Abstract: A sensor shifting module includes a fixed body, a first movable body movably disposed on the fixed body and coupled to an image sensor having an imaging plane oriented in a first direction, and a first driver configured to rotate the first movable body about an axis orthogonal to the first direction with respect to the fixed body, wherein the first driver includes a tilt guide ball disposed between the fixed body and the first movable body to provide a tilt center for the first movable body with respect to the fixed body.

Abstract: A sensor shifting actuator is provided. The sensor shifting actuator include a first movable body in which an image sensor having an imaging surface is disposed, a fixed body in which the first movable body is disposed to be movable in first and second directions parallel to the imaging surface, a driving unit configured to provide a driving force to the first movable body, and a position sensing unit configured to sense a position of the first movable body and including a sensing coil disposed on any one of the first movable body and the fixed body and a sensing yoke unit disposed on the other thereof, wherein the sensing yoke unit includes a plurality of sensing yokes spaced apart from each other in a direction orthogonal to the imaging surface, and each sensing yoke is configured to change in width in a moving direction of the first movable body.

Abstract: Disclosed is a transparent electrode implementing high transmissivity while preventing static electricity. The transparent electrode includes a transparent film arranged on a transparent substrate, a static electricity prevention film arranged on the transparent film, and an electrode layer arranged on the static electricity prevention film. Here, the transparent film has a thickness of 180 ? to 220 ?, the static electricity prevention film has a thickness of 550 ? to 750 ?, and the electrode layer has a thickness of 180 ? to 220 ?.

Abstract: A method of modulating and demodulating a signal includes modulating data information included in an input data signal provided from an external source and clock information included in an input clock signal provided from the external source into a transmission signal, using (n+1) delay clock signals generated based on the input clock signal, where n is a natural number. The transmission signal is demodulated into an output clock signal including restored clock information and an output data signal including restored data information, using (m+1) delay clock signals generated based on the clock information, where m is a natural number less than n.

Abstract: A method of modulating and demodulating a signal includes modulating data information included in an input data signal provided from an external source and clock information included in an input clock signal provided from the external source into a transmission signal, using (n+1) delay clock signals generated based on the input clock signal, where n is a natural number. The transmission signal is demodulated into an output clock signal including restored clock information and an output data signal including restored data information, using (m+1) delay clock signals generated based on the clock information, where m is a natural number less than n.

Abstract: There is provided a surface light source comprising a plurality of discharge channels, in which each end of the outermost discharge channel is expanded towards a sealing part. At least one of the plurality of discharge channels may include a curved surface part and a flat surface part on a top surface thereof. Both ends of the discharge channel may be formed to be higher than a middle portion thereof, and the discharge channels may be formed to be different in height. Accordingly, the discharge characteristic is improved and bad luminance uniformity is solved by variously changing the shape of the discharge channel forming the discharge space in a surface light source. Furthermore, the present invention solves the problems, such as failure in lighting at low temperature, channeling between adjacent channels, and maintains the quality of molded products.

Abstract: An in-line sputtering system for depositing a thin film on a substrate includes a buffer heating module, an entry transfer module adjacent to the buffer heating module and having an expedited conveyor device for moving the substrate therein and a first sputtering module for depositing the thin film on the substrate, which is adjacent to the entry transfer module. The entry transfer module serves as a buffer zone which mitigates fluctuations in temperature and pressure in the first sputtering module when the substrate is unloaded from the buffer heating module. The substrate in the entry transfer module is moved by the expedited conveyor device at a speed greater than that in the first sputtering module.

Abstract: An in-line sputtering system for depositing a thin film on a substrate includes a buffer heating module, an entry transfer module adjacent to the buffer heating module and having an expedited conveyor device for moving the substrate therein and a first sputtering module for depositing the thin film on the substrate, which is adjacent to the entry transfer module. The entry transfer module serves as a buffer zone which mitigates fluctuations in temperature and pressure in the first sputtering module when the substrate is unloaded from the buffer heating module. The substrate in the entry transfer module is moved by the expedited conveyor device at a speed greater than that in the first sputtering module.