Abstract: An apparatus for rendering a three-dimensional (3D) polygon mesh includes a processor, and a memory storing instructions, wherein the processor is configured to execute the instructions to obtain a plurality of multi-view images corresponding to a plurality of captured images obtained by capturing an object at different capture camera positions, obtain a 3D polygon mesh for the object, select one or more of the plurality of multi-view images as one or more texture images based on a render camera position and capture camera positions of the plurality of multi-view images, and render the 3D polygon mesh as a two-dimensional (2D) image based on the selected one or more texture images.

Abstract: An apparatus for rendering a three-dimensional (3D) polygon mesh includes a processor, and a memory storing instructions, wherein the processor is configured to execute the instructions to obtain a plurality of multi-view images corresponding to a plurality of captured images obtained by capturing an object at different capture camera positions, obtain a 3D polygon mesh for the object, select one or more of the plurality of multi-view images as one or more texture images based on a render camera position and capture camera positions of the plurality of multi-view images, and render the 3D polygon mesh as a two-dimensional (2D) image based on the selected one or more texture images.

Abstract: An apparatus for processing a wide viewing angle image may include: a correction parameter generating unit for analyzing an image input from a camera to generate a correction parameter, a projection geometry generating unit for generating a projection geometry to output a wide viewing angle image by using the correction parameter, and a wide viewing angle image packaging unit for encoding the input image, the correction parameter and the projection geometry to generate a wide viewing angle image package. A method for processing a wide viewing angle image may be performed using the apparatus.

Abstract: A head-mounted display (HMD) may include a sensor unit, a display unit configured to display an image, and a control unit for measuring a tapping applied to the head-mounted display from a measurement value obtained by the sensor unit, and controlling the image displayed on the display unit by using the tapping as an input signal. When the HMD is used, an image displayed on the HMD may be controlled by using a tapping applied to the HMD as an input signal, and thus, an event may be processed without using any additional controller.

Abstract: A head-mounted display (HMD) may include a sensor unit, a display unit configured to display an image, and a control unit for measuring a tapping applied to the head-mounted display from a measurement value obtained by the sensor unit, and controlling the image displayed on the display unit by using the tapping as an input signal. When the HMD is used, an image displayed on the HMD may be controlled by using a tapping applied to the HMD as an input signal, and thus, an event may be processed without using any additional controller.

Abstract: An apparatus for processing a wide viewing angle image may include: a correction parameter generating unit for analyzing an image input from a camera to generate a correction parameter, a projection geometry generating unit for generating a projection geometry to output a wide viewing angle image by using the correction parameter, and a wide viewing angle image packaging unit for encoding the input image, the correction parameter and the projection geometry to generate a wide viewing angle image package. A method for processing a wide viewing angle image may be performed using the apparatus.

Abstract: There are provided embodiments for a three-dimensional ultrasound Image based on a three-dimensional color reference table. In one embodiment, an ultrasound system comprises: a storage unit for storing a three-dimensional color reference table for providing colors corresponding to at least one of intensity accumulation values and shading values throughout depth; and a processing unit configured to form volume data based on ultrasound data corresponding to a target object and perform ray-casting on the volume data to calculate intensity accumulation values and shading values throughout the depth, the processing unit being further configured to apply colors corresponding to the at least one of the calculated intensity accumulation values and the calculated shading values based on the three-dimensional color reference table.