Abstract:
A hybrid transmission/auto-conversion 3D format and scheme for transmission of 3D data towards various types of 3D displays is described. In the decoder (20) a stereo-to-depth convertor (24) generates a depth map. In the 3D video signal additional depth information called depth helper data (DH-bitstr) is sparsely transmitted both in time (partial depths in time) and/or spatially (partial depth within the frames). A depth switcher (25) selects the partial depths based on an explicit or implicit mechanism for indicating when these are to be used or when the depths must be automatically generated locally. Advantageously disturbing depth errors due to said stereo-to-depth convertor are reduced by the depth helper data.
Abstract:
A three-dimensional (3D) display apparatus and method controlling thereof are provided. The 3D display apparatus includes: a reception unit which receives a 3D image signal from another 3D display apparatus; a conversion unit which converts a disparity of the 3D image signal based on transmitter information of the other 3D display apparatus and receiver information of the 3D display apparatus, and generates an output 3D image signal having depth information which is proportional to depth information of the 3D image signal; and a display unit which outputs the output 3D image signal.
Abstract:
This disclosure describes techniques for encoding a two-dimensional (2D) video sequence of video frames along with three-dimensional (3D) conversion information comprising a set of parameters that can be applied to each of the video frames of the 2D sequence to generate 3D video data. The set of parameters may comprise a relatively small amount of data that can be applied to each of the original video frames of the 2D sequence to generate secondary views of each of the original video frames. The original video frames and the secondary views may collectively define a stereoscopic 3D video sequence. The 2D sequence and the set of parameters may comprise significantly less data than would otherwise be needed to communicate a 3D sequence. This disclosure also describes some exemplary syntax that may be used to encode the set of parameters in an effective and efficient manner.
Abstract:
A broadcast transmitter, a broadcast receiver, and a 3D video data processing method are disclosed. A 3D video data processing method includes processing, by a video formatter, 3D video data, encoding, by an encoder, 3D video data, generating, by a system information processor, system information having 3D video composition information including information about the processing and encoding of 3D video data, multiplexing, by a multiplexer, the system information and the 3D video data, and transmitting, by a transmitter, a broadcast signal. In a 3D video data processing method, a receiver receives a broadcast signal including 3D video data and system information, a system information processor obtains 3D video composition information by parsing the system information, a decoder decodes the 3D video data according to the 3D video composition information, and an output formatter formats and outputs the decoded 3D video data according to the 3D video composition information.
Abstract:
A receiving system and a method of processing data are disclosed herein. The receiving system includes a receiving unit, a system information processor, a decoding unit, and a display unit. The receiving unit receives a broadcast signal including a 3D content and system information associated with the 3D content. The system information processor extracts identification information from the system information. Herein, the identification information may identify that the broadcast signal being received by the receiving unit includes the 3D content. The decoding unit decodes the received 3D content based upon transmission format information of the 3D content. Herein, the transmission format information may be included in the extracted identification information. And, the display unit displays the 3D content decoded by the decoding unit as a 3D image based upon a display method of a display device.
Abstract:
When stereoscopic image data based on monocular images of one object created by setting a predetermined parallax is generated, a metadata creating section creates additional data on the stereoscopic image data, and an image file creating section creates also information on the date and time when the additional data is created or updated. Information on the date and time when the additional data is created or updated and information on the date and time when an image file is created or updated are further added and converted into a file of a predetermined file format to thus create an image file. When a device compatible with 3D reproduces an image, it is judged whether or not information on the date and time of the additional data agrees with those of the image file. If not, it is assumed that a stereoscopic image is retouched and edited by a device or software incompatible with 3D, continuation of reproduction is prohibited, the additional data is made invalid, and a warning is made. Thus, reproduction using metadata having no correlation with image data is prevented.
Abstract:
An apparatus for three-dimensional thermal imaging in medical applications, said apparatus comprising a power supply, user interface controls, focal plane array (FPA), electronics, and optics. It provides two real-time viewable IR channels for binocular vision with a variable focus distance which can be optimized at any distance from six inches to infinity. The present invention enables 3-D vision in the thermal band for greater awareness of everything within the field of view. Potential medical applications are discussed and presented.