Abstract: An interactive stereoscopic display and an interactive sensing method for the same are provided. In the method, a gesture sensor senses a hand gesture over a stereoscopic image displayed on a stereoscopic display. The gesture is such as moving, rotating or zooming actions. The gesture is referred to, to obtain stereo coordinate variations that are used to determine an interactive instruction. Next, the stereoscopic display or a stereoscopic image server generates a new stereoscopic image data by comparing image coordinate data of the stereoscopic image with a previous state of image coordinate data according to the interactive instruction. The stereoscopic image data describes color and three-dimensional information of the stereoscopic image. Therefore, the stereoscopic display displays a new stereoscopic image using the new stereoscopic image data. The method achieves an interactive effect with the stereoscopic image using the gesture.

Abstract: A stereoscopic display method and a system for displaying an online object are provided. The system provides a stereoscopic image server and a user-end stereoscopic image display. When a user browses a content website, the website provides a flat image to a user device, and a content server also generates a request for displaying an object. The stereoscopic image server generates a stereoscopic image data corresponding to the object according to the request. The stereoscopic image data can be obtained by querying an image database, or by calculation using a stereoscopic image resource file. The stereoscopic image data is provided for the stereoscopic image display to display a stereoscopic image. Alternatively, the stereoscopic image data can be generated by the user-end stereoscopic image display when it receives the stereoscopic image resource file from the server.

Abstract: A stereo image display apparatus includes a display device, a lens array layer and a shielding unit. The lens array layer is disposed adjacent to a display surface of the display device, and the lens array layer includes a plurality of lenses. The shielding unit is disposed between the display device and the lens array layer, or is disposed on the display device, or is disposed on the lens array layer. The shielding unit includes a plurality of light transmitting regions and at least one light shielding region, the light shielding region is located at a periphery of the light transmitting regions, the light transmitting regions respectively correspond in position to the lenses, and the lens array layer is configured to reconstruct an un-reconstructed image displayed by the display surface as an integral image to produce a stereo image.

Abstract: An image display device includes a flat panel display, a lens array layer, and a microstructure dynamic optical layer. The lens array layer is located at a side of a display surface of the flat panel display, and can adjust light field. The microstructure dynamic optical layer is located at the side of the display surface of the flat panel display, and can be switched to have a microstructure function or not to have the microstructure function. When being switched to have the microstructure function, the microstructure dynamic optical layer can modulate a direction of light emitted from the flat panel display. Accordingly, the image display device can display a 3D dimensional image floating in mid-air, and enables a user to see the 3D dimensional image at an oblique viewing angle. The image display device can be used in different ways according to practical applications.

Abstract: A lithography system is provided and includes a light source device configured to emit a processing light beam onto the semiconductor wafer, to generate a penetrating light beam and a reflected light beam. The lithography system further includes a detecting module having a first detector and a second detector. The first detector is configured to receive the penetrating light beam to generate first power data, and the second detector is configured to receive the reflected light beam to generate second power data. The lithography system also includes a monitoring device configured to calculate absorbed power data of the semiconductor wafer according to the first power data, the second power data and reference power data of a reference light beam and configured to compensate for a pattern formed on the semiconductor wafer resulting from the processing light beam according to the absorbed power data and reference information.

Abstract: A stereo image display apparatus includes a display device, a lens array layer and a directional structure. The display device includes display surface and an image algorithm unit. The lens array layer is disposed adjacent to the display surface of the display device. The lens array layer includes a plurality of lenses. The directional structure disposed between the display device and the lens array layer or disposed on the lens array layer. The directional structure enables light generated by the display device to emit directionally, and the lens array layer is configured to reconstruct an un-reconstructed image displayed by the display surface as an integral image to produce a stereo image, so that a better stereo image display effect can be provided.

Abstract: An article of furniture with a stereoscopic display device includes a furniture device and a stereoscopic display device. The furniture device includes a main body. The main body has an accommodating slot. The stereoscopic display device is disposed in the accommodating slot. The stereoscopic display device includes a flat panel display, a lens array layer and a microstructure layer. The lens array layer is disposed on a display surface of the flat panel display. The lens array layer is configured to adjust light field. The microstructure layer is disposed on the lens array layer. The microstructure layer is configured to modulate a direction of light. The stereoscopic display device is configured to display a stereo image floating in mid-air. Accordingly, a user can naturally see the stereo image floating in mid-air at an oblique viewing angle.

Abstract: An electronic product with a stereoscopic display device includes a main body and a stereoscopic display device. The main body includes a housing and a circuit unit. The circuit unit is disposed in the housing. The housing has an accommodating slot. The stereoscopic display device is disposed in the accommodating slot. The stereoscopic display device includes a flat panel display, a lens array layer and a microstructure layer. The lens array layer is disposed on a display surface of the flat panel display. The lens array layer is configured to adjust light field. The microstructure layer is disposed on the lens array layer. The microstructure layer is configured to modulate a direction of light. The stereoscopic display device is configured to display a stereo image that is floating in mid-air. Accordingly, a user can naturally see the stereo image floating in mid-air at an oblique viewing angle.

Abstract: An image display device includes a flat panel display, a lens array layer, and a microstructure dynamic optical layer. The lens array layer is located at a side of a display surface of the flat panel display, and can adjust light field. The microstructure dynamic optical layer is located at the side of the display surface of the flat panel display, and can be switched to have a microstructure function or not to have the microstructure function. When being switched to have the microstructure function, the microstructure dynamic optical layer can modulate a direction of light emitted from the flat panel display. Accordingly, the image display device can display a stereo image floating in mid-air, and enables a user to see the stereo image at an oblique viewing angle. The image display device can be used in different ways according to practical applications.

Abstract: A lithography system is provided and includes a light source device configured to emit a processing light beam onto the semiconductor wafer, to generate a penetrating light beam and a reflected light beam. The lithography system further includes a detecting module having a first detector and a second detector. The first detector is configured to receive the penetrating light beam to generate first power data, and the second detector is configured to receive the reflected light beam to generate second power data. The lithography system also includes a monitoring device configured to calculate absorbed power data of the semiconductor wafer according to the first power data, the second power data and reference power data of a reference light beam and configured to compensate for a pattern formed on the semiconductor wafer resulting from the processing light beam according to the absorbed power data and reference information.

Abstract: The disclosure is related to a method for rendering a three-dimensional image, an imaging method and a system. The system receives three-dimensional image information regarding. A reference image with respect to the three-dimensional image can be created based on the information. According to the physical information relating to multiple optical elements of a display device, an element image corresponding to each optical element is calculated. The multiple elements images corresponding to the multiple optical elements render an integral image. The integral image is used to render the three-dimensional image through the multiple optical elements. In one embodiment, the optical element is a lens set. The integral image is inputted to a display driving unit of the display device so as to render the element image for every lens set. The display device then displays the integral image so as to from the three-dimensional image through a lens array.

Abstract: The disclosure is related to a method for tuning a three-dimensional image, and a display apparatus thereof. In the method, an integral image composed of multiple element images and used to reproduce a three-dimensional image is obtained. The pixel values of every element image are extracted. Depending on hardware configuration, a certain range of the pixels within one-dimensional pixels of the element image are selected. The pixel values of the selected pixels are filled in the zones divided from the one-dimensional pixels in an ascending order or a descending order, and/or with continuously-duplicate values according to pixel numbers of the selected pixels. A new element image is therefore formed. By repeating these steps, a new integral image can be created. This new integral image effectively reduces the difference between the image regions and won't make a viewer see the uncomfortable three-dimensional image due to the excessively large difference.

Abstract: The present invention provides a display device including a display panel and a haze layer. The display panel includes a plurality of pixels and a color determining surface. The orthogonal projection of each of the plurality of pixels onto the color determining surface forms a plurality of adjacent pixel ranges. The haze layer is disposed on a side of the color determining surface and has a haze surface facing away from the color determining surface. The haze layer has a scattering coefficient ranging from ?1.4 to 0. The haze surface includes a first location corresponding to the center of the first pixel range, and a second location corresponding to a location away from the first edge towards the second pixel range wherein the distance therebetween ranges from 87 ?m to 174 ?m.

Abstract: A stack includes a substrate and a magnetic recording layer. Disposed between the substrate and magnetic recording layer is an MgO—Ti(ON) layer.

Abstract: A stereo image display apparatus includes a display device, a lens array layer and a directional structure. The display device includes display surface and an image algorithm unit. The lens array layer is disposed adjacent to the display surface of the display device. The lens array layer includes a plurality of lenses. The directional structure disposed between the display device and the lens array layer or disposed on the lens array layer. The directional structure enables light generated by the display device to emit directionally, and the lens array layer is configured to reconstruct an un-reconstructed image displayed by the display surface as an integral image to produce a stereo image, so that a better stereo image display effect can be provided.

Abstract: The disclosure is related to a method for tuning a three-dimensional image, and a display apparatus thereof. In the method, an integral image composed of multiple element images and used to reproduce a three-dimensional image is obtained. The pixel values of every element image are extracted. Depending on hardware configuration, a certain range of the pixels within one-dimensional pixels of the element image are selected. The pixel values of the selected pixels are filled in the zones divided from the one-dimensional pixels in an ascending order or a descending order, and/or with continuously-duplicate values according to pixel numbers of the selected pixels. A new element image is therefore formed. By repeating these steps, a new integral image can be created. This new integral image effectively reduces the difference between the image regions and won't make a viewer see the uncomfortable three-dimensional image due to the excessively large difference.

Abstract: The disclosure is related to a method for rendering a three-dimensional image, an imaging method and a system. The system receives three-dimensional image information regarding. A reference image with respect to the three-dimensional image can be created based on the information. According to the physical information relating to multiple optical elements of a display device, an element image corresponding to each optical element is calculated. The multiple elements images corresponding to the multiple optical elements render an integral image. The integral image is used to render the three-dimensional image through the multiple optical elements. In one embodiment, the optical element is a lens set. The integral image is inputted to a display driving unit of the display device so as to render the element image for every lens set. The display device then displays the integral image so as to from the three-dimensional image through a lens array.

Abstract: An attachable monitoring device includes a battery unit, a flexible printed circuit board and a physical condition sensor and an adhesive. The battery unit includes a top surface, a bottom surface and a plurality of side surfaces connecting the top surface and the bottom surface. The flexible printed circuit board is bent to cover the top surface, the bottom surface and one of the side surfaces and electrically connected to the battery unit. The flexible printed circuit board includes a printed antenna printed on a first outer surface of the flexible printed circuit board. The physical condition sensor is disposed on a second outer surface of the flexible printed circuit board opposite to the first outer surface. The physical condition sensor includes a sensing region for contacting a user to detecting a physical-condition signal of the user. The adhesive is disposed on the flexible printed circuit board for being attached to the user.

Abstract: An apparatus is disclosed. The apparatus includes a first write layer, a second write layer, and a storage layer. The first write layer is disposed over the storage layer. The second write layer is disposed over the first write layer. The anisotropy field of the storage layer is greater than anisotropy field of the first write layer. The anisotropy field of the first write layer is greater than anisotropy field of the second write layer. The Curie temperature of the second write layer is greater than the Curie temperature of the first write layer. The Curie temperature of the first write layer is greater than a Curie temperature of the storage layer.

Abstract: The present invention provides a display device including a display panel and a haze layer. The display panel includes a plurality of pixels and a color determining surface. The orthogonal projection of each of the plurality of pixels onto the color determining surface forms a plurality of adjacent pixel ranges. The haze layer is disposed on a side of the color determining surface and has a haze surface facing away from the color determining surface. The haze layer has a scattering coefficient ranging from ?1.4 to 0. The haze surface includes a first location corresponding to the center of the first pixel range, and a second location corresponding to a location away from the first edge towards the second pixel range wherein the distance therebetween ranges from 87 ?m to 174 ?m.