A system that incorporates teachings of the present disclosure may include, for example, a non-transitory computer-readable storage medium having computer instructions to detect a first position of a viewing apparatus, wherein the viewing apparatus enables viewing of media programs, obtain a media program in a first viewing perspective that conforms to the first position, present the media program with the first viewing perspective for viewing by way of the viewing apparatus, and transmit to the viewing apparatus a first audio signal corresponding to the first viewing perspective. The storage medium can also have computer instructions to detect that the viewing apparatus has moved to a second position, obtain the media program in a second viewing perspective according to the second position, and present the media program with the second viewing perspective for viewing by way of the viewing apparatus. Other embodiments are disclosed and contemplated.

The invention provides an eyewear device for transmitting a signal and a communication method thereof. The eyewear device comprises a receiving unit, a shutter and a transmitting unit. For example, the receiving unit is capable of receiving a synchronization signal, and the shutter performs an operation in response to the synchronization signal. Meanwhile, the transmitting unit transmits the synchronization signal to another eyewear device. By this way, each eyewear device is capable of receiving the synchronization signal, and re-transmits the synchronization signal to another eyewear device.

The present invention relates to a 3D image display device and includes an image display panel for displaying a 3D image, a control unit for controlling a viewpoint image, and a viewer position tracking system for determining the position of a viewer's pupil and transmitting positional information to the control unit, wherein the image display panel provides multiple viewpoints such as four or more viewpoints, and the intersection of the viewing zone for any one of the multiple viewpoints with the field of view of an adjacent viewpoint is at least 85% of the maximum brightness of one viewpoint.

A 3D display driving method and a 3D glasses driving method are provided. In the 3D display driving method, after a left-eye image and a right-eye image in a stereoscopic image pair of each frame are displayed, one frame of buffer image is inserted, then a left-eye image and a right-eye image in a stereoscopic image pair of a next frame are displayed. By inserting one frame of buffer image between two consecutive frames of left-eye and right-eye image pairs, the dizziness and blurring feeling generated due to the visual persistence characteristics of the human eyes when the human brain processes different image pairs are relieved.

A method, device and system for packing a color frame and an original depth frame to obtain a packed frame are disclosed. The color frame is corresponding to the original depth frame, and the packed frame is to be displayed on a screen. The method for packing the color frame and the original depth frame includes the steps of: resizing the original depth frame to obtain a resized depth frame; and combining the color frame and the resized depth frame to obtain the packed frame. The center of the color frame is displayed in the central area of the screen.

A system for motion control is presented. In one embodiment, a motion control 3D projection system includes a projector; and a projection surface coupled to a robotic arm, where the robotic arm moves the projection surface through a set of spatial coordinates, and a 3D projection from the projector is projected onto a set of coordinates of the projection surface and matches the 3D projection to the set of coordinates of the projection surface as the projection surface moves through the set of spatial coordinates. In additional embodiments, a master control system may integrate additional robotic arms and other devices to create a motion control scene with a master timeline.

A multi view image display device is provided, which includes a depth estimator configured to estimate depth of an input image, a renderer configured to perform rendering of multi view image based on the estimated depth, a display configured to display the rendered multi view image, and a controller configured to control the rendering of the multi view image by controlling the number of rendering viewpoints according to a depth value of at least one object region included in the input image.

The present invention is directed to a laser light source for a vehicle.

In one aspect, a computer-implemented method for efficiently rendering and displaying multiple images on an electronic device having an automultiscopic display may generally include detecting, with the electronic device, a position of at least one eye relative to the automultiscopic display. The automultiscopic display may include an array of multipixels, with each multipixel including a plurality of sub-multipixels. In addition, the method may include rendering a viewpoint-specific image for each detected eye position and selectively coloring at least one sub-multipixel within one or more of the multipixels such that colors associated with the rendered viewpoint-specific image are only displayed within a multipixel display zone defined for each of the one or more multipixels with respect to each detected eye position.

Methods and apparatus for allowing a user to switch viewing positions and/or perspective while viewing an environment, e.g., as part of a 3D playback/viewing experience, are described. In various embodiments images of the environment are captured using cameras placed at multiple camera positions. During viewing a user can select which camera position he/she would like to experience the environment from. While experiencing the environment from the perspective of a first camera position the user may switch from the first to a second camera position by looking at the second position. A visual indication is provided to the user to indicate that the user can select the other camera position as his/her viewing position. If a user input indicates a desired viewing position change, a switch to the alternate viewing position is made and the user is presented with images captured from the perspective of the user selected alternative viewing position.