US20070041444A1 - Stereoscopic 3D-video image digital decoding system and method - Google Patents

Stereoscopic 3D-video image digital decoding system and method Download PDF

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US20070041444A1
US20070041444A1 US11/510,262 US51026206A US2007041444A1 US 20070041444 A1 US20070041444 A1 US 20070041444A1 US 51026206 A US51026206 A US 51026206A US 2007041444 A1 US2007041444 A1 US 2007041444A1
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video
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tdvision
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Manuel Gutierrez Novelo
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TD VISION CORP DE C V SA
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Priority to US15/094,808 priority patent/US20170070742A1/en
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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/44—Decoders specially adapted therefor, e.g. video decoders which are asymmetric with respect to the encoder
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N13/00—Stereoscopic video systems; Multi-view video systems; Details thereof
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/30—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using hierarchical techniques, e.g. scalability
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/42—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals characterised by implementation details or hardware specially adapted for video compression or decompression, e.g. dedicated software implementation
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/50—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using predictive coding
    • H04N19/593—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using predictive coding involving spatial prediction techniques
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/50—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using predictive coding
    • H04N19/597—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using predictive coding specially adapted for multi-view video sequence encoding
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/60—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using transform coding
    • H04N19/61—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals using transform coding in combination with predictive coding
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N19/00—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals
    • H04N19/70—Methods or arrangements for coding, decoding, compressing or decompressing digital video signals characterised by syntax aspects related to video coding, e.g. related to compression standards

Definitions

  • the present invention is related to stereoscopic video image display in the 3DVisor® device and, particularly, to a video image decoding method by means of a digital data compression system, which allows the storage of three-dimensional information by using standardized compression techniques.
  • DCT Discrete Cosine Transform
  • variable-length code is a reversible process, which allows the exact reconstruction of that which has been coded with the variable-length code.
  • the display of digital video signals includes a certain number of image frames (30 to 96 fps) displayed or represented successively at a 30 to 75 Hz frequency. Each image frame is still an image formed by a pixels array, of the display resolution of a particular system.
  • the VHS system has a display resolution of 320 columns and 480 rows
  • the NTSC system has a display resolution of 720 columns and 486 rows
  • the high definition television system (HDTV) has a display resolution of 1360 columns and 1020 rows.
  • 320 columns by 480 rows VHS format a two-hour long movie could be equivalent to 100 gigabytes of digital video information.
  • a conventional compact optical disk has an approximate capacity of 0.6 gigabytes
  • a magnetic hard disk has a 1-2 gigabyte capacity
  • the present compact optical disks have a capacity of 8 or more gigabytes.
  • each image needs to be divided in rows, where each line is in turn divided in picture elements or pixels, each pixel has two associated values, namely, luma and chroma.
  • Luma represents the light intensity at each point, while luma represents the color as a function of a defined color space (RGB), which can be represented by three bytes.
  • the images are displayed on a screen in a horizontal-vertical raster, top to bottom and left to right and so on, cyclically.
  • the number of lines and frequency of the display can change as a function of the format, such as NTSC, PAL, or SECAM.
  • the video signals can be digitized for storage in digital format, after being transmitted, received, and decoded to be displayed in a display device, such as a regular television set or the 3DVisor®, this process is known as analog-to-digital video signal coding-decoding.
  • MPEG has two different methods for interlacing video and audio in the system streams.
  • the transport stream is used in systems with a greater error possibility, such as satellite systems, which are susceptible to interference.
  • Each package is 188 bytes long, starting with an identification header, which makes recognizing gaps and repairing errors possible.
  • Various audio and video programs can be transmitted over the transport stream simultaneously on a single transport stream; due to the header, they can be independently and individually decoded and integrated into many programs.
  • the program stream is used in systems with a lesser error possibility, as in DVD playing.
  • the packages have a variable-length and a size substantially greater than the packages used in the transport stream.
  • the program stream allows only a single program content.
  • Decoding is associated to a lengthy mathematical process, which purpose is to decrease the information volume.
  • the complete image of a full frame is divided by a unit called macroblock, each macroblock is made up of a 16 pixels ⁇ 16 pixels matrix, and is ordered and named top to bottom and left to right.
  • the information sent over the information stream follows a special sequential sequence, i.e. the macroblocks are ordered in ascending order, this is, macroblock 0 , macroblock 1 , etc.
  • a set of consecutive macroblocks represents a slice; there can be any number of macroblocks in a slice given that the macroblocks pertain to a single row.
  • the slices are numbered from left to right and bottom to top.
  • the slices should cover the whole image, as this is a form in which MPEG2 compresses the video, a coded image not necessarily needs samples for each pixel.
  • Some MPEG profiles require handling a rigid slice structure, by which the whole image should be covered.
  • U.S. Pat. No. 5,963,257 granted on Oct. 5, 1999 to Katata et al. protects a flat video image decoding device with means to separate the coded data by position areas and image form, bottom layer code, predictive coding top layer code, thus obtaining a hierarchical structure of the coded data; the decoder has means to separate the data coded in the hierarchical structure in order to obtain a high quality image.
  • U.S. Pat. No. 6,292,588 granted on Sep. 18, 2001 to Shen et al. protects a device and method for coding predictive flat images reconstructed and decoded from a small region, in such way that the data of the reconstructed flat image is generated from the sum of the small region image data and the optimal prediction data for said image.
  • Said predictive decoding device for an image data stream includes a variable-length code for unidimensional DCT coefficients.
  • U.S. Pat. No. 6,370,276 granted on Apr. 9, 2002 to Boon uses a decoding method similar to the above.
  • U.S. Pat. No. 6,456,432 granted on Sep. 24, 2002 to Lazzaro et al. protects a stereoscopic 3D-image display system, which takes images from two perspectives, displays them on a CRT, and multiplexes the images in a field-sequential manner with no flickering for both eyes of the observer.
  • U.S. Pat. No. 6,658,056 granted on Dec. 2, 2003 to Duruoz et al. protects a digital video decoder comprising a logical display section responding to a “proximal field” command to get a digital video field of designated locations in an output memory.
  • the digital video display system is equipped with a MPEG2 video decoder. Images are decoded as a memory buffer, the memory buffer is optimized maintaining compensation variable tables and accessing fixed memory pointer tables displayed as data fields.
  • U.S. Pat. No. 6,665,445 granted on Dec. 16, 2003 to Boon protects a data structure for image transmission, a flat images coding method and a flat images decoding method.
  • the decoding method is comprised of two parts, the first part to codify the image-form information data stream, the second part is a decoding process for the pixel values of the image data stream, both parts can be switched of the flat image signal coding.
  • the circuit includes a microprocessor, a MPEG decoder, which decodes a flat image sequence, and a common memory for the microprocessor, and the decoder. It also includes a circuit for evaluating the decoder delay, and a control circuit for determining the memory priority for the microprocessor or the decoder.
  • VLD variable_length decoding
  • IDCT inverse_discrete_cosine_transform
  • FIG. 1 represents one embodiment of a technology map
  • FIG. 2 shows a flowchart in which the steps of one embodiment of a process are outlined.
  • FIG. 3 illustrates structures that can be modified and the video_sequence of the data stream in order to identify the TDVision® technology image type at the bit level.
  • FIG. 4 shows one embodiment of the compilation software format for the TDVision® decoding method ( 40 ).
  • FIG. 5 is a representation of one embodiment of the decoding compilation format of the hardware.
  • the combination of hardware and software algorithms makes possible the stereoscopic 3D-image information compression, which are received as two independent video signals but with the same time_code, corresponding to the left and right signals coming from a 3Dvision® camera, by sending two simultaneous programs with stereoscopic pair identifiers, thus promoting the coding-decoding process. Also, two interdependent video signals can be handled by obtaining their difference, which is stored as a “B” type frame with the image type identifier.
  • FIG. 1 represents the technology map to which the subject object of the present invention pertains. It shows a stereoscopic 3D-image coding and decoding system and corresponding method.
  • the images come from a stereoscopic camera ( 32 ), the information compiled in ( 31 ) and are displayed in any adequate system ( 30 ) or ( 33 ).
  • the information is coded in ( 34 ) and then it can be transmitted to a system having an adequate previous decoding stage such as ( 35 ), which may be a cable system ( 36 ), a satellite system ( 37 ), a high definition television system ( 38 ) or a stereoscopic vision system such as TDVision®'s 3DVisors® ( 39 ).
  • FIG. 2 shows a flowchart in which the steps of the process are outlined.
  • the objective is to obtain three-dimensional images from a digital video stream by making modifications to the current MPEG2 decoders, and changes to software ( 3 ) and hardware ( 4 ) in the decoding process ( 2 ): the decoder ( 1 ) should be compatible with MPEG2-4.
  • FIG. 3 outlines the structures that should be modified and the video_sequence of the data stream in order to identify the TDVision® technology image type at the bit level.
  • the coded data ( 10 ) are bytes with block information, macroblocks, fields, frames, and MPEG2 format video images.
  • Variable_length_decoding ( 11 ) (VLC, Variable-length Decoder) is a compression algorithm in which the most frequent patterns are replaced by shorter codes and those occurring less frequently are replaced by longer codes. The compressed version of this information occupies less space and can be transmitted faster by networks. However, it is not an easily editable format and requires decompression using a look-up table.
  • the blocks are 8 ⁇ 8 data matrixes, so it is necessary to convert the linear information in a square 8 ⁇ 8 matrix. This is made in a descending zigzag manner, top to bottom and left to right in both sequence types, depending on whether it is a progressive image or an interlaced image.
  • Inverse Quantization ( 13 ): It consists simply in multiplying each data value by a factor. When codified, most of the data in the blocks are quantized to remove information that the human eye is not able to perceive, the quantization allows to obtain a greater MPEG2 stream conversion, and it is also required to perform the inverse process (Inverse quantization) in the decoding process.
  • Inverse cosine transform ( 14 ) (IDCT, inverse_discrete_cosine_transform): The data handled within each block pertain to the frequency domain, this inverse cosine transform allows to return to the samples of the space domain. Once the data in the IDCT have been transformed, pixels, colors and color corrections can be obtained.
  • Motion compensation allows to correct some errors generated before the decoding stage of MPEG format, motion compensation takes as a reference a previous frame and calculates a motion vector relative to the pixels (it can calculate up to four vectors), and uses them to create a new image. This motion compensation is applied to the P and B type images, where the image position is located over a “t” time from the reference images. Additionally to the motion compensation, the error correction is also applied, as it is not enough to predict the position of a particular pixel, but a change in its color can also exist. Thus, the decoded image is obtained ( 16 ).
  • the previous process is outlined in such a way that the left or right signal is taken, both are stored in a temporary buffer, then the difference between the left and right signals is calculated, and then it is coded as a B type image stored in the video_sequence to be later decoded by differences from said image.
  • MPEG video sequence structure This is the maximum structure used in the MPEG2 format and has the following format:
  • Video sequence (Video_Sequence)
  • Sequence header (Sequence_Header)
  • Extension_and_User_Data ( 0 )
  • Image group header (Group_of_Picture_Header)
  • Extension_and_User_Data 2
  • Extension_and_User_Data 2
  • a video sequence is applied for MPEG format, in order to differentiate each version there should be a validation that immediately after the sequence header, the sequence extension is present; should the sequence extension not follow the header, then the stream is in MPEG1 format.
  • sequence_header and sequence_extension appear in the video_sequence.
  • the sequence_extension repetitions should be identical on the first try and the “s” repetitions of the sequence_header vary little compared to the first occurrence, only the portion defining the quantization matrixes should change. Having sequences repetition allows a random access to the video stream, i.e., if the decoder wants to start playing at the middle of the video stream this may be done, as it only needs to find the sequence_header and sequence_extension prior to that moment in order to decode the following images. This also happens for video streams that could not start from the beginning, such as a satellite decoder turned on after the transmission time.
  • the full video signal coding-decoding process is comprised of the following steps:
  • Digitizing the video signals which can be done in NTSC, PAL or SECAM format.
  • two channels should be initialized when calling the programming API of the DSP as, by example, the illustrative case of the Texas Instruments TMS320C62X DSP.
  • MPEG2VDEC_create (const IMPEG2VDEC_fxns*fxns, const MEPG2VDEC_Params*params).
  • MEPG2VDEC_Params are pointer structures defining the operation parameters for each video channel, e.g.:
  • 3DLhandle MPEG2VDEC_create (fxns3DLEFT,Params3DLEFT).
  • 3DRhandle MPEG2VDEC_create(fxns3DRIGHT,Params3DRIGH T.
  • a double display output buffer is needed and by means of software, it will be defined which of the two buffers should display the output by calling the AP function:
  • 3DLhandle is the pointer to the handle returned by the DSP's create function
  • the input1 parameter is the FUNC_DECODE_FRAME or FUNC_START_PARA address
  • input2 is the pointer to the external input buffer address
  • input3 is the size of the external input buffer size.
  • 3doutleft_pb is the address of the parameter buffer and 3doutleft_fb is the beginning of the output buffer where the decoded image will be stored.
  • the timecode and timestamp will be used for output to the final device in a sequential, synchronized manner.
  • DSP integrated circuits
  • These DSP are programmed by a C and Assembly language hybrid provided by the manufacturer.
  • Each DSP has its own API, consisting of a functions list or procedure calls located in the DSP and called by software.
  • sequence_header the sequence header
  • sequence extension the sequence extension
  • the repetitions of the sequence extension should be identical to the first.
  • sequence header repetitions vary a little as compared to the first occurrence, only the portion defining the quantization matrixes should change.
  • FIG. 4 shows the compilation software format for the TDVision® decoding method ( 40 ), where the video_sequence ( 41 ) of the digital stereoscopic image video stream is identified, which may be dependent or independent (parallel images), in the sequence_header ( 42 ). If the image is TDVision® then the double buffer is activated and the changes in the aspect_ratio_information are identified. The information corresponding to the image that can be found here is read in the user_data ( 43 ).
  • the sequence_scalable_extension ( 44 ) identifies the information contained in it and the base and enhancement layers, the video_sequence can be located here, defines the scalable_mode and the layer identifier.
  • extra_bit_picture ( 45 ) identifies the picture_estructure, picture_header and the picture_coding_extension ( 46 ) reads the “B” type images and if it is a TDVision® type image, then it decodes the second buffer.
  • picture_temporal_scalable_extension ( ) ( 47 ) in case of having temporal scalability, is used to decode B type images.
  • sequence_header provides a higher information level on the video stream, for clarity purposes the number of bits corresponding to each is also indicated, the most significative bits are located within the sequence extension (Sequence_Extension) structure, it is formed by the following structures: Sequense_Header Field bits Description Secuence_Header_Code 32 Sequence_Header Start 0x00001B3 Horizontal_Size_Value 12 less significative bits for width* Vertical Size Value 12 12 less significative bits for length Aspect Ratio Information 4 image aspect 0000 forbidden 0001 n/a TDVision ® 0010 4:3 TDVision ® 0011 16:9 TDVision ® 0100 2.21:1 TDVision ® 0111 will execute a logical “and” in order to obtain backward compatibility with 2D systems.
  • Vbv_buffer_size_value 10 The 10 less significative bits of vbv_buffer_size, which determines the size of the video buffering verifier (VBV), a structure used to ensure that a data stream can be used decoding a limited size buffer without exceeding or leaving too much free space in the buffer.
  • Constrained_parameters_flag 1 Always 0, not used in MPEG2.
  • Load_intra_quantizer_matrix 1 Indicates if an intra-coded quantization matrix is available.
  • Intra_quantizer_matrix(64) Intra_quantizer_matrix(64) 8x64 If a quantization matrix is indicated, then it should be specified here, it is a 8x64 matrix.
  • Load_non_intra_quantizer_matrix 1 If load_non_intra_quantizer_matrix If load_non_intra_quantizer_matrix Non_intra_quantizer_matrix (64) 8x64 If the previous flag is activated, the 8 ⁇ 64 data forming the quantized matrix are stored here. *The most significative bits are located within the sequence_extension structure.
  • Extension_start_code 32 Always 0x000001B5 Extension_start_code_identifier 4 Always 1000 F_code(0)(0) 4 Used to decode motion vectors; when it is a type I image, this data is filled with 1111.
  • F_code(0)(1) 4 F_code(1)(0) 4 Decoding information backwards in motion vectors (B), when it is a (P) type image it should be set to 1111, because there is no backward movement.
  • F_code(1)(1) 4 Decoding information backwards in motion vectors, when it is a P type image it should be set to 1111, because there is no backward movement.
  • Intra_dc_precision 2 precision used in the inverse quantizing of the coefficients of the DC discrete cosine transform.
  • Picture_temporal_scalable_extension( ) Field bits # Definition Extension_start_code_identifier 4 Always 1010 Reference_select_code 2 It is used to indicate that the reference image will be used to decode intra_coded images FOR O TYPE IMAGES 00 enhances the most recent images 01 the lower and most recent frame layer in display order 10 the next lower frame layer in order of forbidden display.
  • the enhancement layer contains data, which allow a better resolution of the base layer so it can be reconstructed.
  • the bottom layer should be escalated and offset in order to obtain greater resolution of the enhancement layer.
  • Copyright_extension( ) Extension_start_code_identifier 4 Always 010 Copyright_flag 1 if it is equal to 1 then it uses copyright If it is zero (0), no additional copyright information is needed
  • the image can be displayed in:
  • HDTV High Definition Television
  • SATELLITE DSS Digital Satellite Systems
  • the decoding compilation format in the hardware ( 50 ) section of FIG. 5 is duplicated in the DSP input memory, at the same time, the simultaneous input of two independent or dependent video signals is allowed, corresponding to the left-right stereoscopic existing signal taken by the stereoscopic TDVision® camera.
  • the video_sequence ( 51 ) is detected to alternate the left and right frames or sending them in parallel, sequence_header ( 52 ) identification, the image type ( 53 ) is identified, it passes to the normal video stream ( 54 ), then it is submitted to an error correction process ( 55 ), the video image information is sent to the output buffer ( 56 ) which in turn shares and distributes the information to the left channel ( 57 ) and the right channel ( 58 ) in said channels the video stream information is displayed in 3 D or 2 D.
  • DSP Digital Signal Processors
  • TMS320C62X Texas Instruments
  • Each DSP is programmed by a hybrid language from C and Assembly languages, provided by the manufacturer in question.
  • Each DSP has its own API, consisting of a functions list or procedure calls located in the DSP to be called by software. From this reference information, the 3D-images are coded, which are compatible with the MPEG2 format and with their own coding algorithm. When the information is coded, the DSP is in charge of running the prediction, comparison, quantization, and DCT function application processes in order to form the MPEG2 compressed video stream.
  • the difference decoding selector is activated.
  • the parallel decoding selector is activated.
  • the decompression process is executed.
  • the image is displayed in its corresponding output buffer.
  • a logical “and” will be executed with 0111 to obtain the backward compatibility with 2D systems, when this occurs, the instruction is sent to the DSP that the buffer of the stereoscopic pair (left or right) should be equal to the source, so all the images decoded will be sent to both output buffers to allow the image display in any device.
  • a logical “and” with 0111 will be executed in order to obtain backward compatibility with 2D systems.
  • a DSP which is in charge of executing the prediction, comparison, and quantization processes, applies the DCT to form the MPEG2 compressed video stream, and discriminates between 2D or 3D-images.
  • Two video signals are coded in an independent form but with the same time_code, signals corresponding to the left signal and the right signal coming from a 3DVision® camera, sending both programs simultaneously with TDVision® stereoscopic pair identifiers.
  • This type of decoding is known as “by parallel images”, consisting in storing both left and right (L and R) video streams simultaneously as two independent video streams, but time_code-synchronized. Later, they will be decoded and played back in parallel. Only the decoding software should be decoded, the coding and the compression algorithm of the transport stream will be identical to the current one.
  • two program streams should be programmed simultaneously, or two interdependent video signals, i.e., constructed from the difference between both stored as a B type frame with an identifier, following the programming API as in the example case, in the use of the TMS320C62X family Texas Instruments DSP.
  • the image is decoded in real-time
  • the results are stored in the secondary buffer.
  • a call to the special decoding function will be made which is then compared to the output buffer and applied from the current read offset of the video_sequence, the n bytes as a typical correction for B type frames. The output of this correction is sent to other output address, which is directly associated to a video output additional to that existing in the electronic display device.
  • the PICTURE_DATA3D( ) structure If the PICTURE_DATA3D( ) structure is recognized, then it proceeds to read the information directly by the decoder; but it writes the information in a second output buffer, which is also connected to a video output additional to that existing in the electronic display device.
  • a video containing a single video sequence is also implemented; but alternating the left and right frames at 60 frames per second (30 frames each) and when decoded place the video buffer image in the corresponding left or right channel.
  • the signal will also have the capacity of detecting via hardware if the signal is of TDVision® type, if this is the case, it will be identified if it is a transport stream, program stream or left-right multiplexion at 60 frames per second.
  • the backward compatibility system is available in the current decoders, having the ability to display the same video without 3d characteristics but only in 2D, in which case the DSP is disabled to display the image in any TDVision® or previous technique device.
  • the MPEG decoder with two video buffers (left-right) is enabled, identifying the adequate frame and separating each signal at 30 frames per second, thus providing a flickerless image, as the video stream is constant and due to the characteristic retention wave of the human eye the multiplexion effect is not appreciated.

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  • Engineering & Computer Science (AREA)
  • Multimedia (AREA)
  • Signal Processing (AREA)
  • Compression Or Coding Systems Of Tv Signals (AREA)
  • Testing, Inspecting, Measuring Of Stereoscopic Televisions And Televisions (AREA)
US11/510,262 2004-02-27 2006-08-25 Stereoscopic 3D-video image digital decoding system and method Abandoned US20070041444A1 (en)

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US15/094,808 US20170070742A1 (en) 2004-02-27 2016-04-08 System and method for decoding 3d stereoscopic digital video
US15/644,307 US20190058894A1 (en) 2004-02-27 2017-07-07 System and method for decoding 3d stereoscopic digital video

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US20190058894A1 (en) 2019-02-21
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EP1727090A1 (en) 2006-11-29
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