface of the calibration standard is provided with a plurality of interleaving bright lines and dark lines, the calibration standard is disposed in a plane to be measured, and the image sensor device is provided with an imaging means, a memory means, and a logic-arithmetic means, that is used to fetch the image information of the calibration standard and store the image information thus obtained. Meanwhile, the image sensor device is used to select and calculate the linear equations of the bright lines, and finally calculate the magnification factor of the image fetched by the image sensor device through the geometric mathematical means by making use of the slope and intersection distance of the linear equation and the average distance between the adjacent bright lines calculated from the intersection distance.
Abstract:
A method for testing System-In-Package (SIP) devices each having a plurality of electrical contacts is described. The method and apparatus utilizes industry standard JEDEC trays and tests at least a predetermined portion of all devices in such trays at the same time.
Abstract:
The present invention provides a photosensor testing device with a built-in light source and a tester provided with said device, which has a base and an upper cover disposed above the base, characterized in that the upper cover is equipped with at least one light emitting diode (LED) assembly used as a light source for a photosensor under test to undergo testing operation. Therefore, the components such as high intensity discharge lamps and optical processing devices are unnecessary any more, reducing the bulk volume of the testing device and its related cost. Besides, the testing process would be speeded up and the testing accuracy could be improved, as well as the time consumed in replacing the light source would be saved.
Abstract:
An automatic focusing method is provided, which is realized through an imaging device as based on the multi-stage search principle and a focusing function. Thus the focusing position search is implemented in three stages of: the optimal focusing position gross search, the wave packet interval search, and the optimal focusing position minute search, with the respective stages having different search-step-magnitudes. Wherein, the integer times of one half the wavelength of the incident light of the imaging device is utilized as the search-step-magnitude to search for the maximum value of the focusing function in the wave packet interval, and define the focusing position corresponding to the maximum value of the focusing function as the optimal focusing position, hereby obtaining the optimal focusing position in a speedy and efficient manner.