Abstract: A localized heating device includes a plasma deforming portion and a heating portion. The plasma deforming portion includes an inlet end having a circular hole, an outlet end having an elongated hole with a first length and a first width, and a channel smoothly connected with the circular hole and the elongated hole. The heating portion, disposed at the outlet end, includes two control covers spaced by a slot. The elongated hole and the slot being oppositely disposed with respect to the plasma deforming portion. A plasma flow provided by a plasma producing source being to enter the channel via the circular hole, then to flow through the elongated hole, and finally to reach the slot.

Abstract: A plasma processing device includes an upper electrode assembly and a lower electrode assembly. The upper electrode assembly has a plurality of post electrodes, made of a conductive material, protruding individually out of one surface of the upper electrode assembly, and connected to a plasma source. A plasma deficiency area having no post electrode is disposed in a center portion of the upper electrode assembly. The plurality of post electrodes are disposed in a ringlike electrode distribution area surrounding concentrically the plasma deficiency area. The lower electrode assembly is rotatable, made of a conducting material, and covered by a dielectric material.

Abstract: A semiconductor structure, a light-emitting device and a manufacturing method for the same are provided. The light-emitting device includes a light emitting diode and a conductive film. The conductive film contains quantum dots and is disposed on the light emitting diode.

Abstract: A semiconductor structure, a light-emitting device and a manufacturing method for the same are provided. The light-emitting device includes a light emitting diode and a conductive film. The conductive film contains quantum dots and is disposed on the light emitting diode.

Abstract: A plasma system comprises a first electrode which connecting to a power generator and a second electrode which is grounded and disposed corresponding to the first electrode, and a spacing between the first electrode and the second electrode. A conveying device transmits a substrate of non-conductive material into and through the spacing without touching the first electrode or the second electrode. A first gas-import device is positioned closed to the first electrode and comprises a plurality of first gas-import sections. A second gas-import device is positioned closed to the second electrode. A working gas imported into the spacing between the first electrode and the second electrode is stimulated by the power generator, and plasma is generated simultaneously on both sides of the substrate.

Abstract: An electrode contamination-proof device includes a first electrode structure, a second electrode structure, a sacrificing layer, and scroll driving devices. The second electrode structure and the first electrode structure are oppositely disposed. The sacrificing layer being positioned between the first electrode structure and the second electrode structure is capable of movably and tightly clinging on the exterior surface of the first electrode structure. The scroll driving devices is capable of driving the sacrificing layer to scroll around the scroll driving device. Besides, a film coating system is also provided.

Abstract: A plasma device includes a dielectric barrier, a first electrode structure, a second electrode structure, and a third electrode structure. The dielectric barrier has an upstream terminal and a downstream terminal and defines a space, in which the first electrode structure is disposed. A gap with multiple widths is formed between the first electrode structure and the dielectric barrier. The dielectric barrier is located between the first electrode structure and the second electrode structure. The second electrode structure includes electrode blocks sequentially arranged from the upstream terminal to the downstream terminal. The dielectric barrier, the first electrode structure, and the second electrode structure are located on the same side of the third electrode structure located at the downstream terminal. A minimum distance between the electrode blocks and the third electrode structure is not less than a distance between the first electrode structure and the third electrode structure.

Abstract: A plasma device includes a dielectric barrier, a first electrode structure, a second electrode structure, and a third electrode structure. The dielectric barrier has an upstream terminal and a downstream terminal and defines a space, in which the first electrode structure is disposed. A gap with multiple widths is formed between the first electrode structure and the dielectric barrier. The dielectric barrier is located between the first electrode structure and the second electrode structure. The second electrode structure includes electrode blocks sequentially arranged from the upstream terminal to the downstream terminal. The dielectric barrier, the first electrode structure, and the second electrode structure are located on the same side of the third electrode structure located at the downstream terminal. A minimum distance between the electrode blocks and the third electrode structure is not less than a distance between the first electrode structure and the third electrode structure.

Abstract: A plasma deposition apparatus including a plasma generation unit and a droplet separation unit is provided. The plasma generation unit includes an inlet end and an outlet end. The droplet separation unit is located at the inlet end. Besides, the droplet separation unit includes a first chamber, an import port, and a connection port. The import port and the connection port are connected to the first chamber. The connection port is connected to the inlet end, and the import port serves to receive an atomized precursor. The atomized precursor is separated into a first portion and a second portion after entering the first chamber, and droplets of the first portion are smaller than droplets of the second portion. The first portion of the atomized precursor is suitable for entering the inlet end through the connection port.

Abstract: A liquid crystal display includes a lower substrate, an upper substrate positioned parallel with the lower substrate, and a plurality of pixel units between the lower substrate and the upper substrate. Each pixel unit includes an upper transparent electrode, a liquid crystal layer, a lower transparent electrode, and a color filter with recess structures.

Abstract: A liquid crystal display includes a lower substrate, an upper substrate positioned parallel with the lower substrate, and a plurality of pixel units between the lower substrate and the upper substrate. Each pixel unit includes an upper transparent electrode, a liquid crystal layer, a lower transparent electrode, and a color filter with recess structures.

Abstract: A liquid crystal display includes a lower substrate, an upper substrate positioned parallel with the lower substrate, and a plurality of pixel units between the lower substrate and the upper substrate. Each pixel unit includes an upper transparent electrode, a liquid crystal layer, a lower transparent electrode, and a color filter with recess structures.

Abstract: The present invention relates to a method for manufacturing a color filter. The method utilizes the dry film technology, photomasks, exposure and development process to form the black frame, the red pixel array and the green pixel array on the substrate. Finally, the blue pixel array is formed on the substrate by utilizing a back mask, exposure from a backside of the substrate and development process. Therefore, the red pixel array and the green pixel array on the substrate can cut the UV exposure from backside. In the exposure process, only the blue pixel array in a recess area exposes under the UV light. After the development process, the blue pixel array is formed on the substrate.

Abstract: A liquid crystal display includes a lower substrate, an upper substrate positioned parallel with the lower substrate, and a plurality of pixel units between the lower substrate and the upper substrate. Each pixel unit includes an upper transparent electrode, a liquid crystal layer, a lower transparent electrode, and a color filter with recess structures.

Abstract: The present invention relates to a method for manufacturing a color filter. The method utilizes the dry film technology, photomasks, exposure and development process to form the black frame, the red pixel array and the green pixel array on the substrate. Finally, the blue pixel array is formed on the substrate by utilizing a back mask, exposure from a backside of the substrate and development process. Therefore, the red pixel array and the green pixel array on the substrate can cut the UV exposure from backside. In the exposure process, only the blue pixel array in a recess area exposes under the UV light. After the development process, the blue pixel array is formed on the substrate.