Abstract:
Systems and methods for hemodialysis or peritoneal dialysis having integrated electrodeionization capabilities are provided. In an embodiment, the dialysis system includes a carbon source, a urease source and an electrodeionization unit. The carbon source and urease source can be in the form of removable cartridges.
Abstract:
A pneumatic ink-jet system is applied in an inkjet printer and uses a negative pressure generator, which is designed according to the Bernoulli's Theory, with a stable airflow in a certain speed to generated stable pressure inside at least one inkpot and at least one print head. Therefore, the at least one print head is kept in an appropriate wet state and the quality of printing is enhanced. Moreover, a top surface of the ink inside the at least one inkpot can be controlled to be higher than the at least one print head, so the pneumatic ink-jet system can be applied in a large format inkjet printer.
Abstract:
A multi-domain liquid crystal display includes a first and a second substrates, and a liquid crystal layer is interposed between the first and the second substrates. A first common electrode is formed on an entire surface of the first substrate. A first dielectric layer is formed on the second substrate and covers first signal lines, and a second dielectric layer is formed on the first dielectric layer and covers second signal lines. A plurality of pixel electrodes are formed on the second dielectric layer, and a plurality of second common electrodes are formed on the second substrate, where a voltage difference existing between the second common electrodes and the pixel electrode produces fringe fields.
Abstract:
An exemplary protecting film for coating a three-dimensional surface of a workpiece, includes an adhesive layer and a release layer. The adhesive layer defines a split. The release layer includes a remaining portion for shielding the split of the adhesive layer and a release portion detachably formed on the adhesive layer. The remaining portion is capable of remaining on the adhesive layer after the release portion detaches from the adhesive layer. A method for coating a protecting film on a workpiece is also provided.
Abstract:
An image sensor package includes a first substrate, an image sensor chip, a processing chip and a plurality of passive elements. The first substrate has a supporting surface and a bottom surface opposite to the supporting surface. The image sensor chip is disposed on the supporting surface and electrically connected to the first substrate. The image sensor chip package further includes a second substrate. The processing chip and the passive elements are mounted on the second substrate and electrically connected to the second substrate. The bottom surface of the first substrate defines a cavity for receiving the second substrate, the processing chip and the passive elements therein.
Abstract:
A semiconductor unit includes an interface plate, a supporting plate integrally formed with the interface plate, two chip packages positioned at opposite sides of the supporting plate, and leading traces running in the interface plate and the supporting plate, connected with the chip packages respectively.
Abstract:
A testing system (200) for digital camera modules (100) includes a first testing module (50), an assembling mechanism (60), a focusing module (62), a second testing module (70), a carrying mechanism (80), and a main processor (90). The carrying mechanism supports and transports subassemblies of the digital camera modules and the digital camera modules between the first testing module, the assembling mechanism, the focusing module and the second testing module. The first testing module, the assembling mechanism, the focusing module, the carrying mechanism, and the second testing module are all electronically connected with the main processor.
Abstract:
A memory structure including a substrate, dielectric patterns, spacer patterns, a first dielectric layer, a conductor pattern, a second dielectric layer and doped regions is described. The dielectric patterns are disposed on the substrate. The spacer patterns are disposed on each sidewall of each of the dielectric patterns respectively. The first dielectric layer is disposed between the spacer patterns and the substrate. The conductor pattern is disposed on the substrate and covers the spacer patterns. The second dielectric layer is disposed between the spacer patterns and the conductor pattern. The doped regions are disposed in the substrate under each of the dielectric patterns respectively.
Abstract:
An exemplary image sensor package includes a base, an image sensor chip, a bonding layer, and an imaging lens. The image sensor chip is disposed on the base. The image sensor chip includes a photosensitive area. The bonding layer is disposed on at least one of the image sensor chip and the base. The bonding pads surround the photosensitive area. The imaging lens is adhered onto the bonding layer and hermetically seals the photosensitive area with the bonding layer. The imaging lens is configured for forming images on the photosensitive area. The present invention also relates to a method for manufacturing the image sensor package.
Abstract:
A chip package includes a carrier (32), an image sensor chip (34), a plurality of wires (36), an adhesive means (3262) and a transparent cover (38). The carrier has a cavity (321) therein. The image sensor chip is received in the cavity, and the image sensor has a photosensitive area (344). Each wire electronically connects the image sensor chip and the carrier. The adhesive means is applied to the image sensor chip around the photosensitive area and covers at least one portion of all the wires adjacent to the photosensitive area. The adhesive means surrounds an enclosing body (3264) around the photosensitive area. The transparent cover is mounted to the carrier, and the cover is adhered to the carrier with the adhesive means. The cover with the enclosing body defines a sealing space (37) for enclosing the photosensitive area of the image sensor chip therein.