Stereo DVB-H Broadcasting System with Error Resilient Tools

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1 Stereo DVB-H Broadcasting System with Error Resilient Tools Done Bugdayci M. Oguz Bici Anil Aksay Murat Demirtas Gozde B Akar Antti Tikanmaki Atanas Gotchev

2 Project No Stereo DVB-H Broadcasting System with Error Resilient Tools Done Bugdayci, M. Oguz Bici, Anil Aksay, Murat Demirtas, Gozde B Akar, Antti Tikanmaki, Atanas Gotchev Abstract: In this report, we present a complete framework of an end-to-end transport of 3D video over DVB-H. The framework includes both Video + Depth and Stereo representations of 3D Video and corresponding coding methods (either multi-view or simulcast video coding), with or without slice; different error control schemes such as Unequal Error Protection (UEP) where the channel coding ratio among the streams is determined according to the priority level of the streams and Equal Error Protection (EEP), error concealment schemes such as slice and frame concealment. Extensive summations have been performed to find an effective compromise between compression efficiency/mpe-fec code rates and robustness with respect to typical channel conditions. Keywords: Error characteristics, stereo, error resilience, MFER, DVB-H system, UEP, EEP, Simulcast, MVC, Video-plus-Depth

3 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Executive Summary In this report, we present a complete framework of an end-to-end transport of 3D video over DVB- H. The framework includes different coding, error control and error corrections schemes. We have concentrated on three coding approaches, namely: Simulcast, MVC and Video + Depth. For all of these three coding methods, there are also encoding options that affect both compression efficiency and error resilience. We have focused on the effect of one of the most important error resilience tools of the encoder, namely the slice mode. To study its influence, we have implemented slice interleaving for error resilience and integrated it to the JMVC reference software version To study the effect of UEP/EEP on these videos, equal channel resources are provided for different test cases in order to make fair comparison. This is achieved by assigning the same "burst duration" value for the total of two channels each coding method has, so that the characteristics of each coding methods determines the protection advantage/disadvantage of it over the others. During the handling of distorted video, an appropriate error concealment tool is employed. Extensive simulations have been performed to find an effective compromise between compression efficiency/mpe-fec code rates and robustness with respect to typical channel conditions. Page 2 of 214

4 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Executive Summary Introduction End-to-End 3D Video Transmission System with Embedded Error-Resilient Tools Encoder Slice Interleaving Streamer Encapsulator Decapsulator Concealer Frame Copy Concealment Slice Copy Concealment Assembler Decoder Experimental Results Experimental Setup Encoder QP-Set Parameter Selection Encapsulator Parameters Selection Analysis of Coding and Transmission Parameters Metrics Used for Transmission Loss Analysis Coding Method Comparisons Slice Mode Comparisons Protection Method Comparisons Overall Comparisons Optimization of Coding & FEC Error Parameters for DVB-H Encoding FEC Protection Simulations Conclusions References Page 3 of 214

5 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Abbreviations BD DVB-H EEP FEC FLR FMO GOP MB MFER MPE MPE FEC MPEG MTU MVC NAL PID PPS QP RSDT RTP SEI SNR SPS TS TS PLR UDP UEP VCL Burst Duration Digital Video Broadcasting for Handheld Devices Equal Error Protection Forward Error Correction Frame Loss Rate Flexible Macroblock Ordering Group of Pictures Macroblock MPE-FEC Frame Error Ratio Multi Protocol Encapsulation Multi Protocol Encapsulation - Forward Error Correction Moving Picture Experts Group Maximum Transmission Unit Multi-View Coding Network Abstraction Unit Packet IDentifier Picture Parameter Set Quantization Parameter Reed-Solomon Data Table Real Time Transport Protocol Supplemental Enhancement Information Signal to Noise Ratio Sequence Parameter Set Transport Stream User Datagram Protocol Unequal Error Protection Video Coding Layer Page 4 of 214

6 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools 1 Introduction In previous reports, we have studied the effect of several error protection methods over the quality of the delivered stereo video for several DVB-H typical channel conditions. Experimental results showed that, although using equal MPE-FEC rates for both services (EEP) provides mostly the required data robustness, under certain thresholds of the channel SNR corresponding to very erroneous conditions, it may fail and this problem can be overcome by using unequal error protection (UEP) for that high error cases. Other than the channel conditions, the success of EEP and UEP also depends on the content of the video and how it is coded. 3D video compression for DVB-H essentially aims to reduce the amount of information transmitted over the wireless channel, without any significant loss in the visual quality. However, in case of bad channel conditions, distortions appear over the video sequences, since certain parts of the signal information cannot be recovered on the receiver side. The amount of information and the effect of losses differ for different coding schemes. In this work, having 3D content present in stereo format, we have concentrated on 3 coding approaches, namely: Simulcast: The two views referred as Left and Right Views are compressed individually using the state-of-the-art video compression standard H.264/MPEG-4 AVC. MVC: Left and Right views are compressed jointly by exploiting the inter-view dependencies using Multi-view Video Coding (MVC) Extension of H.264. Video + Depth: Depth information is estimated from the Left and Right Views and then both the left view and depth data are compressed individually using again standard H.264/AVC. Note that this method requires the rendering of the right view at the receiver after decoding, which introduces some extra processing at the receiver side. For all of the methods above, there are also encoding options that affect both compression efficiency and error resilience. We have focused on the effect of one of the most important error resilience tools of the encoder, namely the slice mode. We experimented on different video sequences coded by these 3 coding methods, both for the slice mode and conventional mode. To study the effect of UEP/EEP on these videos, equal channel resources are provided for different test cases in order to make fair comparison. This is achieved by assigning the same "burst duration" value for the total of two channels each coding method has, so that the characteristics of each coding methods determines the protection advantage/disadvantage of it over the others. Channel conditions are simulated by adding additive white Gaussian noise (AWGN) with varying SNR values to the Typical Urban 6 Taps Mobile Channel model which provides a wide range of MFER values. For handling distorted videos, an appropriate error concealment tool is employed. The effect of content, coding method, bit-rate, channel condition, slice size and protection rate on the objective quality is demonstrated by extensive simulations. This report is organized as follows: Section 2 explains in detail the end-to-end 3D DVB-H system with embedded error-resilient tools. Section 3 gives the experimental results with suggestions on proper coding/protection/transmission scenarios. Finally, Section 4 gives the conclusion and future work. Page 5 of 214

7 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools 2 End-to-End 3D Video Transmission System with Embedded Error-Resilient Tools The building blocks of the overall system are given in Figure 2-1. The transmission side consists of three main blocks, namely the encoder, streamer and encapsulator. Major tasks of these blocks are compression, transport control and error control coding respectively. Then, the system has an offline block to model the real physical transmission at the channel. The rest is the receiver side blocks which are the transport stream decapsulator, the frame loss concealer, stream assembler and finally the decoder. For proper display of 3D video one would also need a multi-view video player and a 3D dedicated display. 3D video to be transmitted first enters the encoder. Each stream is encoded separately for Simulcast and Video + Depth, and in case of MVC encoding of right view uses the left view. Encoding method to be used is determined according to the input format (stereo video or video + depth). In either case, the encoder output consists of two separate bit streams compressed and packed appropriately for transmission. The encoder output is called Network Abstraction Layer (NAL) units (NALU). NALUs are fed to the stereo video streamer. The streamer is basically responsible from the control of the transport. It encapsulates the NAL units into Real Time Transport Protocol (RTP), User Datagram Protocol (UDP) and finally Internet Protocol (IP) datagram and feed them to the encapsulator. RTP/UDP/IP packetization also allows the broadcasting of multiple contents from several resources each being a separate program. This is needed since the encapsulator multiplexes the distinct IP streams grabbed from the network into a single TS stream to be broadcasted. Encapsulator, which is the third major block on the transmitter side of the system, firstly creates MPE sections and optional additional MPE-FEC section for forward error correction (MPE-FEC). The link layer output, MPEG-2 Transport Stream (TS) packets, are passed to the simulated physical layer where the error traces are generated by a software, DVB-H simulator, for different conditions. This software simulator consists of 3 main parts: The first part simulates the transmitter side hardware operations. The second part is exploited for properly modeling of the RF signal transmission environment (reflection, multi-path, shadowing, fading effects etc), and finally, the last part is used in order to simulate the receiver side operations. At the transmitter side, the link layer output is taken as the input to the simulator and the bitstream is processed (interleaving, errorcontrol coding, modulation etc.) according to the blocks of the DVB-T physical layer [7]. Channel simulator models the behavior of the physical transmission by degrading the final bitstream provided by the first part of the simulator, according to the channel models such as Rayleigh or Rician Fading. Finally, the DVB-H receiver side processes the bitstream (operations such as error correction and synchronization are accomplished there) and provides the final output to link layer of the receiver. In our system, we use the TS packet error model, which is concerned whether these DVB-H receiver side s TS packet outputs are exactly the same with the input of the simulator or not. By this way, error mapping is done between the link layers of transmitter and receiver sides meaning that the simulator provides an abstraction level by providing the error pattern which consists of information regarding the successful delivery of TS packets. Page 6 of 214

8 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools The receiver side of the end-to-end system starts with the decapsulator block. This block is the major receiver block where the transition from received bitstream to compressed stream is realized. The unpacking of TS streams, construction of MPE FEC frame table from sections, erasure decoding and possible recovery of lost data take place in this block. After these, the section payloads (IP datagram) are unpacked to output the NALUs. The next block in the receiver side is the frame loss concealer which handles the lost NALUs during transmission. Once the error concealment is done, left and right streams are assembled by the assembler unit since JMVC software decoder takes the multi view coded streams in assembled format. Decoder is the last building block of the end-to-end transmission system. Input Sequence Channel Simulator Error Traces Encoder NALUs RTP/UDP/IP IP stream Encapsulator TS Stream Error Mapping Lossy TS Stream Decoder NALUs Assembler NALUs Frame Loss Concelaer NALUs Decapsulator Loss Statistics Output Sequence Figure 2-1 Block Diagram of the End-to-End Stereo Video over DVB-H Transmission Simulation System Following subsections provide more detailed explanation of each block in Figure 2-1 particularly emphasizing the novelties added for effective error resilience. 2.1 Encoder Our system supports 2 different representations of 3D video to be given as input: - Stereo Video: Two raw sequences contain the two views of the same scene captured live by multiple cameras with different angles or computer-animated. - Video + Depth: Two raw sequences, one containing the captured scene (or the computer-generated animation) and another containing the estimated depth information of this view. Since the depth data is that it is composed of smoothly varying luminance component it results in lower bit-rate when compared to the left view. Page 7 of 214

9 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools The encoding method to be used is chosen according to the format of the input streams. Each coding method is based on H.264/AVC Video Coding Standard; having some additional features. We have built our encoder based on the JMVC Reference Software version 5..5 which is the Multi-View Extension H.264/AVC developed by Joint Video Team (JVT) formed between VCEG and ISO/IEC MPEG [1]. We have added additional features to this software in order to add error resilience. The encoding methods used with different representation of 3D video can be summarized as follows: Simulcast Coding 1 : This method is used with stereo video consisting of two views captured with proper angles. The two views referred as Left and Right views are compressed individually using the state-of-the-art monoscopic video compression standard H.264/AVC. The naming does not come from the coding method used, but from the transmission point. It is the short usage of simultaneous broadcast", and refers to programs or events broadcast across more than one service on the same medium, at the same time. Therefore, this method basically encodes the video streams separately as they are two different programs, and transmits them simultaneously over the same channel at different frequencies. The conventional user can only tune into one of these programs. Multi-View Coding 2 : This method is also used with stereo video as in simulcast. However, this time right view is encoded by exploiting the inter-view dependency using multi-view video coding (MVC) extension of H.264/AVC. Note that, the MVC extension is backwardcompatible meaning that the only mono-capable receivers will still be able to decode and watch left view, which is nothing but a 2D conventional video, and simply discard the other view, since left view is encoded independent of the right view. Video + Depth Coding 3 : This method is used with the other representation of 3D video as the name suggests. Depth information may be either provided (either generated synthetically or measured) or estimated from the Left and Right Views of a stereo video. Both the left view and depth data are compressed individually using again standard H.264/AVC. Note that, in case of usage with a multi-view display, this method requires the rendering of the right view at the receiver after decoding, which introduces some extra processing at the receiver side. As stated above Video + Depth and Simulcast coding methods do not utilize inter-view dependencies. In JMVC 5..5, the base layer is coded as H.264/AVC. Therefore the base layer codec of the encoder is used for, (a) Simulcast Coding; (b) Video + Depth Coding There are a number of different prediction structures for Multi-View coding each having different inter-view reference models [1]. For backward compatibility, we chose a prediction structure 1 Referred also as Simulcast or Sim in the following context 2 Referred as MVC 3 Note that this naming is both used as an encoding method and a 3D video representation scheme Page 8 of 214

10 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools where left view is encoded independent of right view. Figure 2-2 exhibits the inter-view and interframe reference model, which is simplified IPP, used in our system. IPP prediction structure is a relatively simpler prediction structure comparing with the others, it reduces the decoding complexity but the compression efficiency also decreases. In our simulations we used different combinations of QPs for left and right views. However, this is not supported in the reference software. Due to this we modified the reference software such that different QP s can be used while encoding the different views. This required one more parameter to be passed to the encoder, so that the encoder can use different QPs. During the selection of encoding parameters, we have encoded many of the combinations in order to find the best PSNR performance at a chosen bit-rate. The inter dependency between left and right views allows combinations with different QP s to result in less distortion than the other combinations with equal bit-rate. More detailed information can be found in the experimental results section. S I P P P P P P P I S 1 P P P P P P P P P Figure 2-2 IPP.. Prediction Structure of the MVC codec with inter-view references in the anchor frames The error resilient tools embedded in standard H.264/AVC are the data partitioning, slice interleaving, flexible macro block (MB) ordering (FMO), SP/SI frames, reference frame selection, intra block refreshing and redundant slices [3]. SP/SI frames and reference frame selection requires feedback from the decoder. Data partitioning, slice interleaving, FMO, intra block refreshing and redundant slices are the candidates to be used in MVC. However, none of these tools are implemented in JMVC Reference Software for MVC extension of H.264/AVC. In this project, we have implemented the slice interleaving for error resilience and integrated it to JMVC By this way, it is possible to code each different representation with/without slices Slice Interleaving H.264/AVC bit stream is composed of network abstraction layer (NAL) units. In each NAL unit, there is a video coding layer (VCL) block. VCL can be a small packet with information about the bitstream like sequence parameter set (SPS); picture parameter set (PPS) or supplemental enhancement information (SEI). SPS and PPS are required packets whereas SEI can be skipped. Other VCL packets are the coded video streams. Each packet is a slice containing an integer number of macroblock. It can contain all macroblocks of a frame or it can contain a single macroblock. Slices are independently decodable if previous frames are available. This is achieved by using the location information in the slice header and by allowing spatial dependency only inside the slice. For compression efficiency, using a single slice per frame is better in order to avoid header overhead. If NAL unit size is bigger than Maximum Transmission Unit (MTU) of the corresponding transport medium, it will be fragmented into smaller packets. In lossy environments, some of these smaller Page 9 of 214

11 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools packets can be lost, and this will cause the system to lose the entire frame, since parts of a NALU cannot be decoded by the decoder. However, by encoding a frame into several slices so that each slice size is smaller than MTU, each packet arrived at the decoder can be decoded correctly. We have implemented slice encoding and decoding into JMVC 5..5 by modifying the encoder, decoder and bit assembler. In the current version, encoder generates several numbers of slices for a frame according to the input slice size parameter. 2.2 Streamer Once the encoder runs the signal processing algorithms for compression in Video Coding Layer (VCL), the resultant data is encapsulated by the Network Abstraction Layer (NAL) for efficient delivery over packetized networks. Hence the output of the encoder is the NALU bit stream which inputs to the streamer. The streamer is basically responsible from the control of the transport. It encapsulates the NAL units into Real Time Transport Protocol (RTP), User Datagram Protocol (UDP) and finally Internet Protocol (IP) datagram and feed them to the encapsulator. Real-time Transport Protocol (RTP) is a well defined and standardized packet format for delivering audio and video over the Internet. RTP is designed for end-to-end, real-time, transfer of multimedia data. This protocol mainly deals with compensation and detection of out of sequence arrival in data that are common during transmissions on an IP network. RTP is used with an associated profile and payload format [4]. RTP payload format allows packetization of one or more NALUs as the RTP payload. Aggregation of NALUs with identical NALU-time (e.g. slices of a frame) is supported with Single Time Aggregation Packet (STAPs) and aggregation of different NALUs having not necessarily the same NALU-time is possible by means of Multi-Time Aggregation Packets. Depending on the transmission network characteristics; NALUs having sizes larger than MTU of the network are fragmented by RTP in order to avoid OSI level 3 network fragmentation. Fragmentation is only allowed for single NAL units (not with the aggregated packets.) 2.3 Encapsulator Up to now, all of the building blocks of our system were using protocols defined regardless of the physical transmission medium intended to be used. Encapsulator block is the part where the DVB- H specific packetization and error coding take place. For the implementation, as the encapsulator software, we have modified the open source software FATCAPS in order to transmit two services simultaneously by multiplexing and to employ our error resilience schemes for robust transmission [5][6]. MPE encapsulator takes the IP streams brought from various networks in order to put them into the transmission format of DVB-T physical layer so that they can be broadcast over the air. Firstly the MPE Frame table is constructed by filling the table with IP datagram bytes column-wise. The standard defines the table size; i.e. the number of rows that are allowed (256,512,768,124) and the number of columns. An RS code of (191,64) is defined limiting the number of RS columns to 64 letting a moderately strong code ratio ¾. The RS codeword are calculated row-wise, which Page 1 of 214

12 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools provides the interleaving of the data to some extent. In case the application data do not fill all 191 columns, zero padding is utilized. Padding columns are not transmitted but the numbers of columns that are padded are indicated so that the MPE-Frame can be constructed correctly at the receiver side. This results in stronger code rates when the application data is smaller if the number of RS columns are kept constant; however instead of having stronger code rate, the transmitter can also choose to apply puncturing of the RS columns (simply do not send some of the RS columns to weaken the code), reducing the transmission bit-rate while having the same FEC ratio. After the construction of the MPE-FEC Frame table, each IP packet is encapsulated into an MPE section as the payload column-wise. MPE sections, beside the payload data as the IP datagram, include also a header and a 32-bit cyclic redundancy check (CRC) for the verification of payload integrity. Encapsulation of more than one IP datagram into a single section is not allowed. RS data is not sent together with the application data, they are encapsulated into MPE-FEC sections having a similar format with the MPE sections. End of Application Data Table is signaled in the header of the last MPE section so an FEC unaware user or a receiver who receives all the MPE sections correctly do not wait for MPE-FEC sections. MPE section sizes vary according to the variation of IP packet sizes; however MPE-FEC sections are of constant size each containing one RS column which is equal to the number of rows used. Last step of the encapsulator is to construct the TS stream using the MPE and MPE-FEC sections. The multiplexing of the programs are handled in the encapsulator also. The amount of data to be trasmitted in each of the time slice, the period of the bursts and other implementation details are determined according to the specifications of the input video stream such as the bitrate, fps. Encapsulator output in real transmission is fed to the modulator to broadcast the data. In our simulation system as explained before this part is handled with the introduction of the error pattern generated using a channel simulator with appropriate channel models and physical layer blocks. 2.4 Decapsulator Decapsulator is the unit where the received stream is processed for error detection and possibly correction. After the error detection and correction at the physical layer, Transport Error Indicator (TEI) bit in the header of the TS packet is set to 1 by the demodulator if it cannot correct the errors. TS packets are unpacked into MPE and MPE-FEC sections; the MPE frame is filled by the sections according to section erasure method, i.e. contents of the error-free MPE and MPE-FEC sections take their unique places in the MPE-FEC frame table and rest of the frame entries are marked as erasures. RS decoding is done according to the number of entries marked as correct in the MPE-Frame. Since each codeword is calculated row-wise, number of correctly received bytes in a row is checked for error correction. 2.5 Concealer The next block in the receiver side is the frame loss concealer which handles the lost NALUs during transmission. Error concealment is not a normative part of H.264/AVC. Two methods for intra and inter error concealment is added into H.264/AVC reference software as informative methods. Intra error concealment uses spatial interpolation using weighted averaging of neighbouring pixels. Inter error concealment uses MV prediction using neighbouring MVs and zero Page 11 of 214

13 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools MV with a boundary matching algorithm. More information on H.264/AVC error concealment can be found in [3]. However, these concealment strategies are not included in the MVC software. In order to achieve error concealment, we have modified the JMVC 5..5 software to use basic frame/slice copy concealment in case of losses Frame Copy Concealment In order to implement frame copy concealment, we use a module (bitstream corrector) before decoding. Bitstream corrector inserts skip frames into the bitstream for the frames lost. Frame losses can be detected by checking the POC numbers of slices. If all slices of a frame are lost, this module inserts skip frame. Skip frame is a small byte stream consisting of all MBs coded by skip mode. By inserting skip frame decoder is enforced to use frame copy concealment method Slice Copy Concealment In case of slice losses, slice copy is done in the decoder. Every time a frame is initiated in the decoder, a value for each MB is initialized as NOT_DECODED. For every MB decoded, this flag is changed to DECODED. When the picture is finalized (when a new slice with a different POC number is about to be decoded), all MBs with NOT_DECODED flag is concealed as if they are encoded as skip MBs. This will enable slice copy concealment. In Hierarchical B-picture coding, the encoding/decoding order of the frames are not same as the display order (i.e. POC number are not consecutive). However using skip MBs or skip frames allow decoder to conceal current frame by using the frame that is first in the prediction buffer of the current frame. The first frame in the prediction buffer is the frame that is closest to the current frame in the encoding order. 2.6 Assembler This is simply the assembling of left and right streams before the decoder and it is necessary since JMVC software decoder takes the multi view coded streams in assembled format. The decoder uses the inter-view prediction references between the two streams so the assembling is done such that the frames of each stream are put in order containing one from left and one from right view streams. Since the assembling tool that comes with the JMVC reference software carries out the assembling according to frame numbers, it fails when there is a frame loss in any of the streams. Due to this, the assembler is rewritten to work with a stream with missing frames by inserting substitute NALUs into the stream for the lost frames. 2.7 Decoder Decoder is the last building block of the end-to-end transmission system. We ve integrated the JMVC 5..5 decoder to the system shown in Figure 2-1. The decoder is modified to support slice mode. Reference software decoder also does not support error handling. In order to handle frame losses, the error concealer described in Section 2.5 is used. For frames consisting of more than one slice, when some of the slices of a frame are lost, slice copy concealment is used. Note that this kind of loss is different than full frame losses, so the frame copy concealer is not utilized here. Page 12 of 214

14 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Slice copy concealment which is described in detail in Section 2.5.2, is implemented in the decoder for the slice mode. 3 Experimental Results We have performed different sets of both compression and transmission tests in order to find an effective compromise between compression efficiency and robustness with respect to typical channel conditions. This section is mainly focused on the simulations and experiments covering both the implementation details and numerical results. The following two subsections together with the present consist of detailed information about the test conditions, parameters and methods. Finally the subsequent sections provide the extensive results together with a comparative analysis and a discussion. 3.1 Experimental Setup Experimental setup consists of various blocks whose functionalities are explained in Section 2. Here in this part, we give the details of the procedures for each block and define the parameters that are significant for the tests. The major aim of the tests is to analyze the transmission of 3D video compressed and broadcasted to mobile targets. Therefore, there are various aspects of the processes that should be analyzed for different transmission tests. Mainly, in this report our aim is to evaluate the performance of error resilient methodologies and tools for the system shown in Figure 2-1. Error resilience is implemented in our system as the slice mode of the encoder and forward error correction existing in the link-layer of DVB-H. Using this tool we have come up with a variety of protection schemes to analyze the effect of content, coding and error correction coding using the results of numerous transmission tests. The parameters which determine the number of transmission tests are given in Table 3-1. First item, contents, is varied to see its effect on the performance of error resilience tools (methods) for the various transmission cases. 4 different contents are used for the experiments [11]. Contents are chosen such that a group of most commonly used contents (each having different characteristics) can be covered. Table 3-2 provides a brief description of contents in terms of motion and complexity together with their resolution and display frequency. Page 13 of 214

15 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Contents 4x Heidelberg Alleys, Knights Quest, RollerBlade, RhineValleyMoving Coding Methods 5x Simulcast, MVC, MVC2, VD,VD2 Slice Modes 5x OFF, ON (Fixed Slice Sizes of 13, 1, 75, 5 Bytes ) Protection Structures 5x EEP, UEP (4 different cases) Video Bitrate Ranges 2x 3 Kbps, 6 Kbps Channel SNR Range 5x db Number of Experiments 1x 1 different error pattern for each transmission Table 3-1 Parameters of the Tests Second item in the transmission tests parameter table is the coding methods. We ve discussed three major methods above and provided some transmission tests results about these methods in our previous works. These three coding methods, namely, Simulcast, MVC and Video + Depth are used here. While comparing the performance of different codecs under lossy channels, one has to assign equal resources to each stream at the physical layer. We know that MVC achieves better compression for a chosen PSNR when compared to Simulcast. Then this means that MVC requires lower bandwidth than Simulcast. However, the question of what should be done with the remaining bit-budget does not have a straightforward answer. The available bandwidth can be used to protect the data or the video quality can be increased. Therefore given a fixed transmission bandwidth for all methods, having Simulcast encoded bitstream at the desired bitrates, there may be a wide range of corresponding MVC bitstream to compare with it since constraint is on the total TS bitrates but not individually on the video bitrates or allowed protection bits. In this study we ve decided to test (compare) two extreme cases one of them being the equal quality and other being the equal bitrates cases. Here in our transmissions MVC corresponds to equal bitrates case and MVC2 corresponds to equal quality case. A similar argument is also valid for Video + Depth; so the VD is the equal bitrates case and VD2 is the equal quality case. But here note that VD2 was not found for all of the contents and testing cases due to the irregular evaluation of PSNR values for Video + Depth. More information about the selection of these bitstream will be provided in the following sections. Content Characteristics Width Height Fps HeidelbergAlleys Low Motion, High Detail KnightsQuest Computer Generated, RhineValleyMoving High Camera and Object Motion, Low Detail RollerBlade High Object Motion Table 3-2 Spatial and temporal characteristics of the contents Third item in Table 3-1 is the slice modes. This parameter is varied in order to see effect of slice size on the performance of DVB-H transmission. It is chosen to analyze the performance of the error resilience tool that we have introduced in our system. Fourth parameter of the transmission tests is the protection structures. This item represents the MPE-FEC rate of left and right views. Equal Error Protection (EEP) method assigns equal FEC rates to left and right views. Other four cases are all called Unequal Error Protection (UEP) methods and they are based on the unbalanced distribution of protection bits among left and right Page 14 of 214

16 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools views. Also the UEP methods are not defined independently; they are defined as the transfer of x % of the protection bits existing for right/depth view protected with EEP FEC rate to the left view. Accordingly the various UEP cases correspond to various x values. Fifth parameter is the two total video bitrates of 2 views (left and right or left and depth) used in the experiments. Next parameter on Table 3-1 is the channel SNR values. The channel model to be used in the experiments is chosen according to DVB-H Guidelines [6]. The physical layer transmission parameters are chosen as typical values which are provided in Table 3-3. Using these parameters we are able to generate error patterns for specific SNR values. The SNR values are chosen also according to the DVB-H Guideline [6]. Modulation 16 QAM Convolutional Code Rate 2/3 Guard Interval 1/4 Channel Bandwidth 8 MHz Channel Model TU6 Carrier Frequency 666 MHz Doppler Shift 24 Hz Table 3-3 Physical Layer Transmission Parameters Chosen physical layer transmission parameters results in a channel capacity of bit/s. In order to carry out lossy transmission simulations, we used the mobile channel (COST27 Channel Model Typical Urban 6 taps) with 38,9 km/h receiver velocity relative to source (which corresponds to a maximum Doppler frequency = 24 Hz ) as the simulated channel model [7]. In the mobile channel model TU6, the channel characterized by an SNR value may show a highly time varying behaviour. This can be observed from Error! Reference source not found. where he histogram of TS packet loss rates encountered during 1 experiments is presented. It is observed that, a channel characterized by an especially low SNR value may encounter many different TS loss rates. Therefore, we try to evaluate the transmission schemes in a more accurate way rather than averaging the resultant PSNR values obtained from the all simulations for an SNR value. Finally the last parameter on the transmission tests parameters table (Table 3-1) is the number of experiments to carry out. Each experiment is carried out with a different error pattern from the main error pattern of corresponding channel SNR. Encoded and transmitted video quality is evaluated using PSNR metric. N1 1N2 1 1 MSE I( i, j) K( i, j) NN 1 2 i j 2 Page 15 of 214

17 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools PSNR log MSE lr, lr, 1 PSNR j log1 MSEl MSEr Where N1 and N2 are the frame sizes, I (.,.) and K(.,.) shows the original and distorted frames. PSNR values are in db scale and calculated for left and right views separately during the simulations. Joint PSNRs, PSNR j, are calculated using the average of the two MSEs. In case of Video + Depth sequences, since even for the lossless case there is an existing distortion (for PSNR metric) due to imperfections during depth estimation and rendering, original right view is not taken as the reference sequence. Instead the distortion of the Video + Depth transmissions are given as the PSNR of the received left sequence using original left view as reference; and the PSNR of the right sequence rendered from the received left and depth views using the right view rendered from original left and original depth. 3.2 Encoder QP-Set Parameter Selection Encoder parameter that affects the video quality and output bitrate is the quantization parameter. Once the quantization parameter is selected, there is not much left for a given content to improve the video quality while keeping the bitrate constant. However in case of multi view coding, since the encoding of one view depends on the other one, the selection of quantization parameters among various combinations for each view may have an improving effect on the resultant joint PSNR. One of the reasons of this is due to the prediction structure used in MVC. Multi-view coding method which we have explained previously has a prediction structure such that the anchor frames in right view are predicted from the left view. Left view being coded with a moderate quantization parameter will cause the right view to have a moderate quality even a better quantization parameter is utilized for right view. After several experiments, it has been observed that several combinations of QP assignments for left and right views may result in very close bitrate values meaning that there are more than a single combination, all providing the desired bitrate range. This observation suggests that the optimum combination of QP assignments between left and right views should be selected by comparing the joint PSNR values. For this purpose we have encoded our contents with QP values changing over different ranges and obtained distortion vs. bitrate curves as seen in Figure Figure 3-4. Another problem with the selection of QP s is due to the asymmetric bitrate requirements of Video + Depth method. In this method, since the depth information is smooth, it requires much lower bandwidth than any of the other views, and it compresses much efficiently resulting in ratios of one to ten after compression. This characteristics let us favor the left view video that will be transmitted together with the depth data since the total bandwidth can be used by the two programs unequally by assigning appropriate burst durations to each. The optimal distribution among the left view and depth data is also obtained using the same method explained above; by comparing the distortion values of each combination for several bitrates. Page 16 of 214

18 PSNR (db) D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Coding Method View QP Range MVC Left Right Simulcast Left Right Video + Depth Left 1-34 Depth 6-34 Table 3-4 Quantization Parameter Ranges experimented for each Coding Method During our tests we have worked with two bitrates of each content: one low-bitrate around 3Kbps and one high-bitrate around 6 Kbps. After the desired bitrate is selected corresponding videos coded with Simulcast, MVC and VD are chosen by looking at the rate-distortion curves as in Figure Figure 3-4. After the first tour, MVC2 and VD2, whose description was given in the previous subsection, are selected according Simulcast coded videos joint PSNR as in Figure 3-1. The joint distortion values in terms of PSNR corresponding to several bitrate levels of the coding methods are provided in the following figures. Similar tests have been also conducted within WP2, however for the sake of completeness of this report and to see the effect of unequal QPs for two views in more detail we carried out these sets of experiments. RhineValleyMoving, ipp, slice75, target bitrate: 3 kbps VD 28, MVC 31, VD2 32, 32 MVC2 32, 33 Sim 33, Video Bit Rate (kbps) Figure 3-1 PSNR vs Bitrate with the chosen coding methods for RhineValley Slice75, 3 Kbps tests Page 17 of 214

19 PSNR (db) PSNR (db) D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools RhineValleyMoving, ipp, slice75, MVC, target bitrate: 3 kbps ,36 33,35 34,34 34,35 MVC2 32, 33 31,31 3,32,3 31,32 32,31 32,33 33,32 33,33 32,34 34,32 33,34 34,33 32,32 31,33,31 29,3 3,29 3,3 29,31 31,29 MVC 31, 33 3,31 31,3 29,29 28,3,28 28,29 29,28 27,29 28,28 29,27 27,28 28, Video Bit Rate (kbps) 26,28 27,27 Figure 3-2 Distorted PSNR vs Bitrate Curve for QP Selection of MVC Slice75 Mode RhineValleyMoving, ipp, slice75, Sim, target bitrate: 3 kbps ,28 27,29 29,27 28,29 29,28 29,29 28,3 3,28 29,3 3,29 3,3 29,31 31,29 3,31 31,3 Sim 33, 32 32,3 31,31 3,32 31,32 32,31 32,32 31,33 33,31 32,33 33,32 33,33 32,34 34,32 33,34 34,33 33,35 34,34 34,35 34, Video Bit Rate (kbps) 27,28 28,27 Figure 3-3 Distorted PSNR vs Bitrate Curve for QP Selection of Simulcast Slice75 Mode Page 18 of 214

20 PSNR (db) D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools RhineValleyMoving, ipp, slice75, VD, target bitrate: 3 kbps ,27 23,23 23,25 23,24 24,22,28 24,21 23,27 23,26 24,24 24,23 23,28 22,32 22,3 25,2 24,25 25,2225,21 22,29 24,27 24,26 25,23 22,33 22,31 25,25 23,32 23,3 24,28 25,24 23,29 23,33 23,31 22,34 26,19 25,27 25,26 26,2 25,28 24,32 24,3 24,29 26,2226,21 24,31 23,34 25,3 25,29 24,33 26,23 25,32 26,25 26,24 26,26 27,19 27,18 26,27 25,33 25,31 24,34 26,28 27,2227,21 27,2 VD 28, 32 26,32 26,3 26,29 27,24 25,34 27,23 27,25 28,17 27,27 26,33 26,31 27,26 28,19 28,18 27,28 27,3 26,34 28,2228,21 28,2 27,32 27,2928,24 28,23 28,27 27,33 27,31 28,26 28,25 28,28 27,34 29,19 29,18 29,17 28,32 28,31 28,3 28,29 29,2229,21 29,2 28,3329,25 29,24 29,23 29,27 28,34 29,26 29,28 3,18 3,17 3,16 29,32 29,31 29,3 3,19 29,33 29,29 3,223,21 3,2 3,23 29,34 3,25 3,24 3,28 3,27 3,26 31,18 31,17 31,16 3,33 3,32 3,31 3,3 31,19 VD2 32, 323,29 31,2231,21 31,2 3,34 31,25 31,24 31,23 31,28 31,27 31,26 31,33 31,32 31,31 31,3 31,29 32,16 32,15 31,34 32,21 32,2 32,19 32,18 32,24 32,2332,22 32,27 32,26 32,25 32,3 32,28 32,33 32,32 32,31 32,29 33,18 33,17 33,16 33,15 32,34 33,2233,21 33,2 33,19 33,27 33,26 33,25 33,24 33,23 33,32 33,3 33,29 33,28 33,34 33,33 33,31 34,19 34,18 34,17 34,16 34,15 34,234,2234,21 34,2 34,27 34,26 34,25 34,24 34,32 34,3 34,29 34,28 34,34 34,33 34, Video Bit Rate (kbps) Figure 3-4 Distorted PSNR vs. Bitrate Curve for QP Selection of V+D Slice75 Mode Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) noslice,mvc ,72 32,698 noslice,mvc ,619 35,718 noslice,sim ,895 31,956 noslice,sim ,442 35,24 noslice,vd ,864 31,564 noslice,vd ,98 34,154 noslice,mvc ,284 31,983 noslice,mvc ,65 35,23 noslice,vd2 N/A N/A N/A N/A noslice,vd2 N/A N/A N/A N/A slice13,mvc ,384 32,351 slice13,mvc ,916 35,728 slice13,sim ,459 31,59 slice13,sim ,25 34,783 slice13,vd ,222 31,383 slice13,vd ,683 33,82 slice13,mvc ,144 31,57 slice13,mvc ,491 34,59 slice13,vd2 N/A N/A N/A N/A slice13,vd2 N/A N/A N/A N/A slice1,mvc ,872 32,357 slice1,mvc ,228 35,72 slice1,sim ,91 31,226 slice1,sim ,481 34,778 slice1,vd ,238 31,349 slice1,vd ,689 33,93 slice1,mvc ,147 31,28 slice1,mvc ,548 34,591 slice1,vd ,69 31,27 slice1,vd2 N/A N/A N/A N/A slice75,mvc ,559 32,347 slice75,mvc ,353 35,375 slice75,sim ,167 31,221 slice75,sim ,891 34,775 slice75,vd ,764 31,336 slice75,vd , 33,792 slice75,mvc ,816 31,226 slice75,mvc ,822 34,65 slice75,vd ,723 31,24 slice75,vd2 N/A N/A N/A N/A slice5,mvc ,933 32,339 slice5,mvc ,536 35,384 slice5,sim ,119 31,212 slice5,sim ,583 34,779 slice5,vd ,137 31,186 slice5,vd ,114 33,6 slice5,mvc ,34 31,243 slice5,mvc ,5 34,612 slice5,vd ,137 31,186 slice5,vd2 N/A N/A N/A N/A Figure 3-5 Selected Left and Right QPs, Resultant Joint PSNRs and Bitrates for Heidelberg 3 Kbps and 6 Kbps Page 19 of 214

21 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) noslice,mvc ,288 43,1 noslice,mvc ,658 46,692 noslice,sim ,416 42,371 noslice,sim ,536 46,92 noslice,vd ,48 41,934 noslice,vd ,464 45,176 noslice,mvc ,584 42,332 noslice,mvc ,244 46,63 noslice,vd2 N/A N/A N/A N/A noslice,vd2 N/A N/A N/A N/A slice13,mvc ,498 43,94 slice13,mvc ,64 46,399 slice13,sim ,531 42,41 slice13,sim ,112 45,793 slice13,vd ,345 41,842 slice13,vd ,167 44,853 slice13,mvc ,14 41,862 slice13,mvc ,688 45,82 slice13,vd ,345 41,842 slice13,vd2 N/A N/A N/A N/A slice1,mvc ,131 43,14 slice1,mvc ,594 46,395 slice1,sim ,917 42,36 slice1,sim ,989 45,795 slice1,vd ,573 41,686 slice1,vd ,45 44,878 slice1,mvc ,581 41,862 slice1,mvc ,56 45,821 slice1,vd2 N/A N/A N/A N/A slice1,vd2 N/A N/A 614,45 44,878 slice75,mvc ,364 42,817 slice75,mvc ,645 46,397 slice75,sim ,458 42,41 slice75,sim ,553 45,792 slice75,vd ,611 41,64 slice75,vd ,789 44,721 slice75,mvc ,553 41,856 slice75,mvc ,942 45,826 slice75,vd2 N/A N/A N/A N/A slice75,vd2 N/A N/A 599,789 44,721 slice5,mvc ,327 42,812 slice5,mvc ,964 46,15 slice5,sim ,85 41,718 slice5,sim ,384 45,51 slice5,vd ,98 41,498 slice5,vd ,353 44,695 slice5,mvc ,747 41,676 slice5,mvc ,567 45,494 slice5,vd2 N/A N/A N/A N/A slice5,vd2 N/A N/A N/A N/A Figure 3-6 Selected Left and Right QPs, Resultant Joint PSNRs and Bitrates for KnightQuest 3 Kbps and 6 Kbps Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) noslice,mvc ,33 35,94 noslice,mvc ,813 38,297 noslice,sim ,548 34,734 noslice,sim ,127 37,96 noslice,vd ,972 36,836 noslice,vd ,783 39,722 noslice,mvc ,345 34,724 noslice,mvc ,955 37,96 noslice,vd ,633 34,575 noslice,vd ,267 37,79 slice13,mvc ,563 35,1 slice13,mvc ,391 37,979 slice13,sim ,373 34,737 slice13,sim ,933 37,563 slice13,vd ,327 36,825 slice13,vd ,725 39,684 slice13,mvc ,719 34,734 slice13,mvc ,8 37,63 slice13,vd ,728 34,575 slice13,vd ,95 37,516 slice1,mvc ,755 35,116 slice1,mvc ,248 37,981 slice1,sim ,155 34,752 slice1,sim ,933 37,568 slice1,vd ,69 36,822 slice1,vd ,73 39,71 slice1,mvc ,39 34,738 slice1,mvc ,897 37,598 slice1,vd ,38 34,586 slice1,vd ,775 37,518 slice75,mvc ,233 35,135 slice75,mvc ,68 37,988 slice75,sim ,512 34,755 slice75,sim ,289 37,566 slice75,vd ,725 36,829 slice75,vd ,211 39,671 slice75,mvc ,6 34,755 slice75,mvc ,817 37,63 slice75,vd ,53 34,598 slice75,vd ,241 37,521 slice5,mvc ,13 34,785 slice5,mvc ,753 38,13 slice5,sim ,564 34,473 slice5,sim ,241 37,64 slice5,vd ,492 36,464 slice5,vd ,145 39,482 slice5,mvc ,93 34,382 slice5,mvc ,27 37,63 slice5,vd ,869 34,429 slice5,vd ,214 37,496 Figure 3-7 Selected Left and Right QPs, Resultant Joint PSNRs and Bitrates for RhineValley 3 Kbps and 6 Kbps Page 2 of 214

22 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) Scheme Left QP Right/Depth QP Joint Bitrate (kbps) Joint PSNR (db) noslice,mvc ,832 34,436 noslice,mvc ,541 37,575 noslice,sim ,778 33,2 noslice,sim ,944 36,742 noslice,vd ,16 34,652 noslice,vd ,639 37,358 noslice,mvc ,772 33,312 noslice,mvc ,296 36,547 noslice,vd ,281 33,228 noslice,vd ,451 36,627 slice13,mvc ,844 34,162 slice13,mvc ,854 37,338 slice13,sim ,645 33,194 slice13,sim ,39 36,339 slice13,vd ,145 34,649 slice13,vd ,416 37,124 slice13,mvc ,296 33,314 slice13,mvc ,913 36,227 slice13,vd ,742 33,195 slice13,vd ,99 36,141 slice1,mvc ,63 34,162 slice1,mvc ,659 37,268 slice1,sim ,361 33,193 slice1,sim ,176 36,332 slice1,vd ,213 34,641 slice1,vd ,819 37,128 slice1,mvc ,156 33,325 slice1,mvc ,334 36,227 slice1,vd ,42 33,25 slice1,vd ,112 36,14 slice75,mvc ,269 34,17 slice75,mvc ,927 37,268 slice75,sim ,231 33,185 slice75,sim ,116 36,335 slice75,vd ,783 34,525 slice75,vd ,386 37,156 slice75,mvc ,274 32,991 slice75,mvc ,189 36,241 slice75,vd ,936 33,22 slice75,vd ,512 36,166 slice5,mvc ,67 34,187 slice5,mvc ,39 37,3 slice5,sim ,152 32,83 slice5,sim ,171 36,372 slice5,vd ,538 34,546 slice5,vd ,591 36,966 slice5,mvc ,967 32,648 slice5,mvc ,482 36,26 slice5,vd ,844 32,645 slice5,vd ,266 36,22 Figure 3-8 Selected Left and Right QPs, Resultant Joint PSNRs and Bitrates for RollerBlade 3 Kbps and 6 Kbps 3.3 Encapsulator Parameters Selection Multiplexing of multiple services into a final transport stream in DVB-H can be realized either statically by assigning fixed durations for each service or dynamically by using a variable burst duration assignment algorithm. In this study, we have used the fixed burst duration method as this is the most common method in the current DVB-H systems. We assign two bursts/time slices for left and right/depth views with different program ids as if they are two separate streams to be broadcasted. The reason behind assigning two separate bursts is to achieve backward compatibility such that a 3D non-compatible user can still receive only the left burst to play monoscopic video. This can be achieved by adjusting the delta-t s of both bursts to signal the start of next left view burst. Therefore a mono-capable receiver will be able to turn off after the end of the first burst discarding the right view. There is a set of parameters chosen for each burst (or program in the context of the encapsulator) in order to realize the link layer encapsulation. The parameters to be set are: 1) Number of rows in MPE-FEC frame table (nrows), 2) Number of Application Data Table (ADT) columns in MPE-FEC frame table (nadtcols), 3) Number of Reed-Solomon (RS) columns in MPE-FEC frame table (nrscols), 4) Duration of the burst in seconds, 5) Delta-T, period of the burst in seconds. In our experiments, we followed the following procedure to construct the DVB-H transmission simulation setup: We assume that the frames per second (fps) and the sizes of each Group of Pictures (GOP) in both number of frames (ngopsizeframes) and bytes (ngopsizebytes) are given or can be obtained. In this report, we define a GOP as a collection of consecutive one I frame and Page 21 of 214

23 Counts Counts D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools following P frames until the next I frame. Therefore, number of frames in a GOP, ngopsizeframes, is equal to the I frame period. In the setup, we define a parameter, ngopsinaburst, which means how many GOPs to put in a burst. The reason why we place an integer multiple of GOPs in a burst is that since each GOP contains only one I frame with a size usually larger than P frames, the variance of GOP sizes in bytes is assumed to be minimized in this way. We prefer smallest variance in the GOP size in bytes since we employ fixed burst durations. Once we set ngopsinaburst, using the given video fps, delta-t can be calculated as ngopsizeframes x ngopsinaburst / fps. In the experiments, in order to avoid situations like discarding some of the packets in a burst because of exceeding the available bitrate due to variance in ngopsizebytes, we choose the nrows and burst duration by examining the (ngopsizebytes x ngopsinaburst) value and the length of corresponding TS bitstream of each burst. As shown in Figure Figure 3-12, the GOP size distributions of the simulcast encoded test videos cover a large range of sizes with high variance. Therefore, we use the maximum of ngopsizebytes x ngopsinaburst values among the bursts in nadtcols calculation. We start with an nrows value and if resultant nadtcols or nrscols values exceed maximum values (191 and 64) or resultant transport streams exceed available bitrate, we increase nrows to next possible larger value. nrows parameter can take discrete values as defined in the standard {256, 512, 768, and 124}. When the value of nrows is chosen, nadtcols can be calculated as ceil ( max ( ngopsizebytes x ngopsinaburst ) / nrows ). Using the desired MPE-FEC protection rate, nrscols is calculated. 1 HeidelbergAlleys, slice, sim, Left 6 HeidelbergAlleys, slice, sim, Right GOP Size in bytes x GOP Size in bytes x 1 4 Figure 3-9 GOP size distribution of Simulcast Left and Right View Sequence with Slice Mode Page 22 of 214

24 Counts Counts Counts Counts Counts Counts D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools 7 RhineValleyMoving, slice, sim, Left 1 RhineValleyMoving, slice, sim, Right GOP Size in bytes x GOP Size in bytes x 1 4 Figure 3-1 GOP size distribution of Simulcast Left and Right View Sequence with Slice Mode 7 KnightsQuest, slice, sim, Left 9 KnightsQuest, slice, sim, Right GOP Size in bytes x GOP Size in bytes x 1 4 Figure 3-11 GOP size distribution of Simulcast Left and Right View Sequence with Slice Mode 8 RollerBlade, slice, sim, Left 1 RollerBlade, slice, sim, Right GOP Size in bytes x GOP Size in bytes x 1 4 Figure 3-12 GOP size distribution of Simulcast Left and Right View Sequence with Slice Mode Finally, in order to choose a burst duration value which guarantees no bitrate exceeding, we simulate the transmission with a very large burst duration as input and observe the resultant duration of each burst. Among the resultant burst durations, we pick the largest one and label it as the maximum burst duration of the video encoded and transmitted with the given the parameters. When we want to simulate different coding and transmission schemes with the same channel Page 23 of 214

25 Schemes Schemes Schemes Schemes D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools conditions, it is required to provide same burst durations for each scheme for fair comparison. In this case, we first obtain resultant maximum burst durations of each scheme and pick the largest one to be used for all in the simulations. Figure 3-13 and Figure 3-14 illustrate example resultant maximum burst durations for different video contents and transmission schemes. HeidelbergAlleys KnightsQuest noslice,vd noslice,vd Left Right (Depth) noslice,sim noslice,sim noslice,mvc noslice,mvc slice,vd slice,vd slice,sim slice,mvc Left Right (Depth) slice,sim slice,mvc Burst durations Burst durations Figure 3-13 Burst Duration distributions according to maximum GOP sizes of each coding method with slice/noslice modes RhineValleyMoving RollerBlade noslice,vd noslice,sim noslice,vd noslice,sim noslice,mvc noslice,mvc slice,vd slice,vd slice,sim Left Right (Depth) slice,sim Left Right (Depth) slice,mvc slice,mvc Burst durations Burst durations Figure 3-14 Burst Duration distributions according to maximum GOP sizes of each coding method with slice/noslice mode Table 3-5 and Table 3-6 show resultant number of ADT and RS columns for all transmission schemes simulated in this report. Notice, there are two RS column values, initial and final. Initial value is calculated from the intended MPE-FEC rate and nadtcols. Final RS column values are obtained as follows: Since we use one burst duration value calculated from the maximum of possible burst duration for every scheme, some schemes cannot utilize all the available burst duration with initial nrscols value. In order for each scheme to fully utilize available bitrate, we assign more RS columns that can be placed in the excess burst duration. In this way, we obtain Page 24 of 214

26 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools the RS columns final values and these values are used during the actual transmission simulation. One can notice that, if a scheme has a lower data bitrate, then it will be protected more, allowing a fair comparison. The resultant FEC rate ratios are also illustrated in Figure 3-15 and Figure Scheme AD T L RS Left Initia l RS RS RS RS RS RS RS RS RS RS RS RS RS RS RS Left ADT Right Righ AD Left Left ADT Right Righ AD Left Left ADT Right Righ AD Left Left ADT Right Righ Fina Righ Initia t T Initia Fina Righ Initia t T Initia Fina Righ Initia t T Initia Fina Righ Initia t l t l Final Left l l t l Final Left l l t l Final Left l l t l Final noslice,mvc,eep noslice,mvc,uep noslice,mvc,uep noslice,mvc,uep noslice,mvc,uep noslice,sim,eep noslice,vd,eep noslice,vd,uep noslice,vd,uep noslice,vd,uep noslice,vd,uep noslice,mvc2,eep noslice,mvc2,uep noslice,mvc2,uep noslice,mvc2,uep noslice,mvc2,uep noslice,vd2,eep noslice,vd2,uep noslice,vd2,uep noslice,vd2,uep noslice,vd2,uep slice13,mvc,eep slice13,mvc,uep slice13,mvc,uep slice13,mvc,uep slice13,mvc,uep slice13,sim,eep slice13,vd,eep slice13,vd,uep slice13,vd,uep slice13,vd,uep slice13,vd,uep slice13,mvc2,eep slice13,mvc2,uep Page 25 of 214

27 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools slice13,mvc2,uep slice13,mvc2,uep slice13,mvc2,uep slice13,vd2,eep slice13,vd2,uep slice13,vd2,uep slice13,vd2,uep slice13,vd2,uep slice1,mvc,eep slice1,mvc,uep slice1,mvc,uep slice1,mvc,uep slice1,mvc,uep slice1,sim,eep slice1,vd,eep slice1,vd,uep slice1,vd,uep slice1,vd,uep slice1,vd,uep slice1,mvc2,eep slice1,mvc2,uep slice1,mvc2,uep slice1,mvc2,uep slice1,mvc2,uep slice1,vd2,eep slice1,vd2,uep slice1,vd2,uep slice1,vd2,uep slice1,vd2,uep slice75,mvc,eep slice75,mvc,uep slice75,mvc,uep slice75,mvc,uep slice75,mvc,uep slice75,sim,eep slice75,vd,eep slice75,vd,uep slice75,vd,uep slice75,vd,uep slice75,vd,uep slice75,mvc2,eep slice75,mvc2,uep Page 26 of 214

28 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools slice75,mvc2,uep slice75,mvc2,uep slice75,mvc2,uep slice75,vd2,eep slice75,vd2,uep slice75,vd2,uep slice75,vd2,uep slice75,vd2,uep slice5,mvc,eep slice5,mvc,uep slice5,mvc,uep slice5,mvc,uep slice5,mvc,uep slice5,sim,eep slice5,vd,eep slice5,vd,uep slice5,vd,uep slice5,vd,uep slice5,vd,uep slice5,mvc2,eep slice5,mvc2,uep slice5,mvc2,uep slice5,mvc2,uep slice5,mvc2,uep slice5,vd2,eep slice5,vd2,uep slice5,vd2,uep slice5,vd2,uep slice5,vd2,uep Table 3-5 ADT, RS Table for RollerBlade 3 Kbps, 6 Kbps, KnightsQuest 3Kbps, 6 Kbps respectively Scheme RS AD Left T Initia Left l RS RS RS RS RS RS RS RS RS RS RS RS RS RS RS Left ADT Right Righ AD Left Left ADT Right Righ AD Left Left ADT Right Righ AD Left Left ADT Right Righ Fina Righ Initia t T Initia Fina Righ Initia t T Initia Fina Righ Initia t T Initia Fina Righ Initia t l t l Final Left l l t l Final Left l l t l Final Left l l t l Final noslice,mvc,eep noslice,mvc,uep noslice,mvc,uep noslice,mvc,uep Page 27 of 214

29 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools noslice,mvc,uep noslice,sim,eep noslice,vd,eep noslice,vd,uep noslice,vd,uep noslice,vd,uep noslice,vd,uep noslice,mvc2,eep noslice,mvc2,uep noslice,mvc2,uep noslice,mvc2,uep noslice,mvc2,uep noslice,vd2,eep noslice,vd2,uep noslice,vd2,uep noslice,vd2,uep noslice,vd2,uep slice13,mvc,eep slice13,mvc,uep slice13,mvc,uep slice13,mvc,uep slice13,mvc,uep slice13,sim,eep slice13,vd,eep slice13,vd,uep slice13,vd,uep slice13,vd,uep slice13,vd,uep slice13,mvc2,eep slice13,mvc2,uep slice13,mvc2,uep slice13,mvc2,uep slice13,mvc2,uep slice13,vd2,eep slice13,vd2,uep slice13,vd2,uep slice13,vd2,uep slice13,vd2,uep slice1,mvc,eep slice1,mvc,uep slice1,mvc,uep slice1,mvc,uep Page 28 of 214

30 D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools slice1,mvc,uep slice1,sim,eep slice1,vd,eep slice1,vd,uep slice1,vd,uep slice1,vd,uep slice1,vd,uep slice1,mvc2,eep slice1,mvc2,uep slice1,mvc2,uep slice1,mvc2,uep slice1,mvc2,uep slice1,vd2,eep slice1,vd2,uep slice1,vd2,uep slice1,vd2,uep slice1,vd2,uep slice75,mvc,eep slice75,mvc,uep slice75,mvc,uep slice75,mvc,uep slice75,mvc,uep slice75,sim,eep slice75,vd,eep slice75,vd,uep slice75,vd,uep slice75,vd,uep slice75,vd,uep slice75,mvc2,eep slice75,mvc2,uep slice75,mvc2,uep slice75,mvc2,uep slice75,mvc2,uep slice75,vd2,eep slice75,vd2,uep slice75,vd2,uep slice75,vd2,uep slice75,vd2,uep slice5,mvc,eep slice5,mvc,uep slice5,mvc,uep slice5,mvc,uep Page 29 of 214

31 Schemes D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools slice5,mvc,uep slice5,sim,eep slice5,vd,eep slice5,vd,uep slice5,vd,uep slice5,vd,uep slice5,vd,uep slice5,mvc2,eep slice5,mvc2,uep slice5,mvc2,uep slice5,mvc2,uep slice5,mvc2,uep slice5,vd2,eep slice5,vd2,uep slice5,vd2,uep slice5,vd2,uep slice5,vd2,uep Table 3-6 ADT, RS Table for Heidelberg 3 Kbps, 6 Kbps, Rhine 3Kbps, 6 Kbps respectively. noslice,vd2,uep4 noslice,vd2,uep3 noslice,vd2,uep2 noslice,vd2,uep1 noslice,vd2,eep noslice,mvc2,uep4 noslice,mvc2,uep3 noslice,mvc2,uep2 noslice,mvc2,uep1 noslice,mvc2,eep noslice,vd,uep4 noslice,vd,uep3 noslice,vd,uep2 noslice,vd,uep1 noslice,vd,eep noslice,sim,uep4 noslice,sim,uep3 noslice,sim,uep2 noslice,sim,uep1 noslice,sim,eep noslice,mvc,uep4 noslice,mvc,uep3 noslice,mvc,uep2 noslice,mvc,uep1 noslice,mvc,eep RhineValleyMoving Left1 Left2 Right1 (Depth1) Right2 (Depth2) Fec Ratios Figure 3-15 FEC rate distribution among two channels of noslice transmission cases (Rhine Valley) Page 3 of 214

32 Schemes D3.4 Stereo DVB-H Broadcasting System with Error Resilient Tools noslice,vd2,uep4 noslice,vd2,uep3 noslice,vd2,uep2 noslice,vd2,uep1 noslice,vd2,eep noslice,mvc2,uep4 noslice,mvc2,uep3 noslice,mvc2,uep2 noslice,mvc2,uep1 noslice,mvc2,eep noslice,vd,uep4 noslice,vd,uep3 noslice,vd,uep2 noslice,vd,uep1 noslice,vd,eep noslice,sim,uep4 noslice,sim,uep3 noslice,sim,uep2 noslice,sim,uep1 noslice,sim,eep noslice,mvc,uep4 noslice,mvc,uep3 noslice,mvc,uep2 noslice,mvc,uep1 noslice,mvc,eep Left1 Left2 Right1 (Depth1) Right2 (Depth2) RollerBlade Fec Ratios Figure 3-16 FEC rate distribution among two channels of noslice transmission cases (Roller Blade) Page 31 of 214

33 3.4 Analysis of Coding and Transmission Parameters Metrics Used for Transmission Loss Analysis Transmission analysis requires the definition of loss metrics in order to make a fair comparison of the methods being tested. Loss is quantized for packet networks which means having an error pattern consisting of 1's and O's to denote the reliability (existence) of the corresponding units. Since we have a network layered structure we can define packet loss rates at different levels such as the, IP Packet Loss Rate, NALU Loss Rate, Video Frame Loss Rate... etc. While choosing loss metrics to use, the important point is to consider the layer where the compared methodologies are implemented so that the intermediate steps do not affect the evaluation of the results. MPE Frame Error Rate (MFER) is defined as: Number of Erroneous Frames after FEC 1 MFER(%) Total Number of Frames This metric is defined by the DVB Community in order to represent the losses in DVB H transmission system. However an MPE FEC frame is considered to be lost (erroneous) when the FEC decoding fails to correct a raw of the MPE frame. This causes a large variation in the video frame losses corresponding to a single MFER value. Also the same error pattern results in a variety of MFER values for different videos making the metric extremely content dependent. We have experimented with different contents and coding schemes using the same TS error pattern and found out that MFER values varies a lot. This can be observed from the Figure 3-17 to Figure Therefore, while comparing the different methodologies during the transmission tests, using MFER do not provide conclusive results since the comparison basis do not correspond to an independent property of video (correlation between video frame loss rate and MFER). In DVB-H transmission system, since MPE-FEC is defined in link layer and we implement the protection methods using MPE-FEC it is reasonable to use the TS PLR as a metric in order to see the performance of different FEC rate assignments. However one should note that TS PLR is defined as: Number of erroneousts packets TS PLR Number of total TS packets This means that we still do an averaging over different error patterns since two error patterns are considered to be the same as long as they involve equal number of errors regardless of the distributions of the errors inside the stream. Furthermore we represent the TS PLRs in a quantized manner since the each TS PLR provided is a combination of TS PLRs exist in a small range. Generally some additional parameters are used to define a TS PLR to differentiate the error Page 32 of 214

34 Counts Counts Counts patterns with different characteristics. DVB-H channel is characterized by errors occurring in bursts instead of single bit errors. Hence, generally parameters such as Average Burst Error Length (ABEL), Variance of Burst Error Length (VBEL) etc. are provided together with the TS PLRs. 2 Joint mean MFER histogram: HeidelbergAlleys SNR: MFER values (%) Figure 3-17 Histogram for MFER % Distribution at Channel SNR=17 3 Joint mean MFER histogram: HeidelbergAlleys SNR: MFER values (%) Figure 3-18 Histogram for MFER % Distribution at Channel SNR=18 Figure 3-19 Histogram for MFER % Distribution at Channel SNR= Joint mean MFER histogram: HeidelbergAlleys SNR: MFER values (%) Page 33 of 214

35 Number of Experiments Number of Experiments Number of Experiments Number of Experiments Number of Experiments SNR = SNR = SNR = SNR = SNR = Figure 3-2 Histogram of TS PLRs observed in (TU6 fdmax=24hz) Mobile Channel for 1 experiments In the following three sections results of the transmission tests are presented. A common way of evaluating error resilience techniques is to compare the average distortion results of each method for each value of the channel SNR range that is being worked. Although looking at the average resultant PSNR values according to each channel SNR provide the overall tendencies of the methods tested; since a channel SNR value may contain many s (TS PLR) within as shown in Error! Reference source not found., this comparison method may not reveal Page 34 of 214

36 ll the information that can be extracted from the tests. Therefore we try to evaluate the transmission schemes in a more accurate way by also presenting the PSNR values of each TS PLR existing in a channel SNR. Hence each channel SNR has its own figure where distortion PSNRs is provided for the TS PLRs. One can easily recognize that TS PLR distributions tend to converge as channel SNR increases but still have variations for each channel SNR. Since all the schemes are granted same amount of burst durations and the error traces in the experiments affect the same locations in the transport stream, every scheme is assumed to encounter same TS loss rate for an experiment. Therefore for the coding method/slice mode/protection method comparisons, PSNR values of 1 experiments carried out for each channel SNR can be used. One example of such a plot is provided in Figure In this example even though coding and protection methods are merged for each slice mode in order to compare the slice modes, the figure is too complex to comment on. It can be said that slice5 mode (light blue colored points) have a smaller variance and noslice has the lowest PSNRs but still in the upper parts of the figure it is not possible to distinguish the different modes easily. Because of these reasons, we have decided to provide the PSNR vs. TS PLR figures of not all 1 experiments but a subsample of them and defined the winner top 1 and top 5 experiments. Winner top 1 means the experiment with the highest PSNR for the specific TS PLR. The reason we defined also top 5 is because there are also many cases where many experiments with the highest PSNR exist. Also for some tests, one method outperforms the other with a very small difference in PSNR. As mentioned earlier, rather than averaging the resultant PSNR values obtained from all the simulations for an SNR value, we prefer to use TS loss rate based evaluations. Since all the schemes are granted same amount of burst durations and the error traces in the experiments affect the same locations in the transport stream, every scheme is assumed to encounter same TS loss rate for an experiment. In the winning scheme based evaluations, we divide the TS loss rates ranges that are encountered in the experiments for an SNR into sub regions. In each sub region, we consider the experiments that resulted in a TS loss rate value falling onto the corresponding sub region. We calculate the PSNR values of all schemes for all the experiments and sort the PSNR values in descending order in each sub region. Then, for each experiment in the sub regions, we either consider the first value (Top 1) of sorted PSNRs or we consider the first five (Top 5) values. Finally, we present the number of occurrences of competing schemes in Top 1 or Top 5. The motivation behind dividing TS loss rate values into sub regions is to make more reliable and meaningful comparisons within similar TS loss rate values. As explained in the beginning of Section 3, PSNR calculation of Video + Depth and other methods is different. These results in a shift on distortion PSNR values of VD and VD2 compared to MVC, MVC2 and Sim. Putting the results of these five methods in a single figure results in a grouping where VD and VD2 experiments results are on the top and others below. Therefore we ve provided the comparison of MVC, MVC2 and Sim methods and VD, VD2 methods separately. The PSNR results of all transmission tests are provided also in tables in Table 3-7 to Table 3-14 for reference. Page 35 of 214

37 Figure 3-21 Example figure where distortion PSNRs are provided according to TS PLRs of a single Channel SNR. Here all of the experiment results are presented with a grouping according to slice modes Coding Method Comparisons In this section we compare the performance of the coding methods defined in Table 3-1. Top 1 & 5 Count and PSNR graphs of MVC (MVC2, Sim) and VD (VD2) are provided for each content and bitrate. Figure 3 15 is an example of a top 1 count graph given for the content HeidelbergAlleys encoded with 3 Kbps. The counts of the experiment methods resulted in the highest PSNR for the TS PLRs within a channel SNR is given as a subplot. Five different channel SNRs are given on top of each other. Coding method comparison figures are provided in the range Figure 3-22 to Figure From the winner top 1 & 5 figures it can be observed that for good channel conditions MVC has the best performance (low TS PLRs and high channel SNR). This is an expected result since the lossless quality of MVC is higher than both MVC2 and Simulcast since it compresses better than Simulcast and has higher bitrate than MVC2. For low channel SNR values (17 db in our case) as the TS PLR increases MVC2 becomes the leading coding method due to its high FEC rate for protection. It is clear that Simulcast would not be the preferred coding method for any of the conditions tested. On the other hand, for SNRs higher than 18 db MVC is clearly the winner. For channel SNR 17 dbs; since a clear winner for all TS PLR do not exist in Top 1 and Top 5 Count graphs, it may be helpful to check the PSNR vs. TS PLR graphs for these experiments since it Page 36 of 214

38 provides the PSNRs of the methods that follows the winner for a specific TS PLR. In most of the cases, when we check low TS PLRs, where MVC is better than MVC2, the PSNR difference of the two methods come from the original coding, since in low error rates, generally both methods can recover by the FEC. On the other hand, for high TS packet loss rates where MVC2 performs better, the PSNR difference between MVC and MVC2 varies according to the characteristics of the error pattern. Content dependency is more severe for VD - VD2 comparisons. Although VD outperforms VD2 most of the time, for some sequences such as RhineValley VD2 provides a more robust behavior compared to VD. It has distorted PSNR values concentrated in a range where the upper bound is approximately 2 db lower than the best cases (of VD) but it improves the high loss performance with a greater gain than that. Looking at this result one might easily say that VD2 would be preffered unless the channel is known to be near lossless most of the time. Unfortunately, we do not observe this result for the other contents. Page 37 of 214

39 Number of times in Top 1 15 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-22 Page 38 of 214

40 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 35 RollerBlade 3 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure RollerBlade 3 kbps, VD Channel SNR = VD VD Figure Page 39 of 214

41 Number of times in Top 1 2 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 VD VD Figure 3-25 Page 4 of 214

42 Number of times in Top 5 1 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-26 Page 41 of 214

43 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top RollerBlade 3 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure RollerBlade 3 kbps, VD Channel SNR = VD VD Figure Page 42 of 214

44 Number of times in Top 5 1 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 VD VD Figure 3-29 Page 43 of 214

45 Number of times in Top 1 15 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-3 Page 44 of 214

46 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 38 RollerBlade 6 kbps, MVC Sim Channel SNR = MVC Sim MVC2 3 Figure RollerBlade 6 kbps, VD Channel SNR = VD VD Figure Page 45 of 214

47 Number of times in Top 1 2 RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = 21 VD VD Figure 3-33 Page 46 of 214

48 Number of times in Top 5 1 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-34 Page 47 of 214

49 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top RollerBlade 6 kbps, MVC Sim Channel SNR = MVC Sim MVC2 29 Figure RollerBlade 6 kbps, VD Channel SNR = VD VD Figure Page 48 of 214

50 Number of times in Top 5 1 RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = 21 VD VD Figure 3-37 Page 49 of 214

51 Number of times in Top 1 15 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-38 Page 5 of 214

52 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = MVC 34 Sim MVC Figure RhineValleyMoving 3 kbps, VD Channel SNR = VD VD2 28 Figure Page 51 of 214

53 Number of times in Top 1 2 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 VD VD Figure 3-41 Page 52 of 214

54 Number of times in Top 5 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-42 Page 53 of 214

55 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = Figure MVC 18 Sim MVC RhineValleyMoving 3 kbps, VD Channel SNR = VD VD Figure Page 54 of 214

56 Number of times in Top 5 1 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 VD VD Figure 3-45 Page 55 of 214

57 Number of times in Top 1 1 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-46 Page 56 of 214

58 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = Figure MVC Sim MVC RhineValleyMoving 6 kbps, VD Channel SNR = VD VD Figure Page 57 of 214

59 Number of times in Top 1 2 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 VD VD Figure 3-49 Page 58 of 214

60 Number of times in Top 5 6 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-5 Page 59 of 214

61 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = Figure 3-51 MVC 24 Sim MVC RhineValleyMoving 6 kbps, VD Channel SNR = VD VD Figure Page 6 of 214

62 Number of times in Top 5 1 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 VD VD Figure 3-53 Page 61 of 214

63 Number of times in Top 1 2 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-54 Page 62 of 214

64 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = MVC Sim MVC2 24 Figure HeidelbergAlleys 3 kbps, VD Channel SNR = VD VD Figure Page 63 of 214

65 Number of times in Top 1 3 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 VD VD Figure 3-57 Page 64 of 214

66 Number of times in Top 5 1 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-58 Page 65 of 214

67 Number of times in Top 5 1 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 VD VD Figure 3-59 Page 66 of 214

68 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = Figure MVC Sim MVC HeidelbergAlleys 3 kbps, VD Channel SNR = VD VD Figure Page 67 of 214

69 Number of times in Top 1 15 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-62 Page 68 of 214

70 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = Figure 3-63 MVC 29 Sim MVC HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = Figure MVC Sim MVC Page 69 of 214

71 Number of times in Top 5 6 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-65 Page 7 of 214

72 Number of times in Top 1 15 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-66 Page 71 of 214

73 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 KnightsQuest 3 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure KnightsQuest 3 kbps, VD Channel SNR = VD VD Figure Page 72 of 214

74 Number of times in Top 1 3 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 VD VD Figure 3-69 Page 73 of 214

75 Number of times in Top 5 6 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-7 Page 74 of 214

76 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 KnightsQuest 3 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure KnightsQuest 3 kbps, VD Channel SNR = VD VD2 26 Figure Page 75 of 214

77 Number of times in Top 5 1 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 VD VD Figure 3-73 Page 76 of 214

78 Number of times in Top 1 15 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-74 Page 77 of 214

79 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure KnightsQuest 6 kbps, MVC Sim Channel SNR = MVC Sim MVC Figure Page 78 of 214

80 Number of times in Top 5 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 MVC Sim MVC Figure 3-77 Page 79 of 214

81 3.4.3 Slice Mode Comparisons In this section, we compare the performance of the five different slice modes. Top 1 & 5 Count and PSNR graphs are in the same form of the ones provided in the previous section. This time, the coding (MVC, MVC2 and Sim in one figure, VD and VD2) and protection methods encoded with the same slice size are pooled into the same group. Therefore, we have 5 different cases to compare regardless of the other parameters. The results of the experiments are arranged in this way to compare the performance of slice modes and provided in Figure Figure Looking at the Top 1 & 5 Count and PSNR figures for MVC comparisons, it is clearly observed that slice modes have a superior performance over the noslice mode when the TS PLRs are high, especially at levels observed in channel SNR value of 17 db. It is expected that noslice will be the winner for low loss rates since it has the best rate-distortion performance as it does not have any slice overhead. In the experiments, most of the time, we observe that noslice turns out to be the winner for low loss rates while moving up to high channel SNRs. The reason is that at these levels of loss, error decoding can correct the errors, (recover the losses) regardless of the protection scheme used. Nevertheless, there also exist figures where we see that the winner at high channel SNRs is one of the slice modes. For these cases, if we look at the lossless PSNRs, we see that the slice mode is encoded with a slightly better PSNR, which may be a result of selection of the QPs for encoding. Since the bitrate vs. PSNR curve for a content encoded with some coding method is not continuous and different coding methods have their own curves, choosing a target bitrate requires also defining a margin in order to come up a with a solution. Generally, this margin is small enough such that the resultant bitrate difference does not correspond to a significant change in PSNR. One final conclusion that can be derived is that even though we say that the noslice is the winner for low loss conditions, the maximum difference between the winner noslice video PSNR and following slice mode video PSNR occurs to be at most.5 db. However, when there is loss such that the slice modes performance is dominant, the difference in PSNRs is generally much more significant. Therefore, using slice mode clearly provides more robustness. However, the slice size to be used should be selected according to the characteristics of the content since the results show that it is highly content dependent. Similar arguments hold for VD and VD2 comparisons also. Page 8 of 214

82 Number of times in Top 1 1 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-78 Page 81 of 214

83 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 35 RollerBlade 3 kbps, MVC Sim Channel SNR = 17 noslice 34 slice13 slice1 33 slice75 slice Figure RollerBlade 3 kbps, VD Channel SNR = noslice slice13 slice1 slice75 slice Figure Page 82 of 214

84 Number of times in Top 1 2 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-81 Page 83 of 214

85 Number of times in Top 5 4 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-82 Page 84 of 214

86 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 36 RollerBlade 3 kbps, MVC Sim Channel SNR = noslice slice13 slice1 slice75 slice Figure RollerBlade 3 kbps, VD Channel SNR = Figure 3-84 noslice slice13 slice1 slice75 slice Page 85 of 214

87 Number of times in Top 5 1 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-85 Page 86 of 214

88 Number of times in Top 1 15 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-86 Page 87 of 214

89 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 38 RollerBlade 6 kbps, MVC Sim Channel SNR = 17 noslice 37 slice13 slice1 slice75 36 slice Figure RollerBlade 6 kbps, VD Channel SNR = Figure 3-88 noslice slice13 slice1 slice75 slice Page 88 of 214

90 Number of times in Top 1 15 RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-89 Page 89 of 214

91 Number of times in Top 5 4 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-9 Page 9 of 214

92 PSNRs (db) of experiments in Top 5 Figure RollerBlade 6 kbps, VD Channel SNR = Figure 3-92 noslice slice13 slice1 slice75 slice Page 91 of 214

93 Number of times in Top 5 6 RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = RollerBlade 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-93 Page 92 of 214

94 Number of times in Top 1 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-94 Page 93 of 214

95 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = noslice 34 slice13 slice1 slice75 32 slice Figure RhineValleyMoving 3 kbps, VD Channel SNR = Figure 3-96 noslice slice13 slice1 slice75 slice Page 94 of 214

96 Number of times in Top 1 15 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-97 Page 95 of 214

97 Number of times in Top 5 6 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-98 Page 96 of 214

98 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = noslice 34 slice13 slice1 32 slice75 slice Figure RhineValleyMoving 3 kbps, VD Channel SNR = Figure 3-1 noslice slice13 slice1 slice75 slice Page 97 of 214

99 Number of times in Top 5 6 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-11 Page 98 of 214

100 Number of times in Top 1 15 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-12 Page 99 of 214

101 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = Figure 3-13 noslice slice13 slice1 slice75 slice RhineValleyMoving 6 kbps, VD Channel SNR = Figure 3-14 noslice slice13 slice1 slice75 slice Page 1 of 214

102 Number of times in Top 1 15 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-15 Page 11 of 214

103 Number of times in Top 5 6 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-16 Page 12 of 214

104 PSNRs (db) of experiments in Top 5 Figure 3-17 RhineValleyMoving 6 kbps, VD Channel SNR = Figure 3-18 noslice slice13 slice1 slice75 slice Page 13 of 214

105 Number of times in Top 5 6 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-19 Page 14 of 214

106 Number of times in Top 1 15 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-11 Page 15 of 214

107 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = Figure noslice slice13 slice1 slice75 slice5 HeidelbergAlleys 3 kbps, VD Channel SNR = Figure noslice slice13 slice1 slice75 slice Page 16 of 214

108 Number of times in Top 1 1 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 17 of 214

109 Number of times in Top 5 6 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 18 of 214

110 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = noslice slice13 32 slice1 slice75 slice Figure HeidelbergAlleys 3 kbps, VD Channel SNR = Figure noslice slice13 slice1 slice75 slice Page 19 of 214

111 Number of times in Top 5 6 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 11 of 214

112 Number of times in Top 1 1 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 111 of 214

113 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = Figure noslice slice13 slice1 slice75 slice Figure 3-12 Page 112 of 214

114 Number of times in Top 5 6 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 113 of 214

115 Number of times in Top 1 1 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 114 of 214

116 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 KnightsQuest 3 kbps, MVC Sim Channel SNR = noslice slice13 slice1 slice75 slice Figure KnightsQuest 3 kbps, VD Channel SNR = Figure noslice slice13 slice1 slice75 slice Page 115 of 214

117 Number of times in Top 1 1 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 116 of 214

118 Number of times in Top 5 6 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 117 of 214

119 PSNRs (db) of experiments in Top 5 PSNRs (db) of experiments in Top 5 KnightsQuest 3 kbps, MVC Sim Channel SNR = noslice slice13 slice1 slice75 slice Figure KnightsQuest 3 kbps, VD Channel SNR = Figure noslice slice13 slice1 slice75 slice Page 118 of 214

120 Number of times in Top 5 6 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 119 of 214

121 Number of times in Top 1 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure 3-13 Page 12 of 214

122 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = noslice slice13 46 slice1 slice75 slice Figure KnightsQuest 6 kbps, VD Channel SNR = 17 noslice slice13 slice1 slice75 slice Figure Page 121 of 214

123 Number of times in Top 1 1 KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 122 of 214

124 Number of times in Top 5 4 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 123 of 214

125 Figure Figure Page 124 of 214

126 Number of times in Top 5 4 KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = 21 noslice slice13 slice1 slice75 slice Figure Page 125 of 214

127 3.4.4 Protection Method Comparisons In this section, we compare the performance of the five different error protection modes which are Equal Error Protection (EEP) and Unequal Error Protection (4 different rates UEP1, UEP2, UEP3, UEP4) modes. The definition of EEP is to protect the left and right (depth) views equally. This is implemented by assigning the corresponding RS columns calculated from Application Data Columns and FEC rate. In our experiments, constant typical FEC rate (3/4) is chosen to protect the left and right (depth) bursts in EEP mode. Then several unequal protection schemes are derived using this EEP structure. The number of application data columns is determined by the GOP size distribution. Using the FEC rate chosen, number of RS columns is also calculated. Then for the first UEP scheme, 1/4 of the RS columns used to protect the bursts of the right view are transferred (added) to the RS columns of the left view. The distribution of FEC bits among various UEP schemes continues as 2/4, 3/4 and 1 % of the RS columns of right burst are transferred to the left burst respectively. Top 1 & 5 Count and PSNR graphs are in the same form of the ones provided in the previous sections. This time the videos are grouped according to their protection methods regardless of the coding methods (MVC, MVC2 and Sim in one figure, VD and VD2) and slice sizes. The results of the experiments are arranged in this way to compare the performance of protection methods and they are provided in Figure to Figure Looking at the figures, we see that EEP usually performs better than the others and especially when channel SNR value is greater than 17 db, EEP is clearly the winner. There are some exceptional cases where for some specific TS PLR, one of the UEP schemes (usually UEP1) becomes the winner. However, this does not affect the overall picture. Even when UEP becomes the winner, it is the one that has FEC rates closer to EEP than others. It can be observed from top 5 figures that UEP1 is having PSNR values close to EEP where EEP is the winner. Here it is important to note that these results are for an UEP method implemented by protecting left views more. The reference structure used in these experiments is not suitable to achieve better robustness using UEP. In our structure, only the anchor frame (I frame) of the right view depends on the I frames of the left view. Therefore, whenever there is a loss in P frames of left view, this error does not propagate to the right view. However, in our UEP schemes, we protect the P frames of the left view more than the frames of the right view. In the future works, we plan to study on UEP schemes that are better suited with the coding structure and investigate the UEP performance with new layering structures. Page 126 of 214

128 Number of times in Top 1 15 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 127 of 214

129 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 35 RollerBlade 3 kbps, MVC Sim Channel SNR = 17 EEP 34 UEP1 UEP2 33 UEP3 UEP Figure RollerBlade 3 kbps, VD Channel SNR = EEP UEP1 UEP2 UEP3 UEP4 3 Figure Page 128 of 214

130 Number of times in Top 1 15 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 129 of 214

131 Number of times in Top 5 6 RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = RollerBlade 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 13 of 214

132 Figure Figure Page 131 of 214

133 Number of times in Top 5 6 RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = RollerBlade 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 132 of 214

134 Number of times in Top 1 2 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 133 of 214

135 PSNRs (db) of experiments in Top 1 38 RollerBlade 6 kbps, MVC Sim Channel SNR = 17 EEP 37 UEP1 UEP2 36 UEP3 UEP Figure Figure Page 134 of 214

136 Number of times in Top 5 6 RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = RollerBlade 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 135 of 214

137 Number of times in Top 1 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure 3-15 Page 136 of 214

138 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = EEP 34 UEP1 UEP2 UEP3 32 UEP Figure RhineValleyMoving 3 kbps, VD Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure Page 137 of 214

139 Number of times in Top 1 2 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 138 of 214

140 Number of times in Top 5 4 RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = RhineValleyMoving 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 139 of 214

141 PSNRs (db) of experiments in Top 5 Figure RhineValleyMoving 3 kbps, VD Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure Page 14 of 214

142 Number of times in Top 5 4 RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = RhineValleyMoving 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 141 of 214

143 Number of times in Top 1 2 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 142 of 214

144 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure RhineValleyMoving 6 kbps, VD Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure Page 143 of 214

145 Number of times in Top 1 2 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 144 of 214

146 Number of times in Top 5 1 RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = RhineValleyMoving 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 145 of 214

147 Figure Figure Page 146 of 214

148 Number of times in Top 5 4 RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = RhineValleyMoving 6 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Page 147 of 214

149 Number of times in Top 1 15 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 148 of 214

150 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = EEP 32 UEP1 UEP2 31 UEP3 UEP Figure HeidelbergAlleys 3 kbps, VD Channel SNR = Figure EEP UEP1 UEP2 UEP3 UEP Page 149 of 214

151 Number of times in Top 1 15 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 15 of 214

152 Number of times in Top 5 6 HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = HeidelbergAlleys 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 151 of 214

153 Figure 3-17 Figure Page 152 of 214

154 Number of times in Top 5 4 HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = HeidelbergAlleys 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 153 of 214

155 Number of times in Top 1 15 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 154 of 214

156 PSNRs (db) of experiments in Top 1 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure Figure Page 155 of 214

157 Number of times in Top 5 1 HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = HeidelbergAlleys 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 156 of 214

158 Number of times in Top 1 15 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 157 of 214

159 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 KnightsQuest 3 kbps, MVC Sim Channel SNR = EEP 42 UEP1 UEP2 4 UEP3 UEP Figure KnightsQuest 3 kbps, VD Channel SNR = 17 EEP UEP1 UEP2 UEP3 UEP Figure Page 158 of 214

160 Number of times in Top 1 1 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure 3-18 Page 159 of 214

161 Number of times in Top 5 1 KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = KnightsQuest 3 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 16 of 214

162 PSNRs (db) of experiments in Top 5 Figure KnightsQuest 3 kbps, VD Channel SNR = Figure EEP UEP1 UEP2 UEP3 UEP4 Page 161 of 214

163 Number of times in Top 5 3 KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = KnightsQuest 3 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 162 of 214

164 Number of times in Top 1 15 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 163 of 214

165 PSNRs (db) of experiments in Top 1 PSNRs (db) of experiments in Top 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = EEP 46 UEP1 UEP2 UEP3 44 UEP Figure KnightsQuest 6 kbps, VD Channel SNR = EEP UEP1 UEP2 UEP3 UEP Figure Page 164 of 214

166 Number of times in Top 1 1 KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 165 of 214

167 Number of times in Top 5 1 KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = KnightsQuest 6 kbps, MVC Sim Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 166 of 214

168 Figure 3-19 Figure Page 167 of 214

169 Number of times in Top 5 4 KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = KnightsQuest 6 kbps, VD Channel SNR = 21 EEP UEP1 UEP2 UEP3 UEP Figure Page 168 of 214

170 3.4.5 Overall Comparisons In Table 3-7 to Table 3-14, we tabulate the results of all aforementioned schemes as average experiment PSNRs in different TS loss rate intervals for each channel SNR values. Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 3,33 29,91 28,62 28,97 28,16 26,33 26,5 noslice,mvc,uep1 3,41 3,71 28,42 28,76 28,28 26,24 26,19 noslice,mvc,uep2 3,38 29,64 28,31 28,78 27,69 26,41 26,71 noslice,mvc,uep3 3,41 29,58 28,15 28,42 27,66 26,6 26,54 noslice,mvc,uep4 3,58 29,46 27,67 28,38 27,53 26,81 26,68 noslice,sim,eep 27,69 29,48 28,4 28,39 28,62 27,19 26,2 noslice,vd,eep 31,54 3,98 29,64 29,29 29,13 27,83 27,68 noslice,vd,uep1 31,54 3,98 29,76 29,32 29,22 27,74 27,79 noslice,vd,uep2 31,54 3,98 29,53 29,34 29,31 27,75 28,5 noslice,vd,uep3 31,18 3,36 29,55 29,27 29,34 27,75 27,95 noslice,vd,uep4 3,88 3,66 29,6 29,38 29,28 27,97 27,9 noslice,mvc2,eep 3,77 29,49 28,41 29,3 28,23 27,9 26,5 noslice,mvc2,uep1 3,77 29,43 27,98 29,7 27,94 26,57 26,25 noslice,mvc2,uep2 29,92 28,33 28,12 28,48 27,53 26,4 26,52 noslice,mvc2,uep3 29,96 28,2 27,87 27,9 27,58 25,6 26,44 noslice,mvc2,uep4 3,21 28,47 27,7 26,7 27,31 26,2 26,71 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 31,1 29,52 28,39 28,87 27,96 26,48 26,4 slice13,mvc,uep1 31,15 29,41 28,38 28,42 27,82 26,9 27,5 slice13,mvc,uep2 29,39 29,41 28,31 27,93 27, ,44 slice13,mvc,uep3 29,28 28,79 27,83 27,73 27,55 26,49 26,1 slice13,mvc,uep4 28,28 29,5 27,23 27,71 27,51 25,97 26,51 slice13,sim,eep 29,57 3,1 28,6 28,36 28,41 27,4 26,25 slice13,vd,eep 31,38 3,97 29,63 29,51 29,18 28,13 27,65 slice13,vd,uep1 31,8 3,97 29,55 29,41 29,23 27,8 28,13 slice13,vd,uep2 31,8 3,45 29,63 29,53 29,33 27,66 28,14 slice13,vd,uep3 31,7 3,44 29,64 29,57 29,4 27,79 28 slice13,vd,uep4 3,77 3,62 29,74 29,57 29,48 28,15 27,81 slice13,mvc2,eep 3,43 28,78 27,98 29,23 27,83 26,88 26,81 slice13,mvc2,uep1 3,43 29,13 27,85 28,96 27,88 26,3 26,5 slice13,mvc2,uep2 28,82 28,8 27,68 28,11 27,57 25,92 26,89 slice13,mvc2,uep3 28,76 28,52 27,56 28,8 27,31 25,7 26,57 slice13,mvc2,uep4 26,38 28,41 26,91 27,15 27,47 25,86 26,53 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 31,65 3,43 29,58 29,68 29,5 27,79 27,2 slice1,mvc,uep1 31,14 3,16 29,58 29,28 28,83 27,21 27,74 slice1,mvc,uep2 3,24 29,39 28,87 28,79 28,65 26,56 27,44 slice1,mvc,uep3 29,33 28,44 28,24 28,75 28,61 26,65 27,1 slice1,mvc,uep4 27,8 28, ,58 28,34 26,4 26,81 slice1,sim,eep 29,25 3,51 28,92 29,13 28,8 28,5 27,52 slice1,vd,eep 31,34 3,96 29,77 29,72 29,31 28,21 28,28 slice1,vd,uep1 31,33 3,96 29,52 29,69 29,32 27,76 28,28 slice1,vd,uep2 31,33 3,96 29,5 29,65 29,31 27,89 28,44 slice1,vd,uep3 3,99 3,41 29,68 29,55 29,39 27,83 28,41 slice1,vd,uep4 3,76 3,65 29,8 29,52 29,49 28,26 28,9 slice1,mvc2,eep 3,57 28,84 28,3 29,27 28,57 27,5 28,13 slice1,mvc2,uep1 3,57 29,48 27,95 29,12 28,23 27,26 27,69 slice1,mvc2,uep2 3,19 29,31 27,75 28,64 27,65 27,2 27,64 slice1,mvc2,uep3 3,19 29,89 27,8 28,17 27,46 27,4 27,5 slice1,mvc2,uep4 27,81 28,4 27,7 27,34 27,39 26,11 26,22 slice1,vd2,eep 31,1 3,51 29,63 29,69 29,21 28,37 28,31 slice1,vd2,uep1 31,1 3,5 29,65 29,66 29,29 28,23 28,31 slice1,vd2,uep2 31 3,5 29,68 29,55 29,35 28,29 28,26 Page 169 of 214

171 slice1,vd2,uep3 3,66 3,32 29,49 29,59 29,23 28,37 28,36 slice1,vd2,uep4 31 3,24 29,78 29,58 29,48 28,44 28,35 slice75,mvc,eep 29,36 3,69 29,25 28,76 28,52 27,24 27,29 slice75,mvc,uep1 29,27 3,61 28,98 28,7 28,37 26,84 26,82 slice75,mvc,uep2 29,25 28,95 28,66 28,6 28,32 26,84 27,7 slice75,mvc,uep3 29,31 28,21 28,84 28,53 28,17 26,54 26,92 slice75,mvc,uep4 28,36 28,62 27,66 28,29 27,95 26,61 26,56 slice75,sim,eep 29,9 3,32 29,13 29,23 29,18 28,38 27,75 slice75,vd,eep 31,32 3,94 29,64 29,62 29,33 28,13 28,2 slice75,vd,uep1 31,32 3,85 29,7 29,67 29,32 28,19 28,36 slice75,vd,uep2 3,98 3,85 29,61 29,62 29,4 28,4 28,27 slice75,vd,uep3 3,97 3,76 29,73 29,59 29,44 28,17 28,23 slice75,vd,uep4 3,85 3,64 29,74 29,57 29,53 28,19 28,28 slice75,mvc2,eep 3,59 3,41 29,8 29,38 28,88 27,56 28,15 slice75,mvc2,uep1 3,62 29,42 28,93 28,97 28,67 27,53 27,87 slice75,mvc2,uep2 3,9 28,94 28,97 28,85 28,66 27,54 27,56 slice75,mvc2,uep3 27,84 29,85 28,52 28,69 28,25 26,59 27,23 slice75,mvc2,uep4 27,81 28,28 27,59 28,12 27,9 26,46 27 slice75,vd2,eep 31,23 3,76 29,87 29,64 29,3 28,2 28,35 slice75,vd2,uep1 31,22 3,76 29,6 29,58 29,43 28,14 28,44 slice75,vd2,uep2 31,22 3,76 29,6 29,57 29,3 28,9 28,45 slice75,vd2,uep3 3,93 3,68 29,57 29,51 29,39 28,1 28,32 slice75,vd2,uep4 31,11 3,5 29,68 29,56 29,43 28,2 28,37 slice5,mvc,eep 29,62 29,6 28,82 28,78 28,69 27,42 27,6 slice5,mvc,uep1 29,81 29,31 28,37 28,57 28,24 27,18 26,87 slice5,mvc,uep2 3,29 29,46 28,2 28,58 27,94 27,18 26,94 slice5,mvc,uep3 3,29 28,78 27,84 28,53 28,3 26,35 26,54 slice5,mvc,uep4 3,26 28,65 27,7 28,46 28,12 26,79 26,52 slice5,sim,eep 28,94 3,12 29,9 29,3 28,87 28,9 27,68 slice5,vd,eep 31,17 3,72 29,62 29,61 29,36 28,57 28,2 slice5,vd,uep1 3,86 3,69 29,7 29,67 29,37 28,69 28,24 slice5,vd,uep2 3,56 3,71 29,74 29,67 29,41 28,72 28,16 slice5,vd,uep3 3,75 3,7 29,71 29,81 29,4 28,79 28,17 slice5,vd,uep4 3,75 3,7 29,83 29,84 29,4 28,85 28,23 slice5,mvc2,eep 3,19 3,12 28,89 28,94 28,72 27,5 27,65 slice5,mvc2,uep1 3,22 3,6 28,54 28,9 28,61 27,5 27,79 slice5,mvc2,uep2 28,62 29,54 28,64 28,59 28,2 26,53 27,71 slice5,mvc2,uep3 28,77 28,5 28,56 28,36 27,97 26,72 27,36 slice5,mvc2,uep4 27,73 28,57 27,62 28,6 27,64 26,74 26,54 slice5,vd2,eep 31,17 3,72 29,62 29,61 29,36 28,57 28,2 slice5,vd2,uep1 3,86 3,69 29,7 29,67 29,37 28,69 28,24 slice5,vd2,uep2 3,56 3,71 29,74 29,67 29,41 28,72 28,16 slice5,vd2,uep3 3,75 3,7 29,71 29,81 29,4 28,79 28,17 slice5,vd2,uep4 3,75 3,7 29,83 29,84 29,4 28,85 28,23 SNR = 18, # Experiments: noslice,mvc,eep 31,34 3,86 3,43 29,9 28,55 3,29 noslice,mvc,uep1 31,32 3,83 3,34 29,57 28,62 29,81 noslice,mvc,uep2 31,12 3,76 3,23 29,41 28,65 29,42 noslice,mvc,uep3 31,5 3,47 29,69 29,23 28,51 29,6 noslice,mvc,uep4 3,96 3,12 29,8 29,18 29,2 29,4 noslice,sim,eep 3,74 3,53 3,45 29,7 29,17 27,22 noslice,vd,eep 3,81 31,16 3,6 3,8 28,82 29,5 noslice,vd,uep1 3,81 31,1 3,65 3,9 29,13 29,97 noslice,vd,uep2 3,81 31,1 3,72 3,12 29,13 29,9 noslice,vd,uep3 3,81 3,97 3,64 3,7 29,39 3,8 noslice,vd,uep4 3,81 3,92 3,62 3,15 29,36 3,34 noslice,mvc2,eep 3,86 3,97 3,18 29,91 28,47 3,91 noslice,mvc2,uep1 3,74 3,55 29,91 29,81 28,4 3,98 noslice,mvc2,uep2 3,61 3,21 29,69 29,31 29,25 3,77 noslice,mvc2,uep3 3,47 3,25 29,47 29,42 29,18 3,1 noslice,mvc2,uep4 3,25 29,42 28,66 28,28 28,99 29,89 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 3,92 3,63 3,13 29,98 28,98 3,28 slice13,mvc,uep1 3,92 3,64 3,4 29,96 28,94 3,79 slice13,mvc,uep2 3,69 3,68 29,89 29,34 28,65 3 slice13,mvc,uep3 3,51 3,26 29,35 28,93 28,79 29,98 slice13,mvc,uep4 3,47 29,58 29,38 28,37 29,62 3,17 slice13,sim,eep 3,56 3,59 3,23 29,11 28,77 27,75 Page 17 of 214

172 slice13,vd,eep 3,69 31,7 3,62 3,16 28,92 3,13 slice13,vd,uep1 3,69 31,4 3,62 3,8 28,93 3,13 slice13,vd,uep2 3, ,68 3,3 29,29 3,31 slice13,vd,uep3 3,69 3,72 3,56 3,22 29,3 3,31 slice13,vd,uep4 31 3,69 3,54 3,17 29,2 3,15 slice13,mvc2,eep 3,49 3,74 29,62 29,61 28,52 3,6 slice13,mvc2,uep1 3,39 3,4 29,69 29,47 28,36 3,66 slice13,mvc2,uep2 3,26 29,82 29,49 29,21 29,2 29,65 slice13,mvc2,uep3 3,5 29,53 29,7 28,59 29,12 29,61 slice13,mvc2,uep4 29,84 28,86 28,53 27,98 29,18 29,66 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 3,9 3,92 3,75 3,32 29,39 3,82 slice1,mvc,uep1 3,78 3,8 3,67 3,29 29,48 3,82 slice1,mvc,uep2 3,63 31,5 3,49 29,97 29,28 3,79 slice1,mvc,uep3 3,65 3,82 29,59 29,26 28,99 3,7 slice1,mvc,uep4 3,86 29,35 29,92 28,7 29,74 3 slice1,sim,eep 3,25 3,45 3,22 29,59 29,81 28,91 slice1,vd,eep 3,7 31,8 3,62 3,2 29,44 29,93 slice1,vd,uep1 3,7 31,4 3,69 3,24 29,44 29,93 slice1,vd,uep2 3,7 31,1 3,69 3,29 29,44 29,98 slice1,vd,uep3 3,7 3,81 3,66 3,25 29,47 3,31 slice1,vd,uep4 3,7 3,74 3,64 3,24 29,26 3,42 slice1,mvc2,eep 3,15 3,31 29,63 29,81 29,66 3,42 slice1,mvc2,uep1 29,98 29,61 29,47 29,58 29,15 3,34 slice1,mvc2,uep2 29,93 29,63 29,29 29,39 29,2 29,84 slice1,mvc2,uep3 29,6 29,66 28,95 29,2 29,25 29,71 slice1,mvc2,uep4 29,92 28,47 28,37 27,87 29,31 29,9 slice1,vd2,eep 3,48 3,65 3,43 3,14 29,54 3,4 slice1,vd2,uep1 3,48 3,65 3,41 3,13 29,56 3,4 slice1,vd2,uep2 3,48 3,63 3,29 3,2 29,27 3,16 slice1,vd2,uep3 3,69 3,53 3,35 29,95 29,46 3,16 slice1,vd2,uep4 3,69 3,51 3,37 29,9 29,53 3,2 slice75,mvc,eep 3,74 3,69 3,5 29,98 28,91 3,17 slice75,mvc,uep1 3,74 3,73 3,51 29,86 29,23 29,96 slice75,mvc,uep2 3,22 3,51 3,31 29,46 29,27 3,12 slice75,mvc,uep3 3,61 3,64 3,1 29,16 28,96 29,5 slice75,mvc,uep4 29,71 3,13 29,85 28,69 29,55 29,56 slice75,sim,eep 3,6 3,8 3,43 3,9 29,45 29,5 slice75,vd,eep 3,89 3,97 3,52 3,1 29,3 29,99 slice75,vd,uep1 3,82 3,98 3,6 3,18 29,36 29,99 slice75,vd,uep2 3,82 3,96 3,61 3,23 29,4 29,97 slice75,vd,uep3 3,82 3,74 3,62 3,23 29,38 29,98 slice75,vd,uep4 3,82 3,8 3,64 3,19 29,58 3,2 slice75,mvc2,eep 3,8 3,15 3,14 29,7 29,43 3,26 slice75,mvc2,uep1 29,94 29,93 3,12 29,56 29,2 3,2 slice75,mvc2,uep2 29,84 3,8 29,87 29,41 28,96 3,1 slice75,mvc2,uep3 29,56 29,87 29,41 28,96 28,96 29,63 slice75,mvc2,uep4 29,92 29,19 29,9 28,36 28,82 29,87 slice75,vd2,eep 3,72 3,84 3,5 3,13 29,29 29,91 slice75,vd2,uep1 3,72 3,89 3,58 3,14 29,51 29,91 slice75,vd2,uep2 3,72 3,86 3,56 3,14 29,51 29,89 slice75,vd2,uep3 3,72 3,71 3,57 3,1 29,53 3,13 slice75,vd2,uep4 3,89 3,61 3,58 3,1 29,51 3,11 slice5,mvc,eep 31,44 3,7 3,64 29,68 29,62 28,37 slice5,mvc,uep1 31,55 3,8 3,41 29,58 29,52 27,7 slice5,mvc,uep2 31,29 3,39 3,21 29,48 29,48 27,54 slice5,mvc,uep3 31,18 3,19 29,93 29,36 29,79 28,24 slice5,mvc,uep4 3,82 29,92 29,74 29,3 29,86 28,58 slice5,sim,eep 3,3 3,39 3,2 29,76 29,39 28,77 slice5,vd,eep 3,91 3,77 3,53 3,1 29,41 29,84 slice5,vd,uep1 3,91 3,76 3,53 3,3 29,42 29,84 slice5,vd,uep2 3,91 3,67 3,54 3,3 29,46 3,2 slice5,vd,uep3 3,91 3,69 3,57 3,3 29,53 3,2 slice5,vd,uep4 3,91 3,71 3,57 3,4 29,55 3,2 slice5,mvc2,eep 3,4 29,99 29,87 29,38 28,89 3,6 slice5,mvc2,uep1 3,4 29,87 29,73 29,47 28,98 29,87 slice5,mvc2,uep2 29,93 29,82 29,78 29,11 29,19 29,54 slice5,mvc2,uep3 29,75 29,67 29,64 28,91 29,51 29,52 Page 171 of 214

173 slice5,mvc2,uep4 29,1 29,55 29,6 28,43 29,16 29,4 slice5,vd2,eep 3,91 3,77 3,53 3,1 29,41 29,84 slice5,vd2,uep1 3,91 3,76 3,53 3,3 29,42 29,84 slice5,vd2,uep2 3,91 3,67 3,54 3,3 29,46 3,2 slice5,vd2,uep3 3,91 3,69 3,57 3,3 29,53 3,2 slice5,vd2,uep4 3,91 3,71 3,57 3,4 29,55 3,2 SNR = 19, # Experiments: noslice,mvc,eep 31,72 31,6 31,41 32,26 noslice,mvc,uep1 31,61 3,94 31,41 32,26 noslice,mvc,uep2 31,48 3,82 31,44 29,9 noslice,mvc,uep3 31,27 3,75 3,96 29,5 noslice,mvc,uep4 31,17 3,57 31,26 3,33 noslice,sim,eep 31,26 3,83 3,5 3,62 noslice,vd,eep 31,35 3,99 3,81 31,24 noslice,vd,uep1 31,24 31,2 3,85 3,76 noslice,vd,uep2 31, ,85 3,76 noslice,vd,uep3 31,16 3,95 3,87 3,63 noslice,vd,uep4 31,16 3, ,63 noslice,mvc2,eep 31,36 3,93 3,87 31,63 noslice,mvc2,uep1 31,13 3,58 31,26 31,63 noslice,mvc2,uep2 3,91 3,36 31,12 3,52 noslice,mvc2,uep3 3,56 3,3 3,87 3,44 noslice,mvc2,uep4 3,37 29,48 3,69 29,73 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 31,39 3,77 31,32 31,98 slice13,mvc,uep1 31,14 3,57 31,31 31,89 slice13,mvc,uep2 3,86 3,42 3,98 3,52 slice13,mvc,uep3 3,66 3,34 3,91 3,45 slice13,mvc,uep4 3,93 29,9 3,74 29,48 slice13,sim,eep 31,11 3,63 3,31 3,5 slice13,vd,eep 31,14 3,94 3,72 3,97 slice13,vd,uep1 31,13 3,88 3,67 3,81 slice13,vd,uep2 31,6 3,84 3,54 3,72 slice13,vd,uep3 31,2 3,84 3,92 3,71 slice13,vd,uep4 3,94 3,79 3,93 3,67 slice13,mvc2,eep 3,78 3,59 3,96 31,23 slice13,mvc2,uep1 3,68 3,13 3,91 31,23 slice13,mvc2,uep2 3,36 29,9 3,76 3,18 slice13,mvc2,uep3 3,31 29,78 3,5 3,1 slice13,mvc2,uep4 3,2 29,36 3,11 28,89 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 31,7 31,13 31,67 31,9 slice1,mvc,uep1 31,33 31,11 31,57 31,9 slice1,mvc,uep2 31,11 3,9 31,41 3,46 slice1,mvc,uep3 31,2 3,7 31,4 3,21 slice1,mvc,uep4 3,88 3,26 3,69 29,32 slice1,sim,eep 3,87 3,64 3,57 31 slice1,vd,eep 31,12 3,91 3,78 3,93 slice1,vd,uep1 31,14 3,86 3,77 3,71 slice1,vd,uep2 31,12 3,85 3,82 3,71 slice1,vd,uep3 31,4 3,85 3,82 3,71 slice1,vd,uep4 31,5 3,83 3,96 3,67 slice1,mvc2,eep 3,67 3,25 3,87 3,91 slice1,mvc2,uep1 3,44 3,5 3,83 3,87 slice1,mvc2,uep2 3,19 29,88 3,83 3,83 slice1,mvc2,uep3 3,9 29,84 3,48 29,15 slice1,mvc2,uep4 29,86 29,14 3,2 29,36 slice1,vd2,eep 3,89 3,68 3,54 3,73 slice1,vd2,uep1 3,85 3,65 3,64 3,65 slice1,vd2,uep2 3,76 3,59 3,69 3,54 slice1,vd2,uep3 3,69 3,55 3,67 3,21 slice1,vd2,uep4 3,78 3,57 3,75 3,32 slice75,mvc,eep 31,12 3,84 31,49 31,85 slice75,mvc,uep1 31,11 3,8 31,5 31,85 Page 172 of 214

174 slice75,mvc,uep2 3,99 3,65 3,7 3,45 slice75,mvc,uep3 31,2 3,53 3,57 3,35 slice75,mvc,uep4 3,75 3,41 3,8 29,77 slice75,sim,eep 3,95 3,76 3,72 3,99 slice75,vd,eep 31,12 3,88 3,74 3,69 slice75,vd,uep1 31,9 3,87 3,71 3,68 slice75,vd,uep2 31,5 3,86 3,72 3,68 slice75,vd,uep3 31,1 3,82 3,74 3,68 slice75,vd,uep4 31,3 3,81 3,86 3,64 slice75,mvc2,eep 3,7 3,44 3,81 3,92 slice75,mvc2,uep1 3,55 3,14 3,83 3,84 slice75,mvc2,uep2 3,39 3,13 3,8 29,62 slice75,mvc2,uep3 29,94 29,97 3,59 29,23 slice75,mvc2,uep4 29,86 29,32 3,2 28,95 slice75,vd2,eep 31,2 3,8 3,63 3,6 slice75,vd2,uep1 31,3 3,78 3,64 3,58 slice75,vd2,uep2 31,1 3,77 3,66 3,58 slice75,vd2,uep3 3,95 3,74 3,77 3,53 slice75,vd2,uep4 3,88 3,7 3,77 3,44 slice5,mvc,eep 31,37 31,28 3,98 29,67 slice5,mvc,uep1 31,27 31,13 3,88 29,67 slice5,mvc,uep2 31,14 31,8 3,69 3,2 slice5,mvc,uep3 3,99 3,88 3,63 3,2 slice5,mvc,uep4 3,8 3,74 3,54 29,97 slice5,sim,eep 3,8 3,59 3,61 29,86 slice5,vd,eep 3,97 3,72 3,52 3,56 slice5,vd,uep1 3,98 3,74 3,52 3,56 slice5,vd,uep2 3,96 3,78 3,52 3,51 slice5,vd,uep3 3,96 3,79 3,56 3,56 slice5,vd,uep4 3,98 3,79 3,59 3,54 slice5,mvc2,eep 3,55 3,22 3,64 3,86 slice5,mvc2,uep1 3,41 3,15 3,71 3,86 slice5,mvc2,uep2 3,21 3,12 3,49 29,82 slice5,mvc2,uep3 3,6 29,91 3,25 29,58 slice5,mvc2,uep4 29,91 29,81 3,17 28,97 slice5,vd2,eep 3,97 3,72 3,52 3,56 slice5,vd2,uep1 3,98 3,74 3,52 3,56 slice5,vd2,uep2 3,96 3,78 3,52 3,51 slice5,vd2,uep3 3,96 3,79 3,56 3,56 slice5,vd2,uep4 3,98 3,79 3,59 3,54 Table 3-7 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 35,39 33,47 33,44 32,4 31,23 3,95 noslice,mvc,uep1 35,25 33,1 33,4 31,69 3,88 3,83 noslice,mvc,uep2 35,1 32,53 32,84 31,45 31,1 31,15 noslice,mvc,uep3 34,17 31,79 32,27 3,69 3,43 29,7 noslice,mvc,uep4 34,1 31,4 31,76 3,28 29,94 29,7 noslice,sim,eep 34,89 33,13 33,2 32,17 3,95 29,96 noslice,vd,eep 33,59 32,42 31,41 31,31 3,36 29,55 noslice,vd,uep1 33,56 32,48 31,92 31,63 3,66 3,19 noslice,vd,uep2 26,36 23,33 24,42 24,22 23,66 23,31 noslice,vd,uep3 33,7 32,9 32,52 31,77 31,5 3,54 noslice,vd,uep4 33,63 32,92 32,46 31,82 31,29 31,37 noslice,mvc2,eep 34,92 33,46 33,16 32,24 31,72 31,55 noslice,mvc2,uep1 34, ,86 32,9 31,36 3,72 noslice,mvc2,uep2 34,8 31,57 32,5 31,54 3,29 3,66 noslice,mvc2,uep3 33,97 3,97 31,4 31,15 29,2 29,98 noslice,mvc2,uep4 32,45 3,27 3,97 3,63 29,2 28,33 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 35,47 33,6 33,45 31,6 31,23 3,65 slice13,mvc,uep1 34,66 33,31 33,14 31,22 31,21 3,3 slice13,mvc,uep2 34,24 32,55 32,28 3,56 3,57 29,87 slice13,mvc,uep3 33,56 32,5 31,67 3,56 29,61 3,51 Page 173 of 214

175 slice13,mvc,uep4 31,96 3,34 3,41 29,9 28,16 29,17 slice13,sim,eep 34,78 33,29 33,42 32,38 31,44 31,6 slice13,vd,eep 33,34 32,71 32,37 31,83 31,21 3,27 slice13,vd,uep1 33,58 32,89 32,38 31,76 31,36 3,29 slice13,vd,uep2 27,9 25,84 25,84 25,77 24,91 24,79 slice13,vd,uep3 33,12 32,58 32,41 31,7 31,53 31,6 slice13,vd,uep4 33,23 32,56 32,47 31,82 31,61 31,34 slice13,mvc2,eep 34,57 33,53 33,69 32,28 31,93 32,7 slice13,mvc2,uep1 34,54 32,8 33,42 31,91 31,27 31,39 slice13,mvc2,uep2 34,2 31,65 32,24 31,49 3,61 3,77 slice13,mvc2,uep3 32,33 3,36 31,9 3,47 28,71 3,14 slice13,mvc2,uep4 32,63 29,43 3,12 3,6 27,88 27,91 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 34,88 33,43 33,5 31,79 31,5 3,82 slice1,mvc,uep1 34,5 33,75 33,14 31,38 31,23 3,68 slice1,mvc,uep2 34,17 32,77 32,6 31,5 3,68 3,6 slice1,mvc,uep3 33,48 32,2 31,92 3,69 3,48 3,6 slice1,mvc,uep4 33,9 31,41 31,2 29,52 29,14 29,35 slice1,sim,eep 34,59 33,21 33,35 32,53 31,64 31,31 slice1,vd,eep 33,52 32,56 32,39 31,9 31,14 3,58 slice1,vd,uep1 33,56 32,75 32,63 32,2 31,29 3,87 slice1,vd,uep2 27,85 26,17 26,22 26,26 25,18 25,37 slice1,vd,uep3 33,63 33,1 32,82 31,95 31,68 31,4 slice1,vd,uep4 33,39 33,3 32,67 31,9 31,61 31,27 slice1,mvc2,eep 34,57 33,64 33,69 32,43 32,38 32,71 slice1,mvc2,uep1 34,54 33,59 33,53 32,36 31,83 32,13 slice1,mvc2,uep2 34,42 31,99 32,8 31,91 31,42 31,1 slice1,mvc2,uep3 32,3 3,67 31,91 31,46 3,53 3,18 slice1,mvc2,uep4 33,1 3 31,8 3,75 28,82 3,6 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 34,94 33,53 33,9 32,3 31,13 31,23 slice75,mvc,uep1 34,21 33,2 32,79 31,66 31,11 3,77 slice75,mvc,uep2 34,8 32,53 32,43 3,87 3,61 3,62 slice75,mvc,uep3 32,53 31,73 31,84 29,89 3,3 29,99 slice75,mvc,uep4 32,35 3,9 31,21 29,46 29,15 29,83 slice75,sim,eep 34,36 33,23 33,31 32,63 31,84 31,33 slice75,vd,eep 33,29 32,58 32,9 31,83 31,23 3,63 slice75,vd,uep1 33,16 32,74 32,22 31,84 31,32 3,66 slice75,vd,uep2 28,54 26,81 26,93 26,7 26,19 26,24 slice75,vd,uep3 33,27 32,76 32,36 31,74 31,67 31,16 slice75,vd,uep4 33,35 32,71 32,44 31,82 31,66 31,22 slice75,mvc2,eep 34,56 33,39 33,63 32,32 32,6 32,5 slice75,mvc2,uep1 34,52 33,15 33,2 32,14 31,81 31,9 slice75,mvc2,uep2 34,25 32,22 32,69 31,79 31,1 31,59 slice75,mvc2,uep3 31,91 3,97 31,47 3,89 3,19 29,62 slice75,mvc2,uep4 31,69 3,83 31,2 3,46 29,9 29,24 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 33,82 32,36 32,3 31,2 3,32 29,82 slice5,mvc,uep1 33,14 32,29 32,1 3,53 3,1 29,76 slice5,mvc,uep2 33,25 31,99 31,43 29,65 3,1 29,23 slice5,mvc,uep3 32,68 31,4 31,2 29,58 29,87 28,8 slice5,mvc,uep4 33,1 31,41 3,75 28,99 29,24 28,42 slice5,sim,eep 34,52 32,88 32,38 31,8 31,6 3,98 slice5,vd,eep 32,82 32,34 31,48 31,27 3,77 3,38 slice5,vd,uep1 32,79 32,37 31,65 31,41 3,81 3,58 slice5,vd,uep2 28,74 27,21 27,32 27,15 26,59 26,51 slice5,vd,uep3 33,1 32,49 31,96 31,53 31,4 3,48 slice5,vd,uep4 33,6 32,74 32,5 31,55 31,25 3,52 slice5,mvc2,eep 34,2 33,16 32,87 31,69 31,37 31,15 slice5,mvc2,uep1 34,21 32,8 32,77 31,75 3,99 31,41 Page 174 of 214

176 slice5,mvc2,uep2 34,22 32,3 32,6 31,46 3,79 31,13 slice5,mvc2,uep3 32,48 31,35 31,63 3,19 29,91 29,79 slice5,mvc2,uep4 31,72 3,61 3,88 29,82 28,88 28,79 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 18, # Experiments: noslice,mvc,eep 35,72 35,26 34,76 33,99 33,34 34,56 noslice,mvc,uep1 35,72 35,2 34,51 33,83 33,23 34,56 noslice,mvc,uep2 35,72 34,6 34,11 33,15 33,37 31,61 noslice,mvc,uep3 34,59 34,25 33,87 32,78 32,57 31,36 noslice,mvc,uep4 34,17 33,71 33,5 32,41 31,82 27,89 noslice,sim,eep 35,2 34,51 34,59 33,39 32,95 34,57 noslice,vd,eep 34,15 33,75 33,11 32,55 31,95 32,73 noslice,vd,uep1 34,15 33,79 33,29 32,73 32,12 32,73 noslice,vd,uep2 25,4 26,2 25,48 24,97 25,8 29,18 noslice,vd,uep3 33,94 33,78 33,34 32,88 32,18 32,44 noslice,vd,uep4 33,92 33,78 33,39 32,97 32,7 32,1 noslice,mvc2,eep 35,2 34,87 34,18 33,99 34,41 33,99 noslice,mvc2,uep1 35,2 34,33 34,9 33,64 33,81 34,4 noslice,mvc2,uep2 35,2 33,68 33,69 33,21 32,57 29,34 noslice,mvc2,uep3 35,2 33,7 32,93 32,48 31,72 27,94 noslice,mvc2,uep4 34,69 32,44 32,33 31,99 3,94 27,96 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 35,73 35,34 34,71 33,71 32,89 34,44 slice13,mvc,uep1 35,73 35,32 34,33 33,67 32,95 34,65 slice13,mvc,uep2 33,23 34,46 33,85 32,48 32,45 32,84 slice13,mvc,uep3 31,5 34,7 33,42 31,99 31,48 32,98 slice13,mvc,uep4 28,18 32,77 32,12 3,93 3,29 31,79 slice13,sim,eep 34,78 34,48 34,2 33,39 32,82 33,94 slice13,vd,eep 33,82 33,71 33,28 32,8 32,44 32,34 slice13,vd,uep1 33,82 33,67 33,2 32,94 32,53 32,34 slice13,vd,uep2 27,74 27,39 26,95 26,55 25,57 28,23 slice13,vd,uep3 33,16 33,5 33,21 32,78 32,76 32,8 slice13,vd,uep4 33,43 33,43 33,28 32,97 32,83 32,68 slice13,mvc2,eep 34,59 34,52 34,22 33,61 34,12 33,89 slice13,mvc2,uep1 34,59 34,34 33,93 33,73 33,59 34,13 slice13,mvc2,uep2 34,59 33,89 33,4 32,73 31,95 32,3 slice13,mvc2,uep3 32,58 32,63 32,66 31,95 3,5 26,98 slice13,mvc2,uep4 33,1 31,38 31,64 31,5 3,28 25,1 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 35,72 35,48 34,67 33,81 33,28 34,8 slice1,mvc,uep1 35,72 34,99 34,3 33,6 32,86 34,59 slice1,mvc,uep2 34,85 34,6 33,91 32,68 32,8 33,92 slice1,mvc,uep3 31,19 34,15 33,69 32,42 32,31 33,5 slice1,mvc,uep4 3,21 33,77 32,8 31,75 31,17 32,75 slice1,sim,eep 34,78 34,54 34,27 33,3 33,8 34,18 slice1,vd,eep 33,93 33,68 33,36 32,74 32,46 32,39 slice1,vd,uep1 33,93 33,76 33,4 32,85 32,45 32,57 slice1,vd,uep2 28,35 27,59 27,25 26,92 26,13 29,4 slice1,vd,uep3 33,66 33,69 33,37 33,4 32,92 32,49 slice1,vd,uep4 33,44 33,42 33,13 32,89 32,76 31,27 slice1,mvc2,eep 34,59 34,52 34,19 33,71 33,9 33,89 slice1,mvc2,uep1 34,59 34,46 33,93 33,79 33,91 34,13 slice1,mvc2,uep2 34, ,6 32,92 33,28 33,12 slice1,mvc2,uep3 32,65 32,91 33,2 32,29 32,46 29,51 slice1,mvc2,uep4 33,15 32,3 32,2 31,4 3,87 28,2 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 Page 175 of 214

177 slice75,mvc,eep 35,38 34,93 34,34 33,71 33,22 34,19 slice75,mvc,uep1 35,38 34,81 33,74 33,3 32,34 33,34 slice75,mvc,uep2 31,79 34,36 33,48 32,88 32,21 33,15 slice75,mvc,uep3 29,62 33,96 32,91 32,19 31,94 32 slice75,mvc,uep4 29,84 33,3 32,67 31,81 31,39 31,14 slice75,sim,eep 34,78 34,5 34,24 33,47 33,29 34,12 slice75,vd,eep 33,79 33,66 33,2 32,69 32,59 32,21 slice75,vd,uep1 33,79 33,64 33,19 32,74 32,55 32,2 slice75,vd,uep2 28,15 28,41 27,8 27,51 27,22 29,1 slice75,vd,uep3 33,21 33,58 33,23 32,84 32,58 32 slice75,vd,uep4 33,26 33,5 33,24 32,94 32,8 32,1 slice75,mvc2,eep 34,6 34,51 34,4 33,58 34,12 33,83 slice75,mvc2,uep1 34,6 34,29 33,84 33,5 33,55 33,83 slice75,mvc2,uep2 34,6 34,13 33, ,91 33,22 slice75,mvc2,uep3 32,6 33,29 32,84 32,39 32,7 32,24 slice75,mvc2,uep4 32,84 32,13 32,1 31,72 3,67 28,62 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 35,38 34,87 33, ,42 33,12 slice5,mvc,uep1 35,38 34,66 33,65 32,66 31,74 32,59 slice5,mvc,uep2 32,28 34,18 33,36 32,17 31,5 32,74 slice5,mvc,uep3 32,28 34,12 32,9 31,6 31,28 32,74 slice5,mvc,uep4 3,55 33,47 32,29 31,38 3,38 3,86 slice5,sim,eep 34,78 34,42 33,73 33,9 32,81 33,76 slice5,vd,eep 33,6 33,35 32,7 32,33 32,15 32,7 slice5,vd,uep1 33,6 33,39 32,86 32,35 32,14 32,7 slice5,vd,uep2 28,64 28,55 28,5 27,92 27,68 28,81 slice5,vd,uep3 33,31 33,37 32,93 32,51 32,27 31,97 slice5,vd,uep4 33,31 33,38 32,99 32,64 32,31 31,93 slice5,mvc2,eep 34,61 34,25 33,78 33,17 33,33 33,58 slice5,mvc2,uep1 34,61 34,4 33,75 33,17 33,17 33,46 slice5,mvc2,uep2 34,61 34,4 33,44 32,95 32,16 32,57 slice5,mvc2,uep3 3,95 33,46 32,68 32,3 31,73 32,21 slice5,mvc2,uep4 3,13 32,45 32,29 31,58 3,72 29,96 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 19, # Experiments: noslice,mvc,eep 35,64 35,36 34,96 35,12 noslice,mvc,uep1 35,5 35,25 34,65 35,12 noslice,mvc,uep2 35,37 34,98 34,29 34,72 noslice,mvc,uep3 35,22 34,52 34,3 34,55 noslice,mvc,uep4 34,68 34,28 33,78 34,25 noslice,sim,eep 35,7 34,84 34,51 34,83 noslice,vd,eep 34,3 33,63 33,37 33,4 noslice,vd,uep1 33,99 33,75 33,43 33,22 noslice,vd,uep2 26,58 26,4 25,55 27,9 noslice,vd,uep3 33,96 33,81 33,5 33,45 noslice,vd,uep4 33,95 33,78 33,46 33,48 noslice,mvc2,eep 34,97 34,81 34,53 34,49 noslice,mvc2,uep1 34,7 34,63 34,69 34,49 noslice,mvc2,uep2 34,43 34,19 34,2 34,53 noslice,mvc2,uep3 34,15 33,74 33,38 33,6 noslice,mvc2,uep4 33,31 33,23 33,29 32,83 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 35,68 35,28 34,73 35,19 slice13,mvc,uep1 35,65 35,32 34,6 35,19 slice13,mvc,uep2 35,7 34,67 33,8 34,78 slice13,mvc,uep3 35,1 34,45 33,45 34,62 slice13,mvc,uep4 33,94 33,17 31,94 33,62 slice13,sim,eep 34,75 34,63 34,31 34,44 slice13,vd,eep 33,72 33,63 33,37 33,24 slice13,vd,uep1 33,72 33,63 33,45 33,24 Page 176 of 214

178 slice13,vd,uep2 28,23 27,63 27,5 28,53 slice13,vd,uep3 33,67 33,53 33,48 33,12 slice13,vd,uep4 33,57 33,5 33,48 33,22 slice13,mvc2,eep 34,57 34,41 34,19 34,13 slice13,mvc2,uep1 34,55 34,31 34,5 34,13 slice13,mvc2,uep2 34, ,42 34,13 slice13,mvc2,uep3 33,85 33,16 32,83 32,86 slice13,mvc2,uep4 32,34 32,44 32,28 32,7 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 35,62 35,31 34,88 35,12 slice1,mvc,uep1 35,58 35,31 34,72 35,12 slice1,mvc,uep2 35,31 34,93 34,22 34,65 slice1,mvc,uep3 35,24 34,5 33,72 34,56 slice1,mvc,uep4 34,53 33,85 33,29 34,27 slice1,sim,eep 34,71 34,59 34,19 34,43 slice1,vd,eep 33,85 33,68 33,46 33,45 slice1,vd,uep1 33,87 33,75 33,42 33,45 slice1,vd,uep2 28,32 27,83 27,38 29,11 slice1,vd,uep3 33,83 33,7 33,47 33,44 slice1,vd,uep4 33,53 33,42 33,31 33,8 slice1,mvc2,eep 34,59 34,45 34,37 34,59 slice1,mvc2,uep1 34,54 34,28 34,28 34,59 slice1,mvc2,uep2 34,44 34,4 33,86 34,59 slice1,mvc2,uep3 33,89 33,53 33,55 33,36 slice1,mvc2,uep4 33,8 32,78 32,72 32,2 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 35,27 34,97 34,87 34,73 slice75,mvc,uep1 35,22 34,82 34,2 34,73 slice75,mvc,uep2 35,9 34,54 34,4 34,1 slice75,mvc,uep3 34,74 33,96 33,83 33,78 slice75,mvc,uep4 34,3 33,74 33,44 33,49 slice75,sim,eep 34,73 34,56 34,25 34,73 slice75,vd,eep 33,73 33,58 33,31 33,1 slice75,vd,uep1 33,73 33,57 33,4 33,5 slice75,vd,uep2 28,76 28,38 28,9 29,25 slice75,vd,uep3 33,67 33,56 33,43 32,98 slice75,vd,uep4 33,64 33,55 33,5 32,96 slice75,mvc2,eep 34,6 34,38 34,44 34,52 slice75,mvc2,uep1 34,54 34,27 34,24 34,52 slice75,mvc2,uep2 34,47 34,2 33,84 34,52 slice75,mvc2,uep ,63 33,61 33,52 slice75,mvc2,uep4 33,16 33,17 33,2 32,39 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 35,14 34,7 34,2 34,67 slice5,mvc,uep1 35,5 34,48 33,64 34,67 slice5,mvc,uep2 34,97 34,23 33,49 34,21 slice5,mvc,uep3 34,78 33,95 33,2 34,13 slice5,mvc,uep4 34,5 33,59 32,86 33,88 slice5,sim,eep 34,65 34,27 33,93 34,5 slice5,vd,eep 33,46 33,24 32,95 32,74 slice5,vd,uep1 33,47 33, ,73 slice5,vd,uep2 28,92 28,62 28,29 29,41 slice5,vd,uep3 33,44 33,32 33,3 32,95 slice5,vd,uep4 33,44 33,35 33,9 32,95 slice5,mvc2,eep 34,51 34,3 34,26 34,39 slice5,mvc2,uep1 34,52 34,24 33,94 34,39 slice5,mvc2,uep2 34, ,74 34,39 slice5,mvc2,uep3 34,18 33,58 33,22 33,59 slice5,mvc2,uep4 33,51 33,5 32,74 32,84 slice5,vd2,eep Page 177 of 214

179 slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 Table 3-8 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 38,46 36,31 35,3 35,24 32,52 31,15 noslice,mvc,uep1 37,68 35,86 35,16 34,48 31,39 31,25 noslice,mvc,uep2 37,6 34,6 34,7 34,1 31,31 3,86 noslice,mvc,uep3 36,41 34,36 34,5 33,72 31,14 3,15 noslice,mvc,uep4 34,93 34,6 34,57 32,74 3,84 3 noslice,sim,eep 38,3 34,31 36,43 35,49 33,15 3,39 noslice,vd,eep 39,44 36,79 36,6 35,57 34,36 32,31 noslice,vd,uep1 38,22 36,96 36,21 35,38 34,22 32,9 noslice,vd,uep2 38,6 36,43 36,18 35,65 34,29 31,93 noslice,vd,uep3 38,64 35,81 36,42 35,61 34,54 31,66 noslice,vd,uep ,63 36,48 35,19 34,71 31,46 noslice,mvc2,eep 38,14 35,67 36,65 35,62 34,17 3,85 noslice,mvc2,uep1 38, ,45 34,12 32,62 31,21 noslice,mvc2,uep2 37,3 35,33 34,33 34,9 33,23 31,54 noslice,mvc2,uep3 36,96 34,67 34,33 33,41 32,3 31,89 noslice,mvc2,uep4 35,81 33,81 34,4 32,8 32,65 31,61 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 38,46 35,82 35,69 35,59 32,78 3,67 slice13,mvc,uep1 37,91 35,97 35,23 34,99 31,91 3,72 slice13,mvc,uep2 37,63 35,62 35,22 34,11 32,61 31,6 slice13,mvc,uep3 36,35 34,55 34,81 34,27 33,42 3,99 slice13,mvc,uep4 35,81 34,24 34,64 32,89 33,23 3,98 slice13,sim,eep 38,21 35,79 36,79 36,2 33,53 31,36 slice13,vd,eep 39,4 36,81 36,81 36,53 34,7 32,73 slice13,vd,uep1 38,84 36,74 37,36 36,36 33,98 33,3 slice13,vd,uep2 38,73 36,62 37,5 36,52 33,9 33,2 slice13,vd,uep3 38,38 36,94 37,61 36,39 34,8 32,29 slice13,vd,uep4 38,53 37,14 37,75 36,8 34,13 32,93 slice13,mvc2,eep 38,72 35,85 36,88 36,37 35,6 32,77 slice13,mvc2,uep1 37,58 35,78 36,5 35,37 35,23 33,19 slice13,mvc2,uep2 36,73 35,61 35,84 34,42 33,96 31,99 slice13,mvc2,uep3 35,88 34,6 34,72 33,2 31,94 32,16 slice13,mvc2,uep4 33,84 34,15 34,34 32,17 32,52 3,76 slice13,vd2,eep 39,4 36,81 36,81 36,53 34,7 32,73 slice13,vd2,uep1 38,84 36,74 37,36 36,36 33,98 33,3 slice13,vd2,uep2 38,73 36,62 37,52 36,5 33,17 33,2 slice13,vd2,uep3 38,38 36,94 37,61 36,39 34,8 32,29 slice13,vd2,uep4 38,53 37,14 37,75 36,8 34,13 32,93 slice1,mvc,eep 38,5 36,74 37,4 36,67 34,9 32,71 slice1,mvc,uep1 37,67 36,27 36,94 36,8 33,99 32,24 slice1,mvc,uep2 37,64 35,79 36,63 35,83 34,6 32,16 slice1,mvc,uep3 36,46 35,66 36,75 36,11 34,35 32,15 slice1,mvc,uep4 36,11 35,39 36,5 34,97 34,1 32,44 slice1,sim,eep 4,23 37,66 37,41 37,75 35,62 32,76 slice1,vd,eep 39,69 36,89 37,17 37,23 34,67 32,8 slice1,vd,uep1 39,64 37,33 37,59 37,7 34,85 33,39 slice1,vd,uep2 39,44 36,99 37,78 36,91 34,85 33,51 slice1,vd,uep3 39,23 37, ,53 34,42 33,17 slice1,vd,uep4 38,72 37,7 38,15 37,11 34,83 33,57 slice1,mvc2,eep 38,55 36,43 36,43 36,63 36,35 33,75 slice1,mvc2,uep1 37,53 36,32 35,67 35,71 35,78 33,53 slice1,mvc2,uep2 36,67 35,5 36, ,3 32,89 slice1,mvc2,uep3 35,57 34,54 35,54 33,97 34,18 32,63 slice1,mvc2,uep4 34,3 34,1 35,31 33,45 32,72 32,37 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 Page 178 of 214

180 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 39,6 37,85 38,35 37,59 34,92 33,29 slice75,mvc,uep1 38,64 36,95 37,93 36,81 35,12 33,3 slice75,mvc,uep2 38,57 37,22 37,27 36,65 36,6 32,77 slice75,mvc,uep3 37,44 37,1 37,61 36,14 35,86 32,66 slice75,mvc,uep4 35,67 36,81 37,2 34,9 35,36 32,89 slice75,sim,eep 38,87 36,71 36,7 36,91 35,3 33,2 slice75,vd,eep 38,63 37,5 38,5 37,1 34,65 33,74 slice75,vd,uep1 39,31 37,14 38,38 37,2 34,69 33,54 slice75,vd,uep2 39,12 37,29 38,52 37,1 35,5 33,9 slice75,vd,uep3 38,89 37,24 38,25 36,87 35,14 33,43 slice75,vd,uep4 38,31 37,21 38,45 36,62 35,43 33,57 slice75,mvc2,eep 37,7 36,75 37,81 37,14 36,45 33,94 slice75,mvc2,uep1 37,54 37,2 36,81 36,9 35,65 33,41 slice75,mvc2,uep2 36,41 35,96 36,61 36,4 34,88 33,67 slice75,mvc2,uep3 36,67 35,12 36,43 34,89 34,44 33,38 slice75,mvc2,uep4 35,4 34,49 36,35 33,75 34,4 32,82 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 38,6 36,14 35,92 36,44 34,45 32,32 slice5,mvc,uep1 38,67 36,69 35,92 35,95 34,17 31,78 slice5,mvc,uep2 38,12 36,94 36,65 35,74 33,43 31,86 slice5,mvc,uep3 37,75 37,2 36,57 35,86 33,6 32,1 slice5,mvc,uep4 37,7 36,51 36,77 35,51 33,36 31,9 slice5,sim,eep 37,82 35,94 35,63 36,6 33,58 32,49 slice5,vd,eep 39,87 36,73 36,6 36,7 34,91 32,83 slice5,vd,uep1 39,87 37,12 36,99 36,87 34,55 33,15 slice5,vd,uep2 39,79 37,65 37,37 36,97 34,6 32,91 slice5,vd,uep3 39,79 37,72 37,61 36,96 34,54 33,13 slice5,vd,uep4 39,72 37,8 37, ,4 32,89 slice5,mvc2,eep 38,66 37,27 37,82 37,52 35,5 34,34 slice5,mvc2,uep1 38,21 37,32 37,31 37,4 35,35 33,55 slice5,mvc2,uep2 37,92 37,24 36,99 36,62 35,53 33,76 slice5,mvc2,uep3 37,52 36,9 37,3 35,91 35,57 33,42 slice5,mvc2,uep4 36,5 36,86 37,4 35,18 34,86 33,35 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 18, # Experiments: noslice,mvc,eep 35, ,5 37,8 39,9 37,9 noslice,mvc,uep1 35,41 39,71 38,5 36,95 38,84 36,59 noslice,mvc,uep2 35,41 39,1 37,5 36,94 38,25 37,3 noslice,mvc,uep3 35,97 38,42 37,5 35,93 37,47 36,86 noslice,mvc,uep4 35,97 38,17 36,74 35,75 37,27 36,81 noslice,sim,eep 35,42 4,63 38,16 37,38 36,22 34,87 noslice,vd,eep 35,92 39,6 39,17 38,58 38,14 35,91 noslice,vd,uep1 35,92 39,6 38,96 38,23 38,22 35,91 noslice,vd,uep2 35,92 39,17 38,43 37,93 37,56 36,28 noslice,vd,uep3 35,92 39,15 38,37 37,91 37,1 36,28 noslice,vd,uep4 38,53 38,82 38,56 37,88 37,87 37 noslice,mvc2,eep 35,45 41,33 38,61 38,6 37,2 37,8 noslice,mvc2,uep1 34,9 4,39 38,6 37,36 37,91 36,44 noslice,mvc2,uep2 35,46 39,2 36,83 36,2 37,71 37,6 noslice,mvc2,uep3 35,46 38,14 36,62 35,89 37,53 36,81 noslice,mvc2,uep4 35,46 37,61 36,49 35,57 36,65 36,97 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 35,49 4,64 38,58 37,62 39,58 36,2 slice13,mvc,uep1 35,49 4,15 38,8 37,9 38,71 35,6 slice13,mvc,uep2 35,49 39,17 37,74 36,97 38,9 36,63 slice13,mvc,uep3 35,96 38,56 37,19 36,58 37,85 37,3 slice13,mvc,uep4 35,96 38,16 37,2 35,96 37,38 36,81 slice13,sim,eep 35,31 4,71 38,79 37,78 37,39 37,66 Page 179 of 214

181 slice13,vd,eep 35,93 4,18 39,36 38,7 37,53 34,55 slice13,vd,uep1 35,93 4,9 39,19 38,61 37,68 34,55 slice13,vd,uep2 35,93 4,36 39,24 38,34 37,83 36,96 slice13,vd,uep3 35,93 4,34 38,85 38,29 37,54 36,58 slice13,vd,uep4 38,45 39,77 39,2 38,7 38,5 36,95 slice13,mvc2,eep 35,17 41,7 38,64 38,56 4,34 37,87 slice13,mvc2,uep1 35,17 4,31 37,97 38,16 4,35 37,68 slice13,mvc2,uep2 35,17 38,58 37,34 37,1 39,71 36,27 slice13,mvc2,uep3 35,17 37,28 36,73 36,45 37,89 36,61 slice13,mvc2,uep4 35,17 36,96 35, ,19 36,61 slice13,vd2,eep 35,93 4,18 39,36 38,7 37,53 34,55 slice13,vd2,uep1 35,93 4,9 39,19 38,61 37,68 34,55 slice13,vd2,uep2 35,93 4,36 39,24 38,34 37,83 36,96 slice13,vd2,uep3 35,93 4,34 38,85 38,29 37,54 36,58 slice13,vd2,uep4 38,45 39,77 39,2 38,7 38,5 36,95 slice1,mvc,eep 35,48 41,46 39,38 38,95 38,91 36,96 slice1,mvc,uep1 35,48 4,86 39,46 38,13 38,87 35,93 slice1,mvc,uep2 35,48 39,43 39,1 37,95 38,88 35,66 slice1,mvc,uep3 35,98 39,37 38,94 37,79 38,29 36,7 slice1,mvc,uep4 35,98 38,51 38,41 36,9 38,1 35,86 slice1,sim,eep 4,91 4, ,97 36,92 slice1,vd,eep 36,1 4,64 39,94 38,43 37,95 37 slice1,vd,uep1 36,14 4, ,57 37,68 36,81 slice1,vd,uep2 36,1 39,58 39,8 38,33 38,12 36,81 slice1,vd,uep3 36,1 4,14 39,71 38,39 38,6 37,49 slice1,vd,uep4 41,31 4,4 39,6 38,39 38,4 37,49 slice1,mvc2,eep 35,17 41,6 38,76 38,65 4,4 38,5 slice1,mvc2,uep1 35,17 4,31 38,18 37,71 4,15 37,67 slice1,mvc2,uep2 35,17 38,67 37,78 37,39 39,5 36,27 slice1,mvc2,uep3 35,17 37,27 37,24 36,6 38,25 36,26 slice1,mvc2,uep4 35,17 36,89 36,67 35,83 37,91 36,26 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 36,4 41,53 4,3 39,4 39,92 37,7 slice75,mvc,uep1 36,4 41,41 39,84 39,47 39,9 36,45 slice75,mvc,uep2 41,56 41,24 39,6 39,5 39,8 36,47 slice75,mvc,uep3 41,56 41,9 39,45 38,25 38,9 36,87 slice75,mvc,uep4 41,56 4,32 38,86 37,27 38,1 36,72 slice75,sim,eep 4,92 4,36 39,91 38,7 38,7 36,89 slice75,vd,eep 36,28 4,54 39,7 38,89 38,31 36,27 slice75,vd,uep1 36,5 4,51 39,58 38,84 38,31 36,27 slice75,vd,uep2 38,39 4,51 39,47 38,73 38,4 36,61 slice75,vd,uep3 38,31 4,15 39,51 38,83 38,11 36,89 slice75,vd,uep4 38,31 4,6 39,48 38,62 38,51 36,83 slice75,mvc2,eep 35,17 4,67 39,23 39,46 4,39 37,8 slice75,mvc2,uep1 35,17 4,63 39,9 38,83 4,14 37,72 slice75,mvc2,uep2 35,17 39,28 38,5 38,1 39,44 36,51 slice75,mvc2,uep3 35,17 38,5 38,21 37,36 38,39 36,6 slice75,mvc2,uep4 35,17 37,25 37,43 36,86 38,28 36,19 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 36,32 41,6 39,12 38,51 37,4 35,27 slice5,mvc,uep1 36,32 4,89 39,8 38,16 37,61 35,27 slice5,mvc,uep2 36,32 4,57 39,6 37,84 38,16 35,27 slice5,mvc,uep3 36,32 4,73 39,17 37,71 37,51 35,27 slice5,mvc,uep4 36,32 4,5 39,1 37,35 37,87 35,56 slice5,sim,eep 35,88 4,2 38,95 37,54 36,95 35,64 slice5,vd,eep 39,16 4,31 39,22 38,35 37,33 36,27 slice5,vd,uep1 39,16 4,31 39,22 38,46 37,34 36,27 slice5,vd,uep2 39,16 4,33 39,3 38,35 37,67 36,27 slice5,vd,uep3 39,16 4,35 39,33 38,4 37,6 36,27 slice5,vd,uep4 39,16 4,4 39,34 38,29 37,74 36,16 slice5,mvc2,eep 35,27 4,54 39,54 39,2 39,11 37,26 slice5,mvc2,uep1 34,98 4,8 39,22 38,73 38,98 36,33 slice5,mvc2,uep2 35,58 4,29 38,73 38,49 38,94 36,55 slice5,mvc2,uep3 4,53 39,99 38,62 37,61 38,14 36,4 Page 18 of 214

182 slice5,mvc2,uep4 4,53 39,65 38,2 36,96 37,45 36,12 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 19, # Experiments: noslice,mvc,eep 41,76 4,76 41,85 4,11 noslice,mvc,uep1 41,66 4,5 41,21 39,92 noslice,mvc,uep2 4,73 39,34 41,18 39,76 noslice,mvc,uep3 4,87 38,88 4,75 38,54 noslice,mvc,uep4 39,92 38,32 4,71 37,73 noslice,sim,eep 41,53 4,53 39,89 38,21 noslice,vd,eep 41,14 4,11 4,61 39,29 noslice,vd,uep1 41,12 39,93 4,47 39,29 noslice,vd,uep2 4,88 39,86 4,62 39,29 noslice,vd,uep3 4,78 39,58 4,67 39,29 noslice,vd,uep4 4,52 39,52 4,49 4,23 noslice,mvc2,eep 41,72 4,28 4,13 4,6 noslice,mvc2,uep1 41,2 39,69 4,68 39,72 noslice,mvc2,uep2 4,9 39,32 4,57 39,36 noslice,mvc2,uep3 39,8 38,13 4,52 37,9 noslice,mvc2,uep4 39,3 37,92 39,79 36,27 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 41,73 4,72 41,52 4,25 slice13,mvc,uep1 41,73 4,1 41,8 4,13 slice13,mvc,uep2 41,3 39,43 41,24 39,81 slice13,mvc,uep3 4,9 39,23 4,67 39,8 slice13,mvc,uep4 39,95 38,62 4,86 37,92 slice13,sim,eep 41,25 4,46 39,95 37,94 slice13,vd,eep 41,16 4,57 4,48 39,82 slice13,vd,uep1 41,9 4,31 4,59 39,29 slice13,vd,uep2 4,94 4,1 4,46 39,31 slice13,vd,uep3 4,57 39,98 4,51 39,27 slice13,vd,uep4 4,52 39,89 4,22 4,25 slice13,mvc2,eep 41,5 4,93 41,58 4 slice13,mvc2,uep1 4,79 4,62 41,64 4,91 slice13,mvc2,uep2 4,5 39,75 4,88 39,67 slice13,mvc2,uep3 4,7 38,32 4,1 38 slice13,mvc2,uep4 39,33 37,67 39,4 38,3 slice13,vd2,eep 41,16 4,57 4,48 39,82 slice13,vd2,uep1 41,9 4,31 4,59 39,29 slice13,vd2,uep2 4,94 4,1 4,46 39,31 slice13,vd2,uep3 4,57 39,98 4,51 39,27 slice13,vd2,uep4 4,52 39,89 4,22 4,25 slice1,mvc,eep 41,75 41,42 41,68 4,27 slice1,mvc,uep1 41,62 4,92 41,47 39,99 slice1,mvc,uep2 41,3 4,43 41,51 39,78 slice1,mvc,uep3 4,62 4,43 41,53 39,79 slice1,mvc,uep4 4,4 39,92 4,9 37,83 slice1,sim,eep 41,98 41,8 41,19 37,93 slice1,vd,eep 41,22 4,5 4,36 39,34 slice1,vd,uep1 41,21 4,56 4,36 39,31 slice1,vd,uep2 41,14 4,54 4,38 38,56 slice1,vd,uep3 4,84 4,39 4,19 37,8 slice1,vd,uep4 4,74 4,25 4,33 38,27 slice1,mvc2,eep 41,25 4,98 41,64 39,99 slice1,mvc2,uep1 4,96 4,78 41,14 39,89 slice1,mvc2,uep2 4,73 39,45 4,87 39,81 slice1,mvc2,uep3 4,11 38,6 4,52 38,37 slice1,mvc2,uep4 39,31 38,4 39,36 37,68 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 41,92 41,5 41,88 39,9 slice75,mvc,uep1 41,83 41,3 41,59 39,69 Page 181 of 214

183 slice75,mvc,uep2 41,73 41,2 41,71 39,58 slice75,mvc,uep3 41,58 4,83 41,54 39,14 slice75,mvc,uep4 41,3 4,25 4,97 37,24 slice75,sim,eep 41,5 4,78 4,75 37,94 slice75,vd,eep 41,9 4,58 4,46 39,44 slice75,vd,uep1 41,13 4,53 4,6 39,44 slice75,vd,uep2 41,5 4,45 4,56 39,4 slice75,vd,uep3 4,71 4,22 4,32 39,1 slice75,vd,uep4 4,69 4,25 4,25 39,95 slice75,mvc2,eep 4,81 4,89 41,48 39,87 slice75,mvc2,uep1 4,57 4,74 41,48 39,87 slice75,mvc2,uep2 4,54 4,26 41,1 39,28 slice75,mvc2,uep3 39,91 39,66 4,89 38,5 slice75,mvc2,uep4 39,74 39,27 39,83 38,46 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 41,99 4,68 4,81 39,39 slice5,mvc,uep1 41,85 4,5 4,88 39,63 slice5,mvc,uep2 41,76 4,45 4,9 38 slice5,mvc,uep3 41,37 4,14 4,48 38 slice5,mvc,uep4 41,32 39,99 4,1 37,92 slice5,sim,eep 41,8 4 4,4 37,34 slice5,vd,eep 4,9 4,6 39,81 39,1 slice5,vd,uep1 4,89 4,21 39,92 39,1 slice5,vd,uep2 4,93 4,11 4,11 38,22 slice5,vd,uep3 4,88 4,13 39,98 38,22 slice5,vd,uep4 4,92 4,1 4,4 38,22 slice5,mvc2,eep 41,36 4,55 4,98 39,2 slice5,mvc2,uep1 4,98 4,42 4,92 38,93 slice5,mvc2,uep2 4,68 4,33 4,68 38,75 slice5,mvc2,uep3 4,62 39,99 4,6 37,45 slice5,mvc2,uep4 4,49 39,39 39,71 36,29 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 Table 3-9 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 45,41 43,68 41,9 4,43 37,99 38,58 noslice,mvc,uep1 45,38 43,16 41,27 39,63 38,7 36,64 noslice,mvc,uep2 46,8 42,42 4,13 38,63 38,4 35,35 noslice,mvc,uep3 45,9 41,12 39,5 37,99 36,64 34,22 noslice,mvc,uep4 43,83 39,57 37,96 37,29 35,74 33,2 noslice,sim,eep 43,1 42,73 42,13 4,18 37,36 36,93 noslice,vd,eep 43,8 41,32 4,37 39,16 37,47 37,8 noslice,vd,uep1 44,1 41,9 41,14 39,27 36,91 36,59 noslice,vd,uep2 43,82 41,9 4,8 39,2 37,83 36,65 noslice,vd,uep3 43,59 42,9 4,3 38,79 38,38 36,65 noslice,vd,uep4 42,74 41,92 4,29 38,63 37,87 37,7 noslice,mvc2,eep 43,1 43,68 43,19 41,37 4,21 38,51 noslice,mvc2,uep1 45,25 44,35 42,8 4,53 4,36 38,2 noslice,mvc2,uep2 45,59 42,97 41,3 4,11 38,83 36,72 noslice,mvc2,uep3 44,61 41,38 38,9 37,84 37,7 33,67 noslice,mvc2,uep4 42,98 39,36 37,52 37,24 35,88 33,3 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 43,51 44,8 42,79 41,12 39,11 39,58 slice13,mvc,uep1 43,76 44,5 41,92 4,43 39,46 36,92 Page 182 of 214

184 slice13,mvc,uep2 45,91 42,39 4,73 39,9 39,13 36,13 slice13,mvc,uep3 44,83 41,1 39,14 38, ,46 slice13,mvc,uep4 43,47 39,46 38,32 37,54 35,68 34,53 slice13,sim,eep 42,86 43,88 42,5 4,74 38,2 38,28 slice13,vd,eep 42,62 42,18 41,43 4,27 37,77 37,97 slice13,vd,uep1 42,62 43,13 41,68 39,87 38,8 38,11 slice13,vd,uep2 44,66 42,56 4,72 39,69 38,75 36,72 slice13,vd,uep3 43,72 41,68 4,5 4,1 38,33 37,11 slice13,vd,uep4 43,24 41,84 4,38 39,33 38,36 37,72 slice13,mvc2,eep 42,95 44,85 43,25 41,98 41,18 4,5 slice13,mvc2,uep1 45,14 44,58 42,82 41,34 41,35 39,67 slice13,mvc2,uep2 43,24 43,21 41,66 4,91 4,1 37,5 slice13,mvc2,uep3 44,82 42,7 39,57 39,21 38,89 34,77 slice13,mvc2,uep4 42,7 39,89 37,96 37,32 37,1 34,53 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 43,52 44,33 42,45 41,3 39,18 39,48 slice1,mvc,uep1 45,92 44,3 41,52 4,2 39,8 37,21 slice1,mvc,uep2 45,89 43,36 4,83 39,52 38,47 37,23 slice1,mvc,uep3 44,96 42,38 4,21 39,27 37,65 35,19 slice1,mvc,uep4 43,81 41,43 39,25 38,23 37,36 36,4 slice1,sim,eep 42,91 43,63 42,27 4,93 38,97 39 slice1,vd,eep 43,83 42,69 41,77 4,45 38,57 38,71 slice1,vd,uep1 43,83 43,7 41,92 4,5 38,84 37,93 slice1,vd,uep2 44,68 42,75 41,7 4,22 39,8 37,4 slice1,vd,uep3 43,82 42,32 4,93 4,28 39,2 37,55 slice1,vd,uep4 43,28 42,28 4,72 39,99 39,1 37,45 slice1,mvc2,eep 42,98 44,85 43,36 41,77 41,22 4,59 slice1,mvc2,uep1 45,16 44,64 42,28 41,77 4,96 4,84 slice1,mvc2,uep2 45,35 43,71 41,3 4,8 4,4 36,94 slice1,mvc2,uep ,28 4,5 39,63 38,72 36,2 slice1,mvc2,uep4 42,96 4,38 38,74 37,66 38,26 34,99 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 44,94 44,23 42,18 4,98 39,53 38,69 slice75,mvc,uep1 45,13 44,35 41,74 39,8 39,87 36,3 slice75,mvc,uep2 45,9 42,94 4,85 39,53 38,35 36,1 slice75,mvc,uep3 44,68 42,4 39,98 39,21 37,61 35,73 slice75,mvc,uep4 43,7 41,5 39,7 38,3 37,6 35,42 slice75,sim,eep 44,11 43,55 42,41 41,31 39,9 39,52 slice75,vd,eep 43,7 42,75 41,68 4,66 38,46 37,77 slice75,vd,uep1 43,71 42,73 41,76 4,69 39,38 38,18 slice75,vd,uep2 44,55 42,34 41,23 4,36 39,49 38,7 slice75,vd,uep3 44,1 42,2 4,72 4,55 39,2 38,8 slice75,vd,uep4 43,77 41,99 4,73 4,32 39,5 38,36 slice75,mvc2,eep 44,32 44,49 43,23 41,68 41,23 39,99 slice75,mvc2,uep1 45,18 44,24 42,47 41,33 41,12 4,8 slice75,mvc2,uep2 45,38 43,6 41,85 4,62 4,18 38,2 slice75,mvc2,uep3 45,6 42,76 4,61 39,35 38,87 36,64 slice75,mvc2,uep4 42,66 41,14 38,79 38,36 37,53 35,53 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 44,86 41,94 4,91 39,62 38,26 35,99 slice5,mvc,uep1 44,84 42,47 4,77 39,44 37,76 35,26 slice5,mvc,uep2 44,83 41,93 4,1 39,11 38,13 34,33 slice5,mvc,uep3 44,4 41,23 39,66 38,18 37,47 35,14 slice5,mvc,uep4 42,31 4,69 39,7 37,62 36,65 35,5 slice5,sim,eep 43,92 42,41 41,5 4,1 38,92 38,13 slice5,vd,eep 43,69 4,49 39,78 38,67 37,2 35,79 slice5,vd,uep1 43,69 4,38 39,97 38,89 37,1 35,51 slice5,vd,uep2 43,56 41,8 4,6 38,88 36,93 35,73 slice5,vd,uep3 42,61 41,21 4,12 38,61 37,74 35,98 slice5,vd,uep4 42,6 41,31 4,22 38,39 38,1 36,84 Page 183 of 214

185 slice5,mvc2,eep 43,93 43,52 42,5 41,22 39,56 39,58 slice5,mvc2,uep1 44,4 43,7 42,19 4,94 4,44 39,9 slice5,mvc2,uep2 45,5 42,73 4,97 39,82 39,63 37,1 slice5,mvc2,uep3 44,22 42,3 4,14 38,89 38,51 36,66 slice5,mvc2,uep4 42,35 4,99 39,25 37,7 37,68 35,37 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 18, # Experiments: noslice,mvc,eep 46,13 44,55 43,67 42,6 noslice,mvc,uep1 46,15 44, ,69 noslice,mvc,uep2 45,49 43,8 42,35 41,18 noslice,mvc,uep3 44,12 42,9 4,93 39,82 noslice,mvc,uep4 43,38 41,7 4,2 39,37 noslice,sim,eep 45,96 44,52 43,48 43,1 noslice,vd,eep 44,55 43,15 41,82 41,25 noslice,vd,uep1 44,61 43,23 42,8 41,7 noslice,vd,uep2 44,52 43,8 41,82 41,3 noslice,vd,uep3 44,28 42,66 41,87 4,73 noslice,vd,uep4 43,66 42,2 41,53 4,92 noslice,mvc2,eep 45,92 44,84 44,34 43,51 noslice,mvc2,uep1 45,71 44,65 44,9 43,53 noslice,mvc2,uep2 45,65 43,95 42,77 41,43 noslice,mvc2,uep3 44,38 42,25 4,86 39,1 noslice,mvc2,uep4 42,57 4,68 39,52 38,56 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 46,13 44,75 44,12 43,27 slice13,mvc,uep1 45,94 44,68 43,53 42,25 slice13,mvc,uep2 45,94 43,89 42,54 4,51 slice13,mvc,uep3 44,54 41,78 41,43 39,87 slice13,mvc,uep4 43,14 41,12 4,34 38,58 slice13,sim,eep 45,66 44,44 43,55 42,73 slice13,vd,eep 44,54 43,26 42,65 42,8 slice13,vd,uep1 44,32 43,21 42,58 42,24 slice13,vd,uep2 44,34 43,21 42,35 41,97 slice13,vd,uep3 44,13 42,71 42,11 41,5 slice13,vd,uep4 43,72 42,13 41,67 4,63 slice13,mvc2,eep 45,82 44,73 44,51 44,27 slice13,mvc2,uep1 45,61 44,55 44,33 43,4 slice13,mvc2,uep2 45,42 44,1 43,27 42,6 slice13,mvc2,uep3 44,6 42,33 41,32 4,12 slice13,mvc2,uep4 42,34 4,18 4,35 38,77 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 45,92 44,83 43,98 43,31 slice1,mvc,uep1 45,95 44,58 43,45 42,73 slice1,mvc,uep2 45,97 44,8 42,93 42,21 slice1,mvc,uep3 44,85 42,64 41,96 4,3 slice1,mvc,uep4 44,32 41,95 41,45 39,7 slice1,sim,eep 45,67 44,49 43,63 42,86 slice1,vd,eep 44,56 43,53 42,92 42,15 slice1,vd,uep1 44,57 43,56 42,89 42,18 slice1,vd,uep2 44,54 43,41 42,58 42,28 slice1,vd,uep3 44,29 42,93 42,4 42,6 slice1,vd,uep4 43,8 42,4 42,1 4,95 slice1,mvc2,eep 45,82 44,54 44,62 44,16 slice1,mvc2,uep1 45,53 44,45 44,46 43,76 slice1,mvc2,uep2 45,34 43,95 43,7 42,48 slice1,mvc2,uep3 44,51 42,7 41,7 4,47 slice1,mvc2,uep4 43,2 4,86 4,86 4,5 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 Page 184 of 214

186 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 45,94 44,75 43,87 42,94 slice75,mvc,uep1 45,94 44,5 43,1 42,62 slice75,mvc,uep2 45,68 43,96 42,77 41,3 slice75,mvc,uep3 45,11 42,71 41,81 4,25 slice75,mvc,uep4 44,13 42,19 41,3 39,22 slice75,sim,eep 45,6 44,65 43,87 42,93 slice75,vd,eep 44,35 43,48 43,2 42,8 slice75,vd,uep1 44,37 43,4 43,7 42,49 slice75,vd,uep2 44,31 43,29 43,1 42,1 slice75,vd,uep3 44,7 42,98 42,56 41,95 slice75,vd,uep4 43,8 42,62 42,38 41,39 slice75,mvc2,eep 45,69 44,7 44,49 43,92 slice75,mvc2,uep1 45,42 44,68 44,8 43,48 slice75,mvc2,uep2 45,42 44,19 43,45 42,66 slice75,mvc2,uep3 44,59 42,75 42,26 4,31 slice75,mvc2,uep4 43,54 41,15 41,26 39,66 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 45,65 44,21 43,12 42,21 slice5,mvc,uep1 45,74 43,72 42,94 41,5 slice5,mvc,uep2 45,37 43,24 42,27 4,84 slice5,mvc,uep3 44,84 42,72 41,83 39,89 slice5,mvc,uep4 43,95 42,3 41,28 39,38 slice5,sim,eep 45,2 43,99 42,69 42,1 slice5,vd,eep 44,19 42,5 41,49 39,89 slice5,vd,uep1 44,18 42,5 41,49 4,42 slice5,vd,uep2 43,98 42,55 41,54 4,5 slice5,vd,uep3 43,74 42,34 41,42 39,87 slice5,vd,uep4 43,61 42,37 41,71 4,15 slice5,mvc2,eep 45,37 44,55 43,72 42,87 slice5,mvc2,uep1 45,1 44,37 43,44 43,2 slice5,mvc2,uep2 45,13 43,8 42,99 41,39 slice5,mvc2,uep3 44,38 42, ,54 slice5,mvc2,uep4 43,36 41,75 4,84 38,96 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 SNR = 19, # Experiments: noslice,mvc,eep 46, ,7 44,7 noslice,mvc,uep1 46,52 45,69 46,19 44,7 noslice,mvc,uep2 46,46 44,59 44,82 44,7 noslice,mvc,uep3 45,87 43,73 43,9 41,68 noslice,mvc,uep4 44,85 42,83 43,77 41,73 noslice,sim,eep 46,9 45,51 45,33 43,82 noslice,vd,eep 44,97 44,37 43,87 42,87 noslice,vd,uep1 45,11 44,24 44,58 42,87 noslice,vd,uep ,3 43,65 42,87 noslice,vd,uep3 44,7 43,59 43,7 41,56 noslice,vd,uep4 44,32 43,18 43,6 41,41 noslice,mvc2,eep 46,6 45,83 45,76 43,48 noslice,mvc2,uep1 46,6 45,39 45,58 43,48 noslice,mvc2,uep2 45,84 44,61 45,31 43,48 noslice,mvc2,uep3 45,46 43,34 43,84 43,13 noslice,mvc2,uep4 44,28 42,38 42,8 43,8 noslice,vd2,eep noslice,vd2,uep1 noslice,vd2,uep2 noslice,vd2,uep3 noslice,vd2,uep4 slice13,mvc,eep 46,4 45,82 45,81 43,73 slice13,mvc,uep1 46,3 45,5 45,96 43,73 slice13,mvc,uep2 46,17 44,71 45,46 43,73 slice13,mvc,uep3 45,58 43,69 43,84 42,3 slice13,mvc,uep4 44,54 42,76 43,14 41,46 slice13,sim,eep 45,79 45,36 45,38 45,79 Page 185 of 214

187 slice13,vd,eep 44,85 44,25 44,35 42,58 slice13,vd,uep1 44,79 44,12 44,55 42,58 slice13,vd,uep2 44,65 43,73 44,11 42,58 slice13,vd,uep3 44,55 43,44 43,64 41,92 slice13,vd,uep4 44,29 43,17 43,43 41,6 slice13,mvc2,eep 45,82 45,54 45,62 45,82 slice13,mvc2,uep1 45,82 45,4 45,44 45,82 slice13,mvc2,uep2 45,65 44,9 45,34 45,82 slice13,mvc2,uep3 45,1 43,38 43,46 44,63 slice13,mvc2,uep4 43,75 42,27 42,96 42,18 slice13,vd2,eep slice13,vd2,uep1 slice13,vd2,uep2 slice13,vd2,uep3 slice13,vd2,uep4 slice1,mvc,eep 46,39 45,84 45,8 43,81 slice1,mvc,uep1 46,29 45,57 45,94 43,81 slice1,mvc,uep2 46,17 44,93 45,26 43,81 slice1,mvc,uep3 45,81 43,95 44,23 43,7 slice1,mvc,uep4 45, ,58 44,24 slice1,sim,eep 45,79 45, ,56 slice1,vd,eep 44,88 44,41 44,37 42,59 slice1,vd,uep1 44,81 44,31 44,47 42,59 slice1,vd,uep2 44,74 44,6 44,32 42,59 slice1,vd,uep3 44,6 43,63 43,75 42,7 slice1,vd,uep4 44,31 43,36 43,62 41,75 slice1,mvc2,eep 45,82 45,58 45,72 43,27 slice1,mvc2,uep1 45,82 45,38 45,57 43,27 slice1,mvc2,uep2 45,65 44,74 45,26 43,27 slice1,mvc2,uep3 45,3 43,78 44,37 44,64 slice1,mvc2,uep4 44,25 42,77 43,1 42,95 slice1,vd2,eep slice1,vd2,uep1 slice1,vd2,uep2 slice1,vd2,uep3 slice1,vd2,uep4 slice75,mvc,eep 46,4 45,75 45,76 43,86 slice75,mvc,uep1 46,23 45,54 45,66 43,86 slice75,mvc,uep2 46,18 44,72 45,33 43,86 slice75,mvc,uep3 45,86 44,7 44,18 43,48 slice75,mvc,uep4 45,5 43,39 43,47 42,1 slice75,sim,eep 45,79 45,37 44,8 43,56 slice75,vd,eep 44,71 44,37 44,21 42,37 slice75,vd,uep1 44,58 44,26 44,32 42,37 slice75,vd,uep2 44,56 44,1 44,2 42,37 slice75,vd,uep3 44,4 43,7 43,62 41,96 slice75,vd,uep4 44,18 43,47 43,58 41,57 slice75,mvc2,eep 45,83 45,58 45,4 43,22 slice75,mvc2,uep1 45,83 45,38 45,45 43,22 slice75,mvc2,uep2 45,66 44,82 45,28 43,22 slice75,mvc2,uep3 45,39 43,83 44,19 42,17 slice75,mvc2,uep4 44,47 42,74 43,7 43,35 slice75,vd2,eep slice75,vd2,uep1 slice75,vd2,uep2 slice75,vd2,uep3 slice75,vd2,uep4 slice5,mvc,eep 46,5 45,32 44,88 44,89 slice5,mvc,uep1 45,75 45,13 45,24 44,89 slice5,mvc,uep2 45,93 44,61 44,65 44,8 slice5,mvc,uep3 45,66 44,14 43,75 44,6 slice5,mvc,uep4 44,89 43,49 43,4 43,83 slice5,sim,eep 45,46 44,82 44,4 44,51 slice5,vd,eep 44,41 43,66 43,51 42,21 slice5,vd,uep1 44,5 43,65 43,4 43,15 slice5,vd,uep2 44,42 43,53 43,59 42,71 slice5,vd,uep3 44,27 43,49 43,47 42,9 slice5,vd,uep4 44,12 43,34 43,46 42,9 slice5,mvc2,eep 45,45 45,23 44,99 44,49 slice5,mvc2,uep1 45,49 45,3 45,4 44,49 slice5,mvc2,uep2 45,31 44,47 44,37 44,49 slice5,mvc2,uep3 45,15 43,9 43,64 44,49 Page 186 of 214

188 slice5,mvc2,uep4 44,16 42,83 42,76 43,44 slice5,vd2,eep slice5,vd2,uep1 slice5,vd2,uep2 slice5,vd2,uep3 slice5,vd2,uep4 Table 3-1 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 29,3 26,35 25,89 25,59 22,7 22,8 noslice,mvc,uep1 26,11 25,91 26,1 24, ,35 noslice,mvc,uep2 26,9 25,72 25,93 24,87 22,13 22,4 noslice,mvc,uep3 26,7 25,17 25,63 24,5 22,54 22,42 noslice,mvc,uep4 25,84 24,61 25,49 24,47 22,38 22,47 noslice,sim,eep 27,8 26,72 26,5 25,88 23,88 21,61 noslice,vd,eep 35,26 33,78 32,85 3,74 29,45 28,45 noslice,vd,uep1 35,26 33,78 32,85 3,74 29,45 28,45 noslice,vd,uep2 35,24 33,74 32,91 31,15 29,47 28,6 noslice,vd,uep3 35,24 33,74 32,91 31,15 29,47 28,6 noslice,vd,uep4 35,5 33,95 32,85 31,57 29,56 28,86 noslice,mvc2,eep 27,22 27,88 27,73 26,64 24,3 22,47 noslice,mvc2,uep1 26,75 27,67 28,7 26,35 23,89 22,41 noslice,mvc2,uep2 26,53 25,9 26,55 25,76 22,94 22,5 noslice,mvc2,uep3 26,8 25,73 26,47 25,6 23,4 23,79 noslice,mvc2,uep4 26,96 25,21 25,89 24,8 23,19 23,94 noslice,vd2,eep 34,1 34,13 33,59 32,97 32,33 31,37 noslice,vd2,uep1 34,1 34,13 33,59 32,97 32,33 31,37 noslice,vd2,uep2 34,26 33,97 33,72 33,4 32,41 31,97 noslice,vd2,uep3 34,26 33,97 33,72 33,4 32,41 31,97 noslice,vd2,uep4 34,16 33,86 33,65 32,84 32,15 31,98 slice13,mvc,eep 29,8 26,71 26,44 26,1 23,49 21,57 slice13,mvc,uep1 26,69 26,13 26,98 25,5 23,22 21,95 slice13,mvc,uep2 27,43 25,86 26,87 25,27 22,84 22,98 slice13,mvc,uep3 27,33 25,52 26,6 24,7 23,14 22,79 slice13,mvc,uep4 27,29 25,27 26,19 25,38 23,5 24,12 slice13,sim,eep 28,44 27,92 26,14 26,8 24,32 22,65 slice13,vd,eep 35,33 33,97 32,58 31,32 3,19 28,37 slice13,vd,uep1 35,33 33,97 32,58 31,32 3,19 28,37 slice13,vd,uep2 35,31 33,97 32,9 31,51 3,29 28,43 slice13,vd,uep3 35,31 33,97 32,9 31,51 3,29 28,43 slice13,vd,uep4 35,19 34,23 33,7 31,85 3,22 28,61 slice13,mvc2,eep 28,9 27,76 27,78 26,52 23,65 21,83 slice13,mvc2,uep1 27,35 27,87 28,27 26,32 23,5 23,28 slice13,mvc2,uep2 26,72 26,12 27,22 25,68 22,47 21,68 slice13,mvc2,uep3 27,42 25,95 26,43 24,71 22,46 22,68 slice13,mvc2,uep4 26,98 25,87 26,25 24,75 23,58 22,87 slice13,vd2,eep 33,78 34,1 33,42 32,84 32,3 29,81 slice13,vd2,uep1 33,78 34,1 33,42 32,84 32,3 29,81 slice13,vd2,uep2 33,9 33,97 33,8 32,78 32,6 31,6 slice13,vd2,uep3 33,9 33,97 33,8 32,78 32,6 31,6 slice13,vd2,uep4 34,11 33,97 33,67 32,68 32,11 31,4 slice1,mvc,eep 28,79 28,66 26,91 26,62 24,64 22,75 slice1,mvc,uep1 29,13 27,28 27,75 26,18 25,17 22,93 slice1,mvc,uep2 28,77 27,9 27,88 25,55 24,41 23,5 slice1,mvc,uep3 28,6 26,97 27,5 25,44 24,21 23,64 slice1,mvc,uep4 28,34 26, ,57 24,78 23,69 slice1,sim,eep 28,49 28,24 26,82 26,8 25,95 22,83 slice1,vd,eep 35,34 33,8 33,17 31,48 3,1 29,33 slice1,vd,uep1 35,34 33,8 33,17 31,48 3,1 29,33 slice1,vd,uep2 35,31 33,96 33,29 32,5 3,22 29,23 slice1,vd,uep3 35,31 33,96 33,29 32,5 3,22 29,23 slice1,vd,uep4 35,11 34,62 33,29 32,27 3,22 28,86 slice1,mvc2,eep 28, ,73 26,54 25,16 21,91 slice1,mvc2,uep1 27,4 27,29 28,5 26,71 24,83 23,16 slice1,mvc2,uep2 27,53 26,68 27,75 26,22 24,78 22,79 slice1,mvc2,uep3 28,71 27,33 26,95 25,53 24,98 24,36 Page 187 of 214

189 slice1,mvc2,uep4 27,3 26,83 26,82 25,53 24,89 24,22 slice1,vd2,eep 33,97 34,2 33,62 33,18 32,47 31,51 slice1,vd2,uep1 33,97 34,2 33,62 33,18 32,47 31,51 slice1,vd2,uep2 33,91 33,98 33,81 33,12 32,64 32,7 slice1,vd2,uep3 33,91 33,98 33,81 33,12 32,64 32,7 slice1,vd2,uep4 34,12 33,98 33,62 33,8 32,15 32,1 slice75,mvc,eep 29,61 28,8 27,56 27,6 24,68 23,32 slice75,mvc,uep1 29,61 28,27 27,62 26,83 25,12 24,29 slice75,mvc,uep2 29,61 28,26 27, ,97 24,5 slice75,mvc,uep3 29,46 27,98 27,44 26,66 24,8 24,25 slice75,mvc,uep4 29,32 28,14 27,29 26,9 25,21 25,16 slice75,sim,eep 29,88 28,9 26,88 26,87 25,92 23,88 slice75,vd,eep 35,29 33,57 32,26 3,94 29,34 28,9 slice75,vd,uep1 35,29 33,57 32,26 3,94 29,34 28,9 slice75,vd,uep2 35,27 33,72 32,59 3,93 29,54 28,55 slice75,vd,uep3 35,27 33,72 32,59 3,93 29,54 28,55 slice75,vd,uep4 35,16 33,95 32,83 31,57 29,45 28,82 slice75,mvc2,eep 29,96 29,15 28,8 28,2 26,43 25,15 slice75,mvc2,uep1 29,37 29,72 28,85 28,2 26,3 24,78 slice75,mvc2,uep2 28,79 28,31 28,9 27,68 25,75 25,28 slice75,mvc2,uep3 29,59 27,83 27,86 27,29 25,86 25,75 slice75,mvc2,uep4 28,94 28,19 27,77 27,14 25,72 25,57 slice75,vd2,eep 33,97 34,14 33,61 33,1 32,86 31,37 slice75,vd2,uep1 33,97 34,14 33,61 33,1 32,86 31,37 slice75,vd2,uep2 33,91 33,99 33,71 33,11 33,1 31,57 slice75,vd2,uep3 33,91 33,99 33,71 33,11 33,1 31,57 slice75,vd2,uep4 34,18 33,88 33,63 32,91 32,76 32,2 slice5,mvc,eep 29,48 28,98 27,25 27,11 26,14 23,69 slice5,mvc,uep1 29,63 28,86 27,3 27,28 25,49 23,49 slice5,mvc,uep2 29,91 28,54 27,22 27,15 25,34 23,89 slice5,mvc,uep3 29,94 28,49 27,53 27,79 25,47 24,51 slice5,mvc,uep4 29,86 28,32 28,6 27,74 26,2 25,4 slice5,sim,eep 29,33 28,77 27,4 27,25 26,38 24,29 slice5,vd,eep 35,3 32,69 31,83 3,82 29,25 27,93 slice5,vd,uep1 35,3 32,69 31,83 3,82 29,25 27,93 slice5,vd,uep2 34,91 33,37 31,92 3,99 29,52 28,1 slice5,vd,uep3 34,88 33,52 32,25 31,9 29,93 28,24 slice5,vd,uep4 34,88 33,52 32,49 31,2 29,98 28,61 slice5,mvc2,eep 3,98 3,41 29,24 28,9 26,96 26,19 slice5,mvc2,uep1 3,39 3,56 29,47 28,71 27,13 25,72 slice5,mvc2,uep2 29,73 28,93 28,9 28,31 26,59 26,1 slice5,mvc2,uep3 29,43 28,66 28,84 28,24 26,47 26,1 slice5,mvc2,uep4 28,5 28,39 27,87 27,22 26,32 25,86 slice5,vd2,eep 33,65 33,93 33,52 32,9 32,75 31,66 slice5,vd2,uep1 33,65 33,93 33,52 32,9 32,75 31,66 slice5,vd2,uep2 33,65 33,93 33,52 32,9 32,75 31,66 slice5,vd2,uep3 33,65 33,93 33,52 32,9 32,75 31,66 slice5,vd2,uep4 33,46 33,9 33,62 32,97 32,93 31,77 SNR = 18, # Experiments: noslice,mvc,eep 31,47 32,8 3,22 28,85 26,16 28,25 noslice,mvc,uep1 31,38 31,52 3,21 28,2 26,55 26,96 noslice,mvc,uep2 31,38 31,39 29,95 27,52 27,27 27,2 noslice,mvc,uep3 31,29 3,17 29,4 27,48 25,91 28,45 noslice,mvc,uep4 3,75 3,35 28,59 27,31 26,75 28,1 noslice,sim,eep 32,46 31,78 29,78 27,59 26,34 23,92 noslice,vd,eep 35,6 36,3 34,86 33,61 31,68 32,93 noslice,vd,uep1 35,6 36,3 34,86 33,61 31,68 32,93 noslice,vd,uep2 35,6 35, ,55 31,9 32,93 noslice,vd,uep3 35,6 35, ,55 31,9 32,93 noslice,vd,uep4 35,54 36,6 35,24 34,1 31,88 33,17 noslice,mvc2,eep 31,48 32,76 31,11 29,71 27,2 29,21 noslice,mvc2,uep1 31,37 31,48 3,77 28,95 27,7 3,5 noslice,mvc2,uep2 31,18 31,84 3,3 28,33 27,47 3,9 noslice,mvc2,uep3 31,9 3,7 29,69 27,52 27,86 28,47 noslice,mvc2,uep4 3,38 29,96 28,88 27,69 28,6 28,52 noslice,vd2,eep 34,43 34,45 33,95 33,95 33,19 33,8 noslice,vd2,uep1 34,43 34,45 33,95 33,95 33,19 33,8 noslice,vd2,uep2 34,43 34,34 34,9 33,95 33,36 34,48 noslice,vd2,uep3 34,43 34,34 34,9 33,95 33,36 34,48 noslice,vd2,uep4 34,39 34,23 33,99 33,92 33,9 33,93 slice13,mvc,eep 31,48 31,69 3,14 28,89 26,42 27,46 slice13,mvc,uep1 31,38 32,9 3,53 28,5 26,2 27,1 Page 188 of 214

190 slice13,mvc,uep2 31,29 3, ,4 27,38 3,14 slice13,mvc,uep3 31,29 3,79 29,56 27,84 27,1 28,47 slice13,mvc,uep4 3,72 3,7 28,86 28,7 27,69 28,44 slice13,sim,eep 32,56 31,87 3,27 28,13 27,43 23,17 slice13,vd,eep 35,8 35,9 35,2 33,68 32,9 33,5 slice13,vd,uep1 35,8 35,9 35,2 33,68 32,9 33,5 slice13,vd,uep2 35,8 36,5 35,23 33,96 32,9 33,54 slice13,vd,uep3 35,8 36,5 35,23 33,96 32,9 33,54 slice13,vd,uep4 35,69 36,2 35,28 34,33 32,6 33,36 slice13,mvc2,eep 31,49 32,31 3,5 28,72 27,32 27,43 slice13,mvc2,uep1 31,39 31,73 3,67 28,45 27,71 28,57 slice13,mvc2,uep2 31,19 31,87 3,52 27,78 27,25 27,64 slice13,mvc2,uep3 31,1 3,7 29,58 27,5 27,53 26,66 slice13,mvc2,uep4 3,8 3,56 28,91 27,81 28,39 27,51 slice13,vd2,eep 34,43 34,45 34,12 33,78 33,16 32,26 slice13,vd2,uep1 34,43 34,45 34,12 33,78 33,16 32,26 slice13,vd2,uep2 34,43 34,32 34,1 33,99 33,32 34,46 slice13,vd2,uep3 34,43 34,32 34,1 33,99 33,32 34,46 slice13,vd2,uep4 34,35 34, ,2 33,38 34,1 slice1,mvc,eep 31,59 32,25 3,52 29,17 26,47 27,71 slice1,mvc,uep1 31,49 32,2 3,8 29,39 27,37 29,65 slice1,mvc,uep2 31,39 31,88 3,16 29,2 27,29 3,18 slice1,mvc,uep3 31,39 31,18 29,27 28,31 27,17 27,99 slice1,mvc,uep4 3,91 3,86 29,37 28,29 27,91 28,44 slice1,sim,eep 32,58 32,63 3,62 29,9 27,58 24,85 slice1,vd,eep 35,77 36,19 35,17 34,5 32,23 33,38 slice1,vd,uep1 35,77 36,19 35,17 34,5 32,23 33,38 slice1,vd,uep2 35,69 36,5 35,28 34,35 32,36 33,62 slice1,vd,uep3 35,69 36,5 35,28 34,35 32,36 33,62 slice1,vd,uep4 36,46 36,5 35,44 34,5 32,57 33,64 slice1,mvc2,eep 31,49 32,67 3,91 29,23 27,15 27,5 slice1,mvc2,uep1 31,39 31,63 3,75 29,18 27,45 3,7 slice1,mvc2,uep2 31,2 31,88 3,33 28,45 27,57 28,78 slice1,mvc2,uep3 31,11 31,1 29,76 28,19 28,35 28,51 slice1,mvc2,uep4 3,63 3,47 29,18 28,29 28,65 28,98 slice1,vd2,eep 34,44 34,46 34, ,16 34,5 slice1,vd2,uep1 34,44 34,46 34, ,16 34,5 slice1,vd2,uep2 34,44 34,33 34,11 33,95 32,95 34,47 slice1,vd2,uep3 34,44 34,33 34,11 33,95 32,95 34,47 slice1,vd2,uep4 34,36 34,22 34,1 34,3 33,4 34,2 slice75,mvc,eep 31,31 32,26 31,47 29,35 29,27 28,7 slice75,mvc,uep1 31,49 32,28 31,9 29,44 28,92 29,46 slice75,mvc,uep2 31,49 31,79 3,77 29,24 29,45 28,74 slice75,mvc,uep3 31,4 31,41 3,45 29,22 29,61 3,8 slice75,mvc,uep4 3,83 31,22 3,24 28,95 29,63 3,27 slice75,sim,eep 32,47 32,58 3,61 29,2 27,41 26,85 slice75,vd,eep 35,7 35,95 34,88 33,58 31,75 32,95 slice75,vd,uep1 35,7 35,95 34,88 33,58 31,75 32,95 slice75,vd,uep2 35,7 35,95 35,2 33,62 31,77 32,94 slice75,vd,uep3 35,7 35,95 35,2 33,62 31,77 32,94 slice75,vd,uep4 35,59 36,1 35,5 33,74 31,95 32,76 slice75,mvc2,eep 31,41 32,32 31,96 3,18 3,17 29,7 slice75,mvc2,uep1 31,31 32, ,3 3,34 31,22 slice75,mvc2,uep2 31,21 32,27 31,5 29,47 3,14 29,81 slice75,mvc2,uep3 31,12 31,5 3,57 29,38 29,65 3,29 slice75,mvc2,uep4 3,55 3, ,96 3,32 3,38 slice75,vd2,eep 34,46 34,47 34,8 33,9 33,55 33,62 slice75,vd2,uep1 34,46 34,47 34,8 33,9 33,55 33,62 slice75,vd2,uep2 34,46 34,37 34,6 33,98 33,54 34,5 slice75,vd2,uep3 34,46 34,37 34,6 33,98 33,54 34,5 slice75,vd2,uep4 34,41 34,25 33,94 33,95 33,76 33,96 slice5,mvc,eep 3,94 32,15 3,93 29,36 28,7 25,8 slice5,mvc,uep1 32,16 32,3 3,94 29,75 28,73 26,29 slice5,mvc,uep2 32,53 32,22 31,2 29,7 28,3 27,45 slice5,mvc,uep3 31,88 31,84 3,83 29,66 29,18 29,24 slice5,mvc,uep4 31,7 31,59 3,91 29,79 28,97 29,35 slice5,sim,eep 31,91 32,7 3,89 29,4 28,88 26,32 slice5,vd,eep 35,8 35,48 34,5 33,6 31,14 32,11 slice5,vd,uep1 35,8 35,48 34,5 33,6 31,14 32,11 slice5,vd,uep2 35,8 35,52 34,58 33,3 31,6 32,63 slice5,vd,uep3 35,8 35,56 34,62 33,44 31,77 32,55 slice5,vd,uep4 35,8 35,66 34,72 33,55 31,77 32,63 Page 189 of 214

191 slice5,mvc2,eep 32,11 32,48 32,6 3,95 29,53 29,78 slice5,mvc2,uep1 32,12 32,42 32,3 3,67 29,64 3,76 slice5,mvc2,uep2 32,5 32,29 31,99 3,43 29,68 31,4 slice5,mvc2,uep3 31,96 31,83 31,54 3,1 29,62 3,92 slice5,mvc2,uep4 3,53 3,68 29,95 29,24 29,83 29,95 slice5,vd2,eep 34,29 34,19 33,99 33,79 33,27 34,16 slice5,vd2,uep1 34,29 34,19 33,99 33,79 33,27 34,16 slice5,vd2,uep2 34,29 34,19 33,99 33,79 33,27 34,16 slice5,vd2,uep3 34,29 34,19 33,99 33,79 33,27 34,16 slice5,vd2,uep4 34,15 34,6 33,91 33,91 33,58 34,15 SNR = 19, # Experiments: noslice,mvc,eep 33,17 31,66 3,9 33,47 noslice,mvc,uep1 32,85 31,68 31,4 33,47 noslice,mvc,uep2 32,43 31,38 31,7 31,7 noslice,mvc,uep3 31,84 31,3 3,22 28,61 noslice,mvc,uep4 31,41 3,87 29,82 28,5 noslice,sim,eep 33,19 31,63 29,98 25,65 noslice,vd,eep 36,44 35,77 34,77 35,64 noslice,vd,uep1 36,44 35,77 34,77 35,64 noslice,vd,uep2 36,42 35,74 34,85 35,64 noslice,vd,uep3 36,42 35,74 34,85 35,64 noslice,vd,uep4 36,4 35,78 34,97 35,7 noslice,mvc2,eep 33,52 32,78 31,75 33,33 noslice,mvc2,uep1 32,76 32,14 32,19 33,33 noslice,mvc2,uep2 32,33 31,8 31,97 28,49 noslice,mvc2,uep3 31,52 31,27 31,19 28,38 noslice,mvc2,uep4 3,91 31,13 3,61 28,27 noslice,vd2,eep 34,46 34,43 34,43 34,58 noslice,vd2,uep1 34,46 34,43 34,43 34,58 noslice,vd2,uep2 34,42 34,35 34,46 34,5 noslice,vd2,uep3 34,42 34,35 34,46 34,5 noslice,vd2,uep4 34,37 34,29 34,36 34,52 slice13,mvc,eep 33,28 31,89 31,32 33,66 slice13,mvc,uep1 32,88 31,85 31,49 33,48 slice13,mvc,uep2 32,4 31,57 31,6 31,71 slice13,mvc,uep3 31,8 31,48 3,57 28,62 slice13,mvc,uep4 31,5 31,9 3,67 28,51 slice13,sim,eep 33,74 31,88 3,3 25,68 slice13,vd,eep 36,48 35,79 35,21 35,73 slice13,vd,uep1 36,48 35,79 35,21 35,73 slice13,vd,uep2 36,45 35,83 35,17 35,64 slice13,vd,uep3 36,45 35,83 35,17 35,64 slice13,vd,uep4 36,44 35,93 35,41 35,67 slice13,mvc2,eep 33,65 32,13 31,18 29,75 slice13,mvc2,uep1 32,95 31,85 31,29 29,67 slice13,mvc2,uep2 32,55 31,62 31,48 25,1 slice13,mvc2,uep3 31,3 31,5 3,7 24,8 slice13,mvc2,uep4 31,3 31,14 3,84 24,69 slice13,vd2,eep 34,46 34,42 34,41 34,58 slice13,vd2,uep1 34,46 34,42 34,41 34,58 slice13,vd2,uep2 34,43 34,33 34,48 34,51 slice13,vd2,uep3 34,43 34,33 34,48 34,51 slice13,vd2,uep4 34,36 34,3 34,39 34,53 slice1,mvc,eep 33,38 31,89 31,58 33,68 slice1,mvc,uep1 32,84 31,8 31,74 32,44 slice1,mvc,uep2 32,54 31,75 31,6 31,17 slice1,mvc,uep3 31,92 31,64 31,24 31,15 slice1,mvc,uep4 31,75 31,35 3,93 3,85 slice1,sim,eep 33,86 32,52 3,49 28,38 slice1,vd,eep 36,53 35,81 35,16 35,73 slice1,vd,uep1 36,53 35,81 35,16 35,73 slice1,vd,uep2 36,45 35,89 35,29 35,65 slice1,vd,uep3 36,45 35,89 35,29 35,65 slice1,vd,uep4 36, ,38 35,66 slice1,mvc2,eep 33,7 32,47 31,53 33,34 slice1,mvc2,uep1 32,89 32,5 31,56 33,26 slice1,mvc2,uep2 32,46 31,76 32,18 3,97 slice1,mvc2,uep3 31,49 31,45 3,97 3,78 slice1,mvc2,uep4 31,2 31,7 31,7 3,48 slice1,vd2,eep 34,47 34,43 34,42 34,59 slice1,vd2,uep1 34,47 34,43 34,42 34,59 slice1,vd2,uep2 34,44 34,34 34,5 34,52 Page 19 of 214

192 slice1,vd2,uep3 34,44 34,34 34,5 34,52 slice1,vd2,uep4 34,37 34,31 34,4 34,55 slice75,mvc,eep 33,49 32,38 32,1 31,29 slice75,mvc,uep1 33,15 32,17 32,32 31,8 slice75,mvc,uep2 33,4 32,35 32,13 31,8 slice75,mvc,uep3 32,41 32,11 31,96 31,21 slice75,mvc,uep4 32,22 32,1 32,14 3,96 slice75,sim,eep 33,58 32,48 3,48 3,36 slice75,vd,eep 36,39 35,67 34,85 35,74 slice75,vd,uep1 36,39 35,67 34,85 35,74 slice75,vd,uep2 36,36 35,72 34,89 35,64 slice75,vd,uep3 36,36 35,72 34,89 35,64 slice75,vd,uep4 36,37 35,73 35,3 35,68 slice75,mvc2,eep 33,64 32,81 32,49 33,36 slice75,mvc2,uep1 33,26 32,51 32,6 33,25 slice75,mvc2,uep2 33,2 32,3 32,39 31,5 slice75,mvc2,uep3 32,16 32,5 32,34 3,8 slice75,mvc2,uep4 32,7 31,79 32,11 3,7 slice75,vd2,eep 34,48 34,42 34,43 34,6 slice75,vd2,uep1 34,48 34,42 34,43 34,6 slice75,vd2,uep2 34,45 34,37 34,4 34,53 slice75,vd2,uep3 34,45 34,37 34,4 34,53 slice75,vd2,uep4 34,4 34,32 34,38 34,55 slice5,mvc,eep 33,27 32,51 31,51 29,82 slice5,mvc,uep1 33,45 32,61 31,55 3,16 slice5,mvc,uep2 33,22 32,55 31,45 31,6 slice5,mvc,uep3 32,91 32,56 31,45 31,6 slice5,mvc,uep4 32,65 32,49 31,41 31,6 slice5,sim,eep 33,16 32,32 31,56 29,89 slice5,vd,eep 36,14 35,9 34,17 35,32 slice5,vd,uep1 36,14 35,9 34,17 35,32 slice5,vd,uep2 36,14 35,2 34,4 35,32 slice5,vd,uep3 36,14 35,27 34,49 35,32 slice5,vd,uep4 36,14 35,37 34,62 35,32 slice5,mvc2,eep 33,61 32,97 32,65 33,2 slice5,mvc2,uep1 33,52 32,79 32,7 32,8 slice5,mvc2,uep2 33,3 32,63 32,61 31,15 slice5,mvc2,uep3 32,59 32,59 32,59 3,43 slice5,mvc2,uep4 31,33 31,26 31,58 29,93 slice5,vd2,eep 34,29 34,23 34,24 34,43 slice5,vd2,uep1 34,29 34,23 34,24 34,43 slice5,vd2,uep2 34,29 34,23 34,24 34,43 slice5,vd2,uep3 34,29 34,23 34,24 34,43 slice5,vd2,uep4 34,23 34,2 34,28 34,35 Table 3-11 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 34,22 33,15 32,18 3,27 28,62 27,68 noslice,mvc,uep1 34,98 33,21 32,55 29,98 28,66 28,15 noslice,mvc,uep2 35,43 33,36 31,84 29,4 27,51 26,65 noslice,mvc,uep3 34,12 33,48 31,12 28,67 27,59 26,98 noslice,mvc,uep4 33,25 31,69 29,9 27,65 26,51 25,96 noslice,sim,eep 36,7 33,53 32,66 3,93 28,97 27,87 noslice,vd,eep 36,78 36,34 34,95 33,72 32,78 3,84 noslice,vd,uep1 36,78 36,34 34,95 33,72 32,78 3,84 noslice,vd,uep2 37,22 36,73 34,78 33,93 32,7 31,58 noslice,vd,uep3 36,96 36,64 34,93 34,1 32,82 31,99 noslice,vd,uep4 36,52 36,67 35,14 34,32 33,17 31,75 noslice,mvc2,eep 36,82 33,83 33,45 31,53 29,26 28,41 noslice,mvc2,uep1 36,73 34,29 32,56 3,71 29,32 28,9 noslice,mvc2,uep2 35,44 33,28 31,56 29,62 29,37 28,68 noslice,mvc2,uep3 34,1 32,3 3,78 28,38 28,54 28,3 noslice,mvc2,uep4 33,3 3,5 3,27 27,29 27,7 27,47 noslice,vd2,eep 36,31 36,79 36, ,45 35,43 noslice,vd2,uep1 36,31 36,79 36, ,45 35,43 noslice,vd2,uep2 36,31 36,79 36, ,45 35,43 noslice,vd2,uep3 36,31 36,79 36, ,45 35,43 Page 191 of 214

193 noslice,vd2,uep4 36,13 36,44 36,31 35,83 36,45 35,4 slice13,mvc,eep 36,6 33,91 33,49 32,9 29,18 29,52 slice13,mvc,uep1 36,65 34,39 33,75 31,27 29,39 29,12 slice13,mvc,uep2 35,69 34, ,54 29,78 28,87 slice13,mvc,uep3 34,83 33,6 32,34 29,58 29,3 27,86 slice13,mvc,uep4 33,81 32,77 31,12 29,1 28,32 26,99 slice13,sim,eep 36 34,35 33,56 32,47 29,98 29,5 slice13,vd,eep 38,57 37,59 36, ,37 32,6 slice13,vd,uep1 37,82 37,38 36,3 35,16 33,2 33 slice13,vd,uep2 37,73 37,36 36,32 35,13 33,14 32,64 slice13,vd,uep3 37,69 37,3 36,28 35,8 33,55 32,56 slice13,vd,uep4 37,93 37,59 36,32 35,4 34,22 32,29 slice13,mvc2,eep 36,91 34,76 34,42 32,72 29,95 31,17 slice13,mvc2,uep1 36,81 35,13 34,28 32,47 3,8 3,82 slice13,mvc2,uep2 35,62 34,73 33,4 31,19 3,91 3,4 slice13,mvc2,uep3 34,48 33,22 32,39 29,81 29,53 28,34 slice13,mvc2,uep4 33,5 31,67 31,9 28,71 28,33 27,6 slice13,vd2,eep 36,61 36,62 36,52 36,1 36,25 35,57 slice13,vd2,uep1 36,61 36,62 36,52 36,1 36,25 35,57 slice13,vd2,uep2 36,61 36,28 36,43 36,3 36,33 35,57 slice13,vd2,uep3 36,61 36,28 36,43 36,3 36,33 35,57 slice13,vd2,uep4 36,85 36,14 36,47 36,8 36,22 35,35 slice1,mvc,eep 36,83 33,92 33,7 32,18 29,5 28,42 slice1,mvc,uep1 37,29 34,9 33,83 31,69 3,53 28,72 slice1,mvc,uep2 35,57 34,74 33,4 3,9 3,6 28,68 slice1,mvc,uep3 34,69 33,88 32,5 29,99 29,42 28,12 slice1,mvc,uep4 33,99 32,85 31,52 29,29 28,68 27,66 slice1,sim,eep 36,41 34,65 33,63 32,56 3,6 28,76 slice1,vd,eep 37,51 37,15 35,86 35,31 33,78 33,16 slice1,vd,uep1 37,51 37,15 35,86 35,31 33,78 33,16 slice1,vd,uep2 37,35 37,15 36,4 35,2 33,62 32,92 slice1,vd,uep3 37,13 36,93 36, ,7 33,4 slice1,vd,uep4 36,91 37,19 36,52 35,34 34,24 32,47 slice1,mvc2,eep 36,31 35,13 34,37 32,83 3,5 3,8 slice1,mvc2,uep1 36,85 35,24 34,59 32,38 3,84 3,72 slice1,mvc2,uep2 36,8 34,92 33,73 31, ,16 slice1,mvc2,uep3 34,42 33,24 32,38 3,5 29,59 29,4 slice1,mvc2,uep4 33,57 32,45 31,22 29,6 28,56 28,36 slice1,vd2,eep 36,82 36,65 36,64 36,34 36,41 35,58 slice1,vd2,uep1 36,82 36,65 36,64 36,34 36,41 35,58 slice1,vd2,uep2 36,82 36,41 36,59 36,36 36,39 35,31 slice1,vd2,uep3 36,82 36,41 36,59 36,36 36,39 35,31 slice1,vd2,uep4 36,85 36,29 36,63 36,5 36,43 34,98 slice75,mvc,eep 35,53 33,33 33,9 31,96 29,55 28,44 slice75,mvc,uep1 36,7 33,86 33,4 31,21 29,73 28,98 slice75,mvc,uep2 36,29 34,22 33,4 3,79 29,57 27,97 slice75,mvc,uep3 33,91 33,6 32,54 3,3 29,6 28,6 slice75,mvc,uep4 33,28 33,14 31,78 29,4 28,56 28,79 slice75,sim,eep 35,98 33,87 33,4 31,89 3,9 28,82 slice75,vd,eep 36,85 36,57 35,33 34,22 33,14 31,11 slice75,vd,uep1 36,85 36,57 35,33 34,22 33,14 31,11 slice75,vd,uep2 37,22 36,57 35,29 34,2 32,98 31,24 slice75,vd,uep3 37,8 36,84 35,56 34,49 33,42 31,85 slice75,vd,uep4 36,91 36,92 35,84 34,68 33,3 31,47 slice75,mvc2,eep 36,83 34,7 33,97 32,58 3,8 29,94 slice75,mvc2,uep1 36,24 34,72 34,18 31,89 3,66 29,39 slice75,mvc2,uep2 35,74 34,37 33,53 3,7 3,83 3,1 slice75,mvc2,uep3 33,89 33,59 32,49 3,14 29,57 29,47 slice75,mvc2,uep4 33,67 32,18 31,99 29,38 29,4 28,93 slice75,vd2,eep 36,79 36,63 36,61 35,97 36,3 35,53 slice75,vd2,uep1 36,79 36,63 36,61 35,97 36,3 35,53 slice75,vd2,uep2 36,3 36,25 36,4 35,67 35,91 35,26 slice75,vd2,uep3 36,3 36,25 36,4 35,67 35,91 35,26 slice75,vd2,uep4 36,16 36,27 36,35 35,61 35,91 34,79 slice5,mvc,eep 34,62 33,42 3,85 29,46 28,17 28,57 slice5,mvc,uep1 34,63 32,82 31,6 29,54 27,85 28,2 slice5,mvc,uep2 35,18 32,12 3,92 29,16 27,45 27,76 slice5,mvc,uep3 33,81 32,28 3,56 28,95 27,37 27,4 slice5,mvc,uep4 33,62 32,14 3,55 28,92 27,25 27,1 slice5,sim,eep 35,29 32,4 3,99 29,96 28,23 27,86 slice5,vd,eep 38,22 36,68 34,79 34,2 32,53 3,41 slice5,vd,uep1 38,15 36,72 35,25 34,27 32,81 3,71 Page 192 of 214

194 slice5,vd,uep2 38,11 37,14 35,29 34,44 32,99 31,2 slice5,vd,uep3 38,11 37,29 35,28 34,49 33,11 31,1 slice5,vd,uep4 38,5 37,21 35,52 34,7 33,6 31,16 slice5,mvc2,eep 34,85 33,62 32,2 3,85 29,12 28,72 slice5,mvc2,uep1 35,61 33,6 32,43 3,27 29,12 28,32 slice5,mvc2,uep2 35,4 33,92 32,25 29,64 28,98 27,94 slice5,mvc2,uep3 33,47 33,24 31,5 29,15 28,11 28,19 slice5,mvc2,uep4 33,67 32,88 31,18 28,94 28,27 27,81 slice5,vd2,eep 36,68 36,43 36,52 35,95 35,78 34,4 slice5,vd2,uep1 36,68 36,43 36,52 35,95 35,78 34,4 slice5,vd2,uep2 35,92 36,32 36,41 35,95 35,9 34,38 slice5,vd2,uep3 35,92 36,32 36,41 35,95 35,9 34,38 slice5,vd2,uep4 36,13 36,36 36,25 35,74 35,93 34,54 SNR = 18, # Experiments: noslice,mvc,eep 38,3 37,16 36,22 33,25 32,79 35,84 noslice,mvc,uep1 38,3 36,73 35,6 33,46 32,75 35,84 noslice,mvc,uep2 36,76 36,21 35,37 33,11 31,52 34,81 noslice,mvc,uep3 35,1 35,36 34,56 32,34 3,63 31,77 noslice,mvc,uep4 32,78 34,4 33,32 31,27 29,87 27,62 noslice,sim,eep 35,95 36,6 36,23 33,6 33,47 35,91 noslice,vd,eep 37,58 38,84 37,79 37,1 36,87 33,83 noslice,vd,uep1 37,58 38,84 37,79 37,1 36,87 33,83 noslice,vd,uep2 37,45 38,45 38,1 37,29 37,25 33,83 noslice,vd,uep3 37,45 38,52 37,97 37,1 37,42 33,83 noslice,vd,uep4 37,45 38,52 38,7 37,31 37,59 35,7 noslice,mvc2,eep 37,91 37,16 36,44 34,3 34,95 35,51 noslice,mvc2,uep1 37,91 37,3 35,87 34,15 33,85 35,51 noslice,mvc2,uep2 33,97 36, ,42 32,81 33,84 noslice,mvc2,uep3 32,5 35,57 34,57 32,28 31,66 3,85 noslice,mvc2,uep4 32,85 34,14 32,93 3,88 3,65 29,53 noslice,vd2,eep 36,23 37,35 37,5 36,88 36,93 35,59 noslice,vd2,uep1 36,23 37,35 37,5 36,88 36,93 35,59 noslice,vd2,uep2 36,23 37,35 37,5 36,88 36,93 35,59 noslice,vd2,uep3 36,23 37,35 37,5 36,88 36,93 35,59 noslice,vd2,uep4 36,23 37,15 36,91 36,85 36,93 35,59 slice13,mvc,eep 37,98 36,76 36,61 34,28 33,81 35,96 slice13,mvc,uep1 37,98 37,2 36,41 34,3 34,24 35,96 slice13,mvc,uep2 37,98 36,2 35,56 33,58 32,85 34,4 slice13,mvc,uep3 35,15 35,28 34,92 33,9 31,42 32,33 slice13,mvc,uep4 32,98 34,11 33,52 31,98 3,71 31,4 slice13,sim,eep 35,56 36,2 36,43 34,24 33,54 37,53 slice13,vd,eep 38,3 39,17 38,57 37,55 37,81 34,52 slice13,vd,uep1 38,3 38,93 38,6 37,5 37,79 34,5 slice13,vd,uep2 37,82 38,8 38,62 37,56 37,92 35,48 slice13,vd,uep3 37,82 38,45 38,55 37,7 37,63 35,39 slice13,vd,uep4 37,77 38,39 38,37 37,61 37,66 35,38 slice13,mvc2,eep 37,6 37,5 36,54 35,12 35,2 35,64 slice13,mvc2,uep1 37,6 36,54 36,52 34,83 35,1 35,64 slice13,mvc2,uep2 37,6 36,77 35,56 34,58 33,54 34,91 slice13,mvc2,uep3 34,1 35,65 34,84 32,86 32,21 33,33 slice13,mvc2,uep4 32,38 34,49 33,42 31,56 31,17 3,52 slice13,vd2,eep 36,6 37,17 36,98 36,93 37,3 35,33 slice13,vd2,uep1 36,6 37,17 36,98 36,93 37,3 35,33 slice13,vd2,uep2 36,6 37,2 36,98 36,91 37,2 36,69 slice13,vd2,uep3 36,6 37,2 36,98 36,91 37,2 36,69 slice13,vd2,uep4 36,29 37,4 36,9 36,97 37,1 36,69 slice1,mvc,eep 37,98 36,78 36,77 34,48 34,47 35,86 slice1,mvc,uep1 37,98 36,95 36,6 34,35 33,72 35,92 slice1,mvc,uep2 37,98 36,45 35,78 34,2 33,42 32,9 slice1,mvc,uep3 35,27 35,72 35,12 33,17 31,99 31,99 slice1,mvc,uep4 32,99 34,81 33,73 32,42 31,16 31,13 slice1,sim,eep 37,57 36,64 36,47 34,49 33,31 37,57 slice1,vd,eep 37,46 38,81 38,57 37, ,2 slice1,vd,uep1 37,46 38,81 38,57 37, ,2 slice1,vd,uep2 37,46 38,67 38,51 37, ,2 slice1,vd,uep3 37,46 38,62 38,5 37,85 38,6 35,35 slice1,vd,uep4 37,46 38,48 38,47 37,65 38,11 35,35 slice1,mvc2,eep 37,6 37,21 36,84 35,9 35,2 35,59 slice1,mvc2,uep1 37,6 37,1 36, ,65 35,59 slice1,mvc2,uep2 37,6 36,72 35,95 34,47 33,54 34,97 slice1,mvc2,uep3 34,4 35,66 34,91 33,3 32,61 33,34 slice1,mvc2,uep4 32,42 34,61 33,68 32,1 31,68 3,72 Page 193 of 214

195 slice1,vd2,eep 36,7 37,22 37,13 37,9 37,23 35,33 slice1,vd2,uep1 36,7 37,22 37,13 37,9 37,23 35,33 slice1,vd2,uep2 36,7 37,4 37,5 37,2 37,23 35,33 slice1,vd2,uep3 36,7 37,4 37,5 37,2 37,23 35,33 slice1,vd2,uep4 36,29 37,8 37,6 37,5 37,2 35,33 slice75,mvc,eep 37,99 36,97 36,32 34,2 33,68 35,83 slice75,mvc,uep1 37,99 37,7 36,49 34,21 33,65 35,83 slice75,mvc,uep2 37,99 36,49 35,62 33,94 33,9 33,36 slice75,mvc,uep3 35,45 35, ,11 32,32 31,64 slice75,mvc,uep4 33,47 34,92 34,1 32,48 31,22 3,38 slice75,sim,eep 37,57 36,48 36,25 34,5 33,2 35,55 slice75,vd,eep 37,41 38,66 38,1 37,5 37,42 33,83 slice75,vd,uep1 37,41 38,66 38,1 37,5 37,42 33,83 slice75,vd,uep2 37,41 38,64 38,21 37,52 37,59 33,83 slice75,vd,uep3 37,41 38,53 38,34 37,55 37,7 33,83 slice75,vd,uep4 37,41 38,51 38,42 37,59 37,93 33,83 slice75,mvc2,eep 37,6 37,11 36,41 34,8 34,84 35,5 slice75,mvc2,uep1 37,6 36,92 36,4 34,53 34,34 35,5 slice75,mvc2,uep2 37,6 36,55 35,57 34,35 33,56 33,49 slice75,mvc2,uep3 34,24 35,62 34,84 32,94 32,7 32,32 slice75,mvc2,uep4 32,39 34,79 33,86 32,35 31,42 31,49 slice75,vd2,eep 35,98 37,18 37,13 37,5 37,22 35,3 slice75,vd2,uep1 35,98 37,18 37,13 37,5 37,22 35,3 slice75,vd2,uep2 35,89 36,7 36,9 36,78 36,68 36,64 slice75,vd2,uep3 35,89 36,7 36,9 36,78 36,68 36,64 slice75,vd2,uep4 35,89 36,57 36,86 36,82 36,68 36,64 slice5,mvc,eep 38,1 36,3 34,95 32,73 31,96 33,5 slice5,mvc,uep1 38,1 35,89 34,85 32,63 31,92 32,61 slice5,mvc,uep2 35,98 35,61 34,37 32,47 31,2 32,56 slice5,mvc,uep3 35,83 34,92 33,97 31,99 3,72 3,75 slice5,mvc,uep4 34,99 34,57 33,61 31,94 3,74 3,37 slice5,sim,eep 37,6 36,24 34,95 32,65 31,68 33,71 slice5,vd,eep 39,34 38,89 37,84 36,59 36,57 33,98 slice5,vd,uep1 39,29 38,86 38,3 36,97 37,28 33,96 slice5,vd,uep2 39,29 39,3 38,7 36,99 37,24 33,96 slice5,vd,uep3 39,17 38,98 38,12 37,19 37,24 33,96 slice5,vd,uep4 39,13 38,98 38,41 37,59 37,22 33,91 slice5,mvc2,eep 37,63 36,22 35,97 33,37 32,91 34,95 slice5,mvc2,uep1 37,63 36,45 35,32 33,62 32,6 34,7 slice5,mvc2,uep2 37,63 35,95 35, ,22 32,42 slice5,mvc2,uep3 33,74 35,3 34,14 32,35 31,55 31,3 slice5,mvc2,uep4 33,3 34,71 33,85 32,38 31,4 3,12 slice5,vd2,eep 35,83 37,4 37,9 36,88 37,19 35,31 slice5,vd2,uep1 35,83 37,4 37,9 36,88 37,19 35,31 slice5,vd2,uep2 35,83 36,89 36,97 36,64 36,84 35,31 slice5,vd2,uep3 35,83 36,89 36,97 36,64 36,84 35,31 slice5,vd2,uep4 35,83 36,95 36,75 36,63 36,65 35,31 SNR = 19, # Experiments: noslice,mvc,eep 37,94 37,3 36,62 38,3 noslice,mvc,uep1 37,92 37,16 35,9 38,3 noslice,mvc,uep2 37,51 36,48 34,94 38,3 noslice,mvc,uep3 36,94 35,96 34,21 33,33 noslice,mvc,uep4 35,85 34,89 33,4 32,6 noslice,sim,eep 37,74 36,76 36,78 37,91 noslice,vd,eep 39,12 38,87 39,26 36,57 noslice,vd,uep1 39,12 38,87 39,26 36,57 noslice,vd,uep2 39,7 38,78 39,12 37,8 noslice,vd,uep3 38,93 38,72 38,95 37,55 noslice,vd,uep4 38,94 38,67 38,81 37,4 noslice,mvc2,eep 37,79 37,26 37,9 37,91 noslice,mvc2,uep1 37,66 37,6 36,83 37,91 noslice,mvc2,uep2 36,99 36,21 35,96 36,65 noslice,mvc2,uep3 36,74 35,54 35,23 36,39 noslice,mvc2,uep4 35,6 34,45 33,84 35,25 noslice,vd2,eep 37,46 37,43 37,26 37,32 noslice,vd2,uep1 37,46 37,43 37,26 37,32 noslice,vd2,uep2 37,46 37,43 37,26 37,32 noslice,vd2,uep3 37,46 37,43 37,26 37,32 noslice,vd2,uep4 37,28 37,39 37,7 37,32 slice13,mvc,eep 37,9 37,36 36,76 37,98 slice13,mvc,uep1 37,84 37,24 36,47 37,98 slice13,mvc,uep2 37,68 36,73 35,64 37,98 Page 194 of 214

196 slice13,mvc,uep3 36,82 35,92 34,25 33,53 slice13,mvc,uep4 36,8 35,1 33,61 35,4 slice13,sim,eep 37,48 36,84 36,68 37,56 slice13,vd,eep 39,22 39,2 39,41 37,76 slice13,vd,uep1 39,21 39,13 39,3 37,76 slice13,vd,uep2 39,9 39,2 39,15 37,76 slice13,vd,uep3 38,94 39,3 39,13 37,76 slice13,vd,uep4 38,78 38,79 39,1 37,49 slice13,mvc2,eep 37,52 37,23 37,8 37,6 slice13,mvc2,uep1 37,51 37, ,6 slice13,mvc2,uep2 37,26 36,66 36,29 37,6 slice13,mvc2,uep3 36,69 35,63 34,96 36,52 slice13,mvc2,uep4 35,58 34,71 33,63 35,16 slice13,vd2,eep 37,28 37,21 37,44 37,52 slice13,vd2,uep1 37,28 37,21 37,44 37,52 slice13,vd2,uep2 37,27 37,17 37,43 37,52 slice13,vd2,uep3 37,27 37,17 37,43 37,52 slice13,vd2,uep4 37,19 37,19 37,43 37,52 slice1,mvc,eep 37,91 37,39 36,9 37,98 slice1,mvc,uep1 37,88 37,27 36,3 37,98 slice1,mvc,uep2 37,62 36,94 35,41 37,98 slice1,mvc,uep3 36,92 36,25 34,62 35,9 slice1,mvc,uep4 36,16 35,25 33,63 35,6 slice1,sim,eep 37,56 36,91 36,69 37,57 slice1,vd,eep 39,24 39,15 39,4 37,75 slice1,vd,uep1 39,24 39,15 39,4 37,75 slice1,vd,uep2 39,6 39,1 39,22 37,75 slice1,vd,uep3 39,4 38,91 39,22 37,45 slice1,vd,uep4 39,2 38,83 39,22 37,25 slice1,mvc2,eep 37,52 37,31 36,96 37,6 slice1,mvc2,uep1 37,51 37,24 36,77 37,6 slice1,mvc2,uep2 37,29 36,8 36,29 37,6 slice1,mvc2,uep3 36,81 35,75 35,11 36,45 slice1,mvc2,uep4 35,68 35,3 34,11 35,33 slice1,vd2,eep 37,3 37,3 37,44 37,52 slice1,vd2,uep1 37,3 37,3 37,44 37,52 slice1,vd2,uep2 37,17 37,26 37,36 37,52 slice1,vd2,uep3 37,17 37,26 37,36 37,52 slice1,vd2,uep4 37,2 37,27 37,36 37,52 slice75,mvc,eep 37,86 37,16 36,57 37,99 slice75,mvc,uep1 37,84 37,23 36,19 37,99 slice75,mvc,uep2 37,43 36,85 35,58 36,31 slice75,mvc,uep3 36,93 36,29 34,92 35,77 slice75,mvc,uep4 36,6 35,42 34,3 34,79 slice75,sim,eep 37,5 36,66 36,54 37,57 slice75,vd,eep 39,19 38,97 39,18 36,49 slice75,vd,uep1 39,19 38,97 39,18 36,49 slice75,vd,uep2 39,4 38,91 39,1 36,49 slice75,vd,uep3 39,2 38,84 39,7 37,41 slice75,vd,uep ,79 38,91 37,23 slice75,mvc2,eep 37,51 37,23 36,87 35,96 slice75,mvc2,uep1 37,44 37,15 36,99 37,6 slice75,mvc2,uep2 37,26 36,69 35,9 37,6 slice75,mvc2,uep3 36,78 35,78 34,77 36,6 slice75,mvc2,uep4 35,69 35,8 34,32 35,48 slice75,vd2,eep 37,3 37,29 37,44 37,52 slice75,vd2,uep1 37,3 37,29 37,44 37,52 slice75,vd2,uep2 37,4 37,5 37,35 37,52 slice75,vd2,uep3 37,4 37,5 37,35 37,52 slice75,vd2,uep4 37,2 37,1 37,37 37,52 slice5,mvc,eep 37,64 36,31 35,91 37,75 slice5,mvc,uep1 37,47 36,31 35,21 36,7 slice5,mvc,uep2 37,7 36,1 34,42 35,43 slice5,mvc,uep3 36,83 35,63 33,85 34,11 slice5,mvc,uep4 36,15 35,36 33,6 34,11 slice5,sim,eep 37,31 35,89 35,98 35,85 slice5,vd,eep 39,31 39,5 38,65 37,58 slice5,vd,uep1 39,23 39,4 38,69 37,58 slice5,vd,uep2 39,22 39,2 38,84 37,58 slice5,vd,uep3 39,21 39,3 38,98 37,58 slice5,vd,uep4 39,21 39,2 38,95 37,56 slice5,mvc2,eep 37,43 36,57 35,99 37,38 Page 195 of 214

197 slice5,mvc2,uep1 37,25 36,68 35,5 37,46 slice5,mvc2,uep2 37,1 36,14 34,76 35,6 slice5,mvc2,uep3 36,38 35,64 34,19 34,89 slice5,mvc2,uep4 35,97 35,26 33,91 34,34 slice5,vd2,eep 37,25 37,24 37,4 37,5 slice5,vd2,uep1 37,25 37,24 37,4 37,5 slice5,vd2,uep2 37,2 37,18 37,35 37,5 slice5,vd2,uep3 37,2 37,18 37,35 37,5 slice5,vd2,uep4 37,16 37,1 37,13 36,78 Table 3-12 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 27,28 3,39 29,49 29,28 29,18 28,34 27,33 noslice,mvc,uep1 27,28 3,42 29,64 29,27 29,29 28,34 27,92 noslice,mvc,uep2 28,7 3,28 29,89 29,25 29,48 28,43 28,29 noslice,mvc,uep3 28,7 3,37 29,96 29,52 29,69 28,32 28,16 noslice,mvc,uep4 28,7 29,66 29,93 3,12 29,73 28,52 28,13 noslice,sim,eep 28,29 3,37 29,23 29,14 29,35 28,66 27,9 noslice,vd,eep 33,96 33,21 32,41 31,66 3,92 29,97 3,24 noslice,vd,uep1 33,96 33,21 32,41 31,66 3,92 29,97 3,24 noslice,vd,uep2 33,96 33,24 32,79 32,11 31,19 3,2 3,43 noslice,vd,uep3 33,96 33,22 32,89 32,39 31,7 3,35 3,43 noslice,vd,uep4 33,96 33,36 32,91 32,34 31,33 3,43 3,73 noslice,mvc2,eep 27,33 31,44 29,78 29,21 29,57 28,54 28,33 noslice,mvc2,uep1 27,44 3,87 29,62 29,6 29,84 28,71 28,25 noslice,mvc2,uep2 27,77 29,6 29,93 29,96 29,81 28,52 27,88 noslice,mvc2,uep3 27,77 29,72 29,97 29,83 29,75 28,45 27,92 noslice,mvc2,uep4 27,77 3,2 29,67 3,1 29,76 28,63 28,4 noslice,vd2,eep 33,23 32,95 32,9 32,64 31,95 31,32 31,57 noslice,vd2,uep1 33,23 32,95 32,9 32,64 31,95 31,32 31,57 noslice,vd2,uep2 33,23 32,95 32,9 32,64 31,95 31,32 31,57 noslice,vd2,uep3 33,23 32,95 32,9 32,64 31,95 31,32 31,57 noslice,vd2,uep4 32,85 32,91 32,9 32,65 32,27 31,58 31,57 slice13,mvc,eep 27,9 3,13 3,7 29,65 29,71 28,93 28,22 slice13,mvc,uep1 27,9 3,19 3,4 29,59 29,68 28,75 28,16 slice13,mvc,uep2 27,64 3,49 3,8 29,87 29,78 28,67 26,97 slice13,mvc,uep3 27,64 3,44 3,15 29,86 29,8 28,68 26,93 slice13,mvc,uep4 27,64 3,21 3,1 3,9 29,99 28,86 28,34 slice13,sim,eep 28,73 3,61 29,92 29,56 29,75 29,16 28,56 slice13,vd,eep 33,95 33,35 33,12 32,25 31,6 3,83 31,19 slice13,vd,uep1 33,95 33,35 33,12 32,25 31,6 3,83 31,19 slice13,vd,uep2 33,95 33,41 33,18 32,65 31,76 3,91 3,81 slice13,vd,uep3 33,96 33,4 32,9 32,73 31,75 31,2 31,63 slice13,vd,uep4 33,94 33,56 33,25 32,61 31,79 3,96 31,54 slice13,mvc2,eep 26,99 31,24 29,65 29,23 29,64 28,96 28,37 slice13,mvc2,uep1 27,1 3,91 29,96 29,34 29,42 28,76 27,5 slice13,mvc2,uep2 24,3 29,31 29,57 29,11 29,27 28,37 27,77 slice13,mvc2,uep3 24,3 29,67 29,77 29,16 29,23 28,46 27,61 slice13,mvc2,uep4 24,3 29,34 29,18 29,23 28,64 28,4 27,2 slice13,vd2,eep 32,73 32,95 32,88 32,6 32,12 31,51 31,78 slice13,vd2,uep1 32,73 32,95 32,88 32,6 32,12 31,51 31,78 slice13,vd2,uep2 32,73 32,95 32,88 32,6 32,12 31,51 31,78 slice13,vd2,uep3 32,73 32,95 32,88 32,6 32,12 31,51 31,78 slice13,vd2,uep4 32,84 32,97 32,87 32,69 32,34 31,61 31,76 slice1,mvc,eep 28, ,62 29,77 29,54 28,66 28,13 slice1,mvc,uep1 28,53 3,26 29,84 29,77 29,49 28,7 28,37 slice1,mvc,uep2 28,53 3,5 29,63 29,84 29,22 28,6 28,19 slice1,mvc,uep3 28,53 3,24 29,81 29,97 29,45 28,26 27,37 slice1,mvc,uep4 28,53 29,92 29,68 3,1 29,5 28,46 28,36 slice1,sim,eep 28,46 3,74 3,7 29,7 29,99 29,25 28,47 slice1,vd,eep 33,95 33,36 32,81 32,24 31,45 3,84 31,18 slice1,vd,uep1 33,95 33,36 32,81 32,24 31,45 3,84 31,18 slice1,vd,uep2 33,95 33,43 33,22 32,42 31,71 31,4 31,16 slice1,vd,uep3 33,95 33,42 33,2 32,73 31,62 31,8 31,12 slice1,vd,uep4 33,86 33,56 33,24 32,86 31,8 31,1 31,55 slice1,mvc2,eep 28,36 3,87 29,34 29,37 29,27 28,61 28,21 slice1,mvc2,uep1 28,81 31,15 29,26 29,4 29,51 28,66 28,16 slice1,mvc2,uep2 27,87 29,82 29,55 29,55 29,45 28,52 27,92 slice1,mvc2,uep3 27,87 29,2 29,19 29,55 29,3 28,26 27,68 Page 196 of 214

198 slice1,mvc2,uep4 27,87 29,79 29,48 29,53 29,29 28,27 27,8 slice1,vd2,eep 33,21 33,1 32,88 32,67 32,6 31,34 31,72 slice1,vd2,uep1 33,21 33,1 32,88 32,67 32,6 31,34 31,72 slice1,vd2,uep2 33,21 33,1 32,88 32,67 32,6 31,34 31,72 slice1,vd2,uep3 33,21 33,1 32,88 32,67 32,6 31,34 31,72 slice1,vd2,uep4 32,82 32,96 32,87 32,68 32,29 31,52 31,73 slice75,mvc,eep 29,12 29,84 3,4 3,3 29,83 28,74 28,56 slice75,mvc,uep1 29,12 29,92 3,12 29,89 29,75 28,67 28,65 slice75,mvc,uep2 29,12 29,78 29,56 29,93 29,99 28,71 28,71 slice75,mvc,uep3 29,12 29,65 3, ,91 28,63 slice75,mvc,uep4 29,12 29,38 3,26 29,97 29,96 28,99 28,54 slice75,sim,eep 29,72 31,14 3,6 3,13 3,16 29,55 29,12 slice75,vd,eep 33,8 33,8 33,22 32,68 31,84 31,19 31,22 slice75,vd,uep1 33,8 33,8 33,22 32,68 31,84 31,19 31,22 slice75,vd,uep2 34,48 33,34 33,28 32,78 31,75 31,25 31,18 slice75,vd,uep3 34,48 33,34 33,28 32,78 31,75 31,25 31,18 slice75,vd,uep4 34,49 33,57 33,25 32, ,26 31,51 slice75,mvc2,eep 28,64 3,84 29,97 3,13 3,11 29,38 28,8 slice75,mvc2,uep1 28,63 3,33 3,42 3,21 3,11 29,12 28,84 slice75,mvc2,uep2 28,63 29,93 3,39 3,11 29,98 29,1 28,71 slice75,mvc2,uep3 28,63 29,6 29,9 29,86 29,77 28,73 28,69 slice75,mvc2,uep4 28,63 29,2 3,8 29,91 29, ,38 slice75,vd2,eep 33,22 33,1 32,89 32,54 31,92 31,35 31,72 slice75,vd2,uep1 33,22 33,1 32,89 32,54 31,92 31,35 31,72 slice75,vd2,uep2 33,22 33,1 32,89 32,54 31,92 31,35 31,72 slice75,vd2,uep3 33,22 33,1 32,89 32,54 31,92 31,35 31,72 slice75,vd2,uep4 32,83 32,96 32,88 32,66 32,11 31,56 31,73 slice5,mvc,eep 29,67 3,31 3,1 29,96 29,64 28,89 28,83 slice5,mvc,uep1 29,68 3,8 29,53 29,84 29,64 28,65 28,5 slice5,mvc,uep2 3,77 3,9 29,51 29,86 29,55 28,65 28,28 slice5,mvc,uep3 3,77 3,1 29,35 29,91 29,52 28,66 28,58 slice5,mvc,uep4 3,77 3,6 29,35 29,86 29,64 28,82 28,61 slice5,sim,eep 29,49 3,72 3,34 29,92 3,2 29,3 29,11 slice5,vd,eep 34,49 33,3 32,96 32,24 31,45 3,91 3,79 slice5,vd,uep1 34,49 33,3 32,96 32,24 31,45 3,91 3,79 slice5,vd,uep2 34,49 33,39 33,18 32,31 31,58 3,94 3,89 slice5,vd,uep3 34,49 33,39 33,18 32,31 31,58 3,94 3,89 slice5,vd,uep4 34,38 33,4 33,24 32,54 31,69 31,1 3,94 slice5,mvc2,eep 28,55 3,37 3,23 29,94 3, ,98 slice5,mvc2,uep1 28,62 3,31 3,26 29,83 29,91 28,98 28,66 slice5,mvc2,uep2 27,52 29,68 3,15 29,94 29,54 29,7 28,69 slice5,mvc2,uep3 27,51 29,25 29,98 29,89 29,67 28,8 28,68 slice5,mvc2,uep4 26,68 28,84 3,22 29,96 29,77 28,98 28,6 slice5,vd2,eep 32,22 32,41 32,34 32,16 31,66 31,5 31,28 slice5,vd2,uep1 32,22 32,41 32,34 32,16 31,66 31,5 31,28 slice5,vd2,uep2 32,22 32,41 32,34 32,16 31,66 31,5 31,28 slice5,vd2,uep3 32,22 32,41 32,34 32,16 31,66 31,5 31,28 slice5,vd2,uep4 32,32 32,43 32,33 32,18 31,84 31,4 31,3 SNR = 18, # Experiments: noslice,mvc,eep 32,42 31,62 31,47 3,74 3,4 28,36 noslice,mvc,uep1 32,3 31,74 31,76 3,45 3,5 28,35 noslice,mvc,uep2 32,41 31,68 31,77 3,8 29,38 28,58 noslice,mvc,uep3 33,45 31,43 31,84 3,8 29,73 29,5 noslice,mvc,uep ,2 31,98 3,75 3,5 3,34 noslice,sim,eep 32,5 31,29 3,98 3,24 29,97 28,96 noslice,vd,eep 33,96 33,89 33,6 32,26 3,91 3,3 noslice,vd,uep1 33,96 33,89 33,6 32,26 3,91 3,3 noslice,vd,uep2 33, ,85 32,39 3,88 3,8 noslice,vd,uep3 33,94 33,98 34,5 32,54 31,32 31,9 noslice,vd,uep4 33,93 34,9 34,9 32,6 31,43 31,1 noslice,mvc2,eep 33,11 31,54 31,82 3,58 29,37 28,79 noslice,mvc2,uep1 31,61 31,26 31,53 3,54 29,65 28,95 noslice,mvc2,uep2 31,58 31,2 31,63 3,27 3,42 29,1 noslice,mvc2,uep3 31,59 31,9 31,58 3,2 3,26 29,11 noslice,mvc2,uep4 32,2 3,61 31,41 3,37 3,53 29,92 noslice,vd2,eep 33,9 33,4 33,4 32,61 32,6 31,82 noslice,vd2,uep1 33,9 33,4 33,4 32,61 32,6 31,82 noslice,vd2,uep2 33,9 33,4 33,4 32,61 32,6 31,82 noslice,vd2,uep3 33,9 33,4 33,4 32,61 32,6 31,82 noslice,vd2,uep4 33, ,2 32,65 32,23 32,16 slice13,mvc,eep 33,17 31,81 32,8 3,79 29,72 29,21 slice13,mvc,uep1 33,17 31,72 31,88 3,74 29,72 29,24 Page 197 of 214

199 slice13,mvc,uep2 32,72 31,37 31,89 3,59 29,85 29,2 slice13,mvc,uep3 32,72 31,41 31,64 3,64 29,85 29,48 slice13,mvc,uep4 32, ,85 3,75 3,58 3,87 slice13,sim,eep 32,95 31,6 31,18 3,49 3,37 29,55 slice13,vd,eep 33,94 34,3 33,77 32,49 31,5 31,56 slice13,vd,uep1 33,94 34,3 33,77 32,49 31,5 31,56 slice13,vd,uep2 33,93 34,6 33,98 32,54 31,43 31,52 slice13,vd,uep3 33,93 34,16 33,85 32,73 31,64 32,3 slice13,vd,uep4 33,92 34,12 34,13 32,88 32,14 32,4 slice13,mvc2,eep 33,7 31,14 31,47 3,51 29,83 29,14 slice13,mvc2,uep1 32,63 31,1 31,55 3,51 29,99 28,98 slice13,mvc2,uep2 31,6 3,73 31,42 3,1 29,81 29,8 slice13,mvc2,uep3 31,29 3,23 31,11 29,9 29,96 29,33 slice13,mvc2,uep4 31,32 3,2 3,57 29,95 29,87 29,62 slice13,vd2,eep 33,7 33,1 33,3 32,67 32,19 32,29 slice13,vd2,uep1 33,7 33,1 33,3 32,67 32,19 32,29 slice13,vd2,uep2 33,7 33,1 33,3 32,67 32,19 32,29 slice13,vd2,uep3 33,7 33,1 33,3 32,67 32,19 32,29 slice13,vd2,uep4 33,6 32, ,6 32,38 32,33 slice1,mvc,eep 33,31 31,18 31,95 3,92 29,93 29,38 slice1,mvc,uep1 32,83 31,41 32,1 3,89 29,37 29,31 slice1,mvc,uep2 32,43 31,33 31,91 3,72 29,74 3,48 slice1,mvc,uep3 32,28 31,16 31,61 31,2 3,15 3,39 slice1,mvc,uep4 32,11 3,8 31,78 3,59 3,12 3,55 slice1,sim,eep 32,73 31,58 31,36 3,63 3,44 29,64 slice1,vd,eep 33,95 33,91 33,9 32,74 31,53 32,14 slice1,vd,uep1 33,95 33,91 33,9 32,74 31,53 32,14 slice1,vd,uep2 33,92 34,2 33,96 32,76 31,85 31,84 slice1,vd,uep3 33,92 34,3 34,4 32,78 31,77 31,86 slice1,vd,uep4 33,91 34,12 34,1 32,84 32,11 31,97 slice1,mvc2,eep 33,7 31,14 31,58 3,29 29,82 29,6 slice1,mvc2,uep1 32,49 3,56 31,45 3,37 29,78 29,22 slice1,mvc2,uep2 32,32 3,64 31,18 3,17 29,93 29,6 slice1,mvc2,uep3 32,14 3,42 31,18 3,27 29,1 29,51 slice1,mvc2,uep4 31,33 29,85 31,6 3,22 3,35 29,49 slice1,vd2,eep 33,7 33,2 33,4 32,65 32,21 32,16 slice1,vd2,uep1 33,7 33,2 33,4 32,65 32,21 32,16 slice1,vd2,uep2 33,7 33,2 33,4 32,65 32,21 32,16 slice1,vd2,uep3 33,7 33,2 33,4 32,65 32,21 32,16 slice1,vd2,uep4 33,7 32,98 33,1 32,71 32,42 32,3 slice75,mvc,eep 32,7 32,27 31,97 3,69 3,52 29,71 slice75,mvc,uep1 32,7 32,19 32,7 3,74 3,52 3,1 slice75,mvc,uep2 32,66 31,95 31,8 3,69 3,63 29,94 slice75,mvc,uep3 32,23 31,52 31,82 3,57 3,63 3,8 slice75,mvc,uep4 32,18 31,62 31,49 3,63 3,8 3,29 slice75,sim,eep 32,74 32,5 31, ,77 3,9 slice75,vd,eep 33,84 33,99 33,92 32,93 32,3 32,9 slice75,vd,uep1 33,84 33,99 33,92 32,93 32,3 32,9 slice75,vd,uep2 33,84 33,99 33,98 32,82 32,11 32,11 slice75,vd,uep3 33,84 33,99 33,98 32,82 32,11 32,11 slice75,vd,uep4 33,84 34,2 33,97 32,91 32,34 32,24 slice75,mvc2,eep 32,17 31,63 31,83 3,64 3,24 3,28 slice75,mvc2,uep1 32,12 31,61 31,68 3,67 3,44 3,29 slice75,mvc2,uep2 31,86 31,4 31,6 3,38 3,42 3,42 slice75,mvc2,uep3 31,68 31,24 31,38 3,23 3,38 3,25 slice75,mvc2,uep4 31,16 3,19 3,87 3,12 3,98 3,74 slice75,vd2,eep 33,8 33,3 33,5 32,6 32,8 32,41 slice75,vd2,uep1 33,8 33,3 33,5 32,6 32,8 32,41 slice75,vd2,uep2 33,8 33,3 33,5 32,6 32,8 32,41 slice75,vd2,uep3 33,8 33,3 33,5 32,6 32,8 32,41 slice75,vd2,uep4 33,8 32,99 33,2 32,69 32,1 32,5 slice5,mvc,eep 32,18 32,17 31,78 31,16 3,96 3,16 slice5,mvc,uep1 32,23 31,94 31,76 3,99 3,9 3,5 slice5,mvc,uep2 32,23 31,83 31,69 31,5 3,78 3,39 slice5,mvc,uep3 32,23 31,77 31,69 3,92 3,81 3,42 slice5,mvc,uep4 32,23 31,58 31,72 31,1 3,89 3,48 slice5,sim,eep 32,2 31,4 31,3 3,77 3,61 29,89 slice5,vd,eep 33,88 33,91 33,77 32,69 32,18 32,12 slice5,vd,uep1 33,88 33,91 33,77 32,69 32,18 32,12 slice5,vd,uep2 33,88 33,95 33,75 32,69 32,31 32,17 slice5,vd,uep3 33,88 33,95 33,75 32,69 32,31 32,17 slice5,vd,uep4 33,88 34,3 33,83 32,79 32,31 32,16 Page 198 of 214

200 slice5,mvc2,eep 31,94 31,33 31,56 3,46 3,7 3,18 slice5,mvc2,uep1 31,91 31,38 31,43 3,39 3,2 29,85 slice5,mvc2,uep2 31,26 31,26 31,27 3,28 3,2 3,12 slice5,mvc2,uep3 31,28 31,13 31,14 3,15 3,32 3,24 slice5,mvc2,uep4 31,14 3,8 3,85 3, ,45 slice5,vd2,eep 32,53 32,48 32,49 32,14 31,64 31,47 slice5,vd2,uep1 32,53 32,48 32,49 32,14 31,64 31,47 slice5,vd2,uep2 32,53 32,48 32,49 32,14 31,64 31,47 slice5,vd2,uep3 32,53 32,48 32,49 32,14 31,64 31,47 slice5,vd2,uep4 32,52 32,43 32,47 32,14 31,9 31,83 SNR = 19, # Experiments: noslice,mvc,eep 33,1 32,73 31,88 29,47 noslice,mvc,uep1 32,8 32,82 32,7 3,3 noslice,mvc,uep2 32,84 32,8 32,15 31,72 noslice,mvc,uep3 32,41 32,61 32,8 31,66 noslice,mvc,uep4 32,37 32,38 32,12 31,71 noslice,sim,eep 32,36 31,77 31,12 29,65 noslice,vd,eep 34,33 33,91 32,84 33,26 noslice,vd,uep1 34,33 33,91 32,84 33,26 noslice,vd,uep2 34,31 33,98 32,93 33,9 noslice,vd,uep3 34,3 34,3 33,27 33,8 noslice,vd,uep4 34, ,29 33,8 noslice,mvc2,eep 32,56 32,3 31,36 3,43 noslice,mvc2,uep1 32,46 32,24 31,41 3,41 noslice,mvc2,uep2 31,96 32,18 31,76 3,32 noslice,mvc2,uep3 31,8 32,9 31,91 3,33 noslice,mvc2,uep4 31,58 31,68 32,32 3,31 noslice,vd2,eep 33,1 33,9 33,12 32,6 noslice,vd2,uep1 33,1 33,9 33,12 32,6 noslice,vd2,uep2 33,1 33,9 33,12 32,6 noslice,vd2,uep3 33,1 33,9 33,12 32,6 noslice,vd2,uep4 33,8 33,7 33,19 32,59 slice13,mvc,eep 32,79 32,76 32,54 3,69 slice13,mvc,uep1 32,54 32,69 32,54 3,84 slice13,mvc,uep2 32,42 32,68 32,34 31,84 slice13,mvc,uep3 32,29 32,51 32,37 31,84 slice13,mvc,uep4 32,11 32,26 32,16 31,84 slice13,sim,eep 32,42 31,99 31,21 29,79 slice13,vd,eep 34,33 33,94 33,16 33,48 slice13,vd,uep1 34,33 33,94 33,16 33,48 slice13,vd,uep2 34,3 33,98 33,16 33,32 slice13,vd,uep3 34,28 34,8 33,45 33,3 slice13,vd,uep4 34,28 34,4 33,48 33,3 slice13,mvc2,eep 32,22 32,14 31,42 3,22 slice13,mvc2,uep1 32,24 31,9 31,57 3,22 slice13,mvc2,uep2 31,75 32,1 31,69 3,16 slice13,mvc2,uep3 31,49 31,64 31,57 3,15 slice13,mvc2,uep4 31,19 31,37 32,38 3,12 slice13,vd2,eep 33,7 33,7 33,13 32,57 slice13,vd2,uep1 33,7 33,7 33,13 32,57 slice13,vd2,uep2 33,7 33,7 33,13 32,57 slice13,vd2,uep3 33,7 33,7 33,13 32,57 slice13,vd2,uep4 33,5 33,6 33,18 32,56 slice1,mvc,eep 32,67 32,61 32,4 3,49 slice1,mvc,uep1 32,66 32,73 32,46 31,48 slice1,mvc,uep2 32,68 32,4 32,59 31,46 slice1,mvc,uep3 32,32 32,43 32,45 31,46 slice1,mvc,uep4 32,13 32,18 32,5 31,78 slice1,sim,eep 32,53 32,5 31,43 29,78 slice1,vd,eep 34,32 33,98 33,39 33,43 slice1,vd,uep1 34,32 33,98 33,39 33,43 slice1,vd,uep2 34, ,39 33,27 slice1,vd,uep3 34,29 34,3 33,37 33,26 slice1,vd,uep4 34,29 34,3 33,55 33,26 slice1,mvc2,eep 32,41 31,93 31,45 3,13 slice1,mvc2,uep1 32,26 31,81 31,47 3,12 slice1,mvc2,uep2 31,95 31,83 31,3 3,6 slice1,mvc2,uep3 31,72 31,63 31,53 3,6 slice1,mvc2,uep4 31,51 31,56 31,73 3,5 slice1,vd2,eep 33,9 33,8 33,13 32,61 slice1,vd2,uep1 33,9 33,8 33,13 32,61 slice1,vd2,uep2 33,9 33,8 33,13 32,61 Page 199 of 214

201 slice1,vd2,uep3 33,9 33,8 33,13 32,61 slice1,vd2,uep4 33,5 33,8 33,16 32,61 slice75,mvc,eep 33,3 32,73 32,34 31,18 slice75,mvc,uep1 33,3 32,67 32,36 31,54 slice75,mvc,uep2 32,8 32,53 32,4 32,27 slice75,mvc,uep3 32,71 32,36 32,26 32,28 slice75,mvc,uep4 32,66 32,33 32,19 32,56 slice75,sim,eep 32,59 32,2 31,51 3,49 slice75,vd,eep 34,25 33,96 33,31 33,2 slice75,vd,uep1 34,25 33,96 33,31 33,2 slice75,vd,uep2 34,22 33,95 33,44 33,2 slice75,vd,uep3 34,22 33,95 33,44 33,2 slice75,vd,uep4 34,19 33,96 33,66 33,18 slice75,mvc2,eep 32,56 32,14 31,59 31 slice75,mvc2,uep1 32,39 32,18 31,7 31,12 slice75,mvc2,uep2 32,6 31,99 31,63 31,9 slice75,mvc2,uep3 31,97 31,86 31,98 31,8 slice75,mvc2,uep4 31,51 31,48 32,4 31,8 slice75,vd2,eep 33,1 33,5 33,2 32,15 slice75,vd2,uep1 33,1 33,5 33,2 32,15 slice75,vd2,uep2 33,1 33,5 33,2 32,15 slice75,vd2,uep3 33,1 33,5 33,2 32,15 slice75,vd2,uep4 33,7 33,7 33,9 32,63 slice5,mvc,eep 32,83 32,63 32,6 31,1 slice5,mvc,uep1 32,89 32,57 32,62 31,62 slice5,mvc,uep2 32,68 32,48 32,49 31,62 slice5,mvc,uep3 32,69 32,5 32,43 31,9 slice5,mvc,uep4 32,69 32,5 32,48 32,48 slice5,sim,eep 32,13 31,84 31,48 3,5 slice5,vd,eep 34,28 33,95 33,18 33,4 slice5,vd,uep1 34,28 33,95 33,18 33,4 slice5,vd,uep2 34,3 33,94 33,33 33,4 slice5,vd,uep3 34,3 33,94 33,33 33,4 slice5,vd,uep4 34,25 33,98 33,41 33,38 slice5,mvc2,eep 32,4 31,94 31,59 31,13 slice5,mvc2,uep1 31,84 31,81 31,65 31,13 slice5,mvc2,uep2 31,74 31,82 31,57 31,12 slice5,mvc2,uep3 31,72 31,7 31,8 31,12 slice5,mvc2,uep4 31,43 31,49 31,71 31,2 slice5,vd2,eep 32,53 32,52 32,65 32,16 slice5,vd2,uep1 32,53 32,52 32,65 32,16 slice5,vd2,uep2 32,53 32,52 32,65 32,16 slice5,vd2,uep3 32,53 32,52 32,65 32,16 slice5,vd2,uep4 32,51 32,51 32,63 32,14 Table 3-13 Loss rate intervals SNR = 17, # Experiments: noslice,mvc,eep 35,22 32,94 31,96 31,76 3,59 29,26 noslice,mvc,uep1 34,92 32,68 32,36 31,65 3,58 3,16 noslice,mvc,uep2 34,43 32,45 32,41 31,58 3,71 29,84 noslice,mvc,uep3 34,13 32,89 32,69 31,47 3,83 29,83 noslice,mvc,uep4 34,6 33,11 32,9 31,92 31,24 29,92 noslice,sim,eep 35,7 33,33 32,79 32,6 31,13 29,86 noslice,vd,eep 35,8 34,46 34,9 33,43 32,65 31,21 noslice,vd,uep1 36,22 34,86 34,36 33,58 32,68 31,28 noslice,vd,uep2 26,32 25,89 25,98 26,16 25,95 25,92 noslice,vd,uep3 36,21 34,87 34,62 33,69 32,73 31,43 noslice,vd,uep4 36,13 35,3 34,87 33,8 32,98 31,53 noslice,mvc2,eep 36,55 34,47 33,75 33,18 32,4 3,44 noslice,mvc2,uep1 36,55 34,38 33,39 33,1 31,63 3,24 noslice,mvc2,uep2 34,99 33,49 33,74 32,7 32,5 3,39 noslice,mvc2,uep3 34,24 33,15 33,48 32,14 32,1 3,74 noslice,mvc2,uep4 34,25 32,76 33,1 31,93 32,4 3,9 noslice,vd2,eep 35,89 34,63 34,61 33,56 32,8 31,59 noslice,vd2,uep1 35,89 34,63 34,61 33,56 32,8 31,59 noslice,vd2,uep2 26,25 25,83 25,91 26,6 25,89 25,83 noslice,vd2,uep3 35,78 34,86 34,77 33,74 32,8 32,3 noslice,vd2,uep4 35,96 34,97 34,67 33,92 32,84 31,99 slice13,mvc,eep 36,85 33,82 33,3 32,31 31,99 3,7 Page 2 of 214

202 slice13,mvc,uep1 35,76 33,74 32,76 31,98 31,75 3,1 slice13,mvc,uep2 35,2 33, ,8 31,18 29,6 slice13,mvc,uep3 34,8 32,71 32,54 31,86 31,24 3,17 slice13,mvc,uep4 33,97 32,41 32,32 31,38 31,45 3,13 slice13,sim,eep 35,72 34,6 33,59 32,7 31,69 3,94 slice13,vd,eep 37,7 35,5 34,78 34,7 33,3 32,32 slice13,vd,uep1 36,7 35,81 34,97 34,85 33,37 32,36 slice13,vd,uep2 28,4 27,43 27,41 27,84 27,33 26,89 slice13,vd,uep3 36,52 35,71 35,48 35,13 33,87 32,95 slice13,vd,uep4 36,75 35,78 35,46 35,22 33,99 33,51 slice13,mvc2,eep 34,44 34,9 33,69 33,1 31,98 3,89 slice13,mvc2,uep1 35,65 33,94 33,47 32, ,13 slice13,mvc2,uep2 35,12 32,25 32,9 31,82 32,5 29,9 slice13,mvc2,uep3 34,91 32,67 32,9 31,26 31,79 3,33 slice13,mvc2,uep4 33,89 31,83 31,8 29,95 31,96 3,19 slice13,vd2,eep 36,14 35,9 35,27 34,75 34,2 33,21 slice13,vd2,uep1 36,14 35,9 35,27 34,75 34,2 33,21 slice13,vd2,uep2 27,84 27,27 27,24 27,6 27,15 26,69 slice13,vd2,uep3 35,89 35,21 35,17 34,94 34,2 33,5 slice13,vd2,uep4 35,84 35,21 35,4 34,99 34,39 33,26 slice1,mvc,eep 35,43 33,92 32,92 32,9 31,37 31,22 slice1,mvc,uep1 35,3 33,15 32,62 32,56 31,34 3,88 slice1,mvc,uep2 34,66 33,33 32,57 32,8 31,6 3,51 slice1,mvc,uep3 34,48 32,92 32,78 31,73 31,1 3,24 slice1,mvc,uep4 34,24 32,41 32,18 31,79 31,3 3,33 slice1,sim,eep 35,7 34,1 33,35 33,28 31,98 31,32 slice1,vd,eep 36,68 35,42 34,91 34,36 33,6 32,38 slice1,vd,uep1 36,37 35,83 34,96 34,52 33,16 32,42 slice1,vd,uep2 27,78 27,19 27,14 27,55 27,14 26,94 slice1,vd,uep3 36,55 35,78 35,37 34,8 33,83 33,8 slice1,vd,uep4 36,8 35,84 35,58 35,8 34,2 33,66 slice1,mvc2,eep 36,23 34,4 33,71 33,72 32,21 31,67 slice1,mvc2,uep1 35,7 33,77 33,89 33,38 32,5 31,77 slice1,mvc2,uep2 34,71 33,42 33,24 32,7 32,22 3,19 slice1,mvc2,uep3 34,79 33,18 33,24 32,42 32,2 3,37 slice1,mvc2,uep4 34,7 32,25 32,49 31,26 31,88 3,97 slice1,vd2,eep 35,97 35,6 35,13 34,62 33,83 33,25 slice1,vd2,uep1 35,97 35,6 35,13 34,62 33,83 33,25 slice1,vd2,uep2 27,66 27,6 27,2 27,32 26,98 26,77 slice1,vd2,uep3 35,83 35,24 35,14 34,72 33,86 33,42 slice1,vd2,uep4 35,8 35,19 34,97 34,93 34,15 33,59 slice75,mvc,eep 36,3 33,65 32,51 32,38 3,95 31,14 slice75,mvc,uep1 34,51 33,7 32,4 32,25 31,28 3,74 slice75,mvc,uep2 34,9 32,97 32,34 31,92 31,2 3,51 slice75,mvc,uep3 34,3 32,83 32,35 31,54 3,67 29,76 slice75,mvc,uep4 34,59 32,88 32,6 31,57 3,72 29,98 slice75,sim,eep 35,4 34,1 33,4 33,4 31,94 31,44 slice75,vd,eep 36,42 35,4 34,39 34,15 32,97 32,42 slice75,vd,uep1 36,42 35,42 34,48 34,17 33,6 32,59 slice75,vd,uep2 28,29 27,23 27,13 27,6 27,2 26,87 slice75,vd,uep3 36,49 35,72 34,88 34,49 33,3 32,8 slice75,vd,uep4 36,52 35,69 35,24 34,65 33,65 33,8 slice75,mvc2,eep 35,45 34,1 33,59 33,26 32,25 31,52 slice75,mvc2,uep1 35,67 33,91 33,57 33,31 32,28 31,18 slice75,mvc2,uep2 35,7 33,28 33,16 32,6 32,3 3,55 slice75,mvc2,uep3 34, ,92 32,12 31,87 3,43 slice75,mvc2,uep4 33,7 32,22 32,28 31,7 31,52 3,69 slice75,vd2,eep 35,83 35,7 35,11 34,65 33,72 33,42 slice75,vd2,uep1 35,83 35,7 35,11 34,65 33,72 33,42 slice75,vd2,uep2 28,33 27,18 27,9 27,41 26,96 26,79 slice75,vd2,uep3 35,78 35,11 35,6 34,7 33,94 33,37 slice75,vd2,uep4 35,77 35,37 35,9 34,95 34,17 33,55 slice5,mvc,eep 35,59 32,99 32,1 31,25 3,74 3,66 slice5,mvc,uep1 34,96 32,8 31,95 31,16 3,38 3,14 slice5,mvc,uep2 34,79 32,84 31,92 3,94 3,3 29,86 slice5,mvc,uep3 34,31 32,75 31,95 3,91 3,46 29,63 slice5,mvc,uep4 34,57 32,93 31,76 3,99 3,45 29,77 slice5,sim,eep 35,2 33,65 32,8 32,5 31,43 3,48 slice5,vd,eep 35,63 34,5 33,92 33,46 32,91 32,8 slice5,vd,uep1 35,63 34,5 33,92 33,46 32,91 32,8 slice5,vd,uep2 29,44 28,68 28,18 28,22 28,4 27,98 slice5,vd,uep3 35,6 34,39 34,1 33,58 32,93 32,11 Page 21 of 214

203 slice5,vd,uep4 35,69 34,62 34,21 33,65 33,7 32,11 slice5,mvc2,eep 35,83 33,79 32,95 32,59 31,64 31,38 slice5,mvc2,uep1 35,68 33,73 33,15 32,5 31,81 31,24 slice5,mvc2,uep2 34,88 33, ,32 31,23 3,63 slice5,mvc2,uep3 34, ,72 31,92 31,21 3,53 slice5,mvc2,uep4 33,34 32,47 31,83 31,54 31,8 3,37 slice5,vd2,eep 35,62 35,6 34,88 34,22 33,45 33,2 slice5,vd2,uep1 35,62 35,6 34,88 34,22 33,45 33,2 slice5,vd2,uep2 29,14 28,11 27,68 27,98 27,34 27,51 slice5,vd2,uep3 35,69 35, ,26 33,51 32,87 slice5,vd2,uep4 35,66 35,16 34,89 34,31 33,59 32,85 SNR = 18, # Experiments: noslice,mvc,eep 37,58 36,2 35,2 33,81 32,38 35,45 noslice,mvc,uep1 37,58 35,71 35,13 33,93 32,57 33,38 noslice,mvc,uep2 36,34 35,44 35,2 33,72 32,54 33,4 noslice,mvc,uep3 35,75 34,92 34,79 33,95 32,83 35,8 noslice,mvc,uep4 35,5 34,76 34,7 33,78 33,18 35,8 noslice,sim,eep 36,74 35,3 35,3 34,6 32,47 33,98 noslice,vd,eep 36,21 36,51 36,9 35,51 34,18 34,93 noslice,vd,uep1 36,2 36,58 36,18 35,51 34,52 35,5 noslice,vd,uep2 25,54 26,64 26,52 26,58 26,21 26,95 noslice,vd,uep3 36,5 36,53 36,14 35,48 34,84 35,5 noslice,vd,uep4 36,6 36,37 36,15 35,61 35,6 34,98 noslice,mvc2,eep 36,55 36,23 35,71 35,4 33,62 31,28 noslice,mvc2,uep1 36,55 35,8 35,47 34,85 33,9 34,56 noslice,mvc2,uep2 36,55 35,7 34,9 34,38 33,43 34,56 noslice,mvc2,uep3 34,8 34,5 34,81 34,22 33,1 35,44 noslice,mvc2,uep4 33,19 34,27 34,22 34,1 33,13 35,24 noslice,vd2,eep 36,63 35,99 35,72 35,31 34,85 33,94 noslice,vd2,uep1 36,63 35,99 35,72 35,31 34,85 33,94 noslice,vd2,uep2 25,47 26,57 26,44 26,44 26,14 26,87 noslice,vd2,uep3 36,59 36,13 35,71 35,53 34,87 33,75 noslice,vd2,uep4 36,59 36,6 35,82 35,55 35,11 35,69 slice13,mvc,eep 37,34 35,67 35,11 34,84 32,95 34,82 slice13,mvc,uep1 37,34 35,33 35,3 34,73 33,4 34,82 slice13,mvc,uep2 35,43 35,28 35,9 34,51 32,71 34,82 slice13,mvc,uep3 33,32 34,44 34,47 34,2 32,83 34,82 slice13,mvc,uep4 31,87 34,42 34,53 33,62 33,14 34,69 slice13,sim,eep 36,34 35,66 35,14 34,41 33,53 34,77 slice13,vd,eep 37,12 36,63 36,4 35,94 35,5 35,55 slice13,vd,uep1 37,12 36,68 36,46 36,3 35,18 34,63 slice13,vd,uep2 28,38 28,51 28,17 28,3 27,84 29,42 slice13,vd,uep3 36,75 36,51 36,49 36,1 35,71 34,63 slice13,vd,uep4 36,67 36,54 36,6 36,22 35,95 34,6 slice13,mvc2,eep 36,23 35,74 35,58 34,74 33,5 35,71 slice13,mvc2,uep1 36,23 35,28 34,72 34,54 33,78 34,45 slice13,mvc2,uep2 36,23 34,55 34,35 34,11 33,12 34,96 slice13,mvc2,uep3 33,17 33,86 34,13 33,65 32,84 34,96 slice13,mvc2,uep4 29,85 33,52 33,52 32,89 32,42 32,58 slice13,vd2,eep 36,14 35,8 35,89 35,7 35,57 35,81 slice13,vd2,uep1 36,14 35,8 35,89 35,7 35,57 35,81 slice13,vd2,uep2 28,14 28,28 27,94 28,9 27,53 28,35 slice13,vd2,uep3 36,13 35,76 35,81 35,71 35,3 35,16 slice13,vd2,uep4 36,13 35,61 35,66 35,63 35,33 36,7 slice1,mvc,eep 37,27 35,49 35,53 34,92 33,36 35,24 slice1,mvc,uep1 37,27 35,36 35,9 34,6 33,24 35,24 slice1,mvc,uep2 35,31 34,94 34,91 34,2 33,52 34,19 slice1,mvc,uep3 34,52 34,2 34,66 33,78 32,8 35,6 slice1,mvc,uep4 33,2 34,24 34,64 33,65 32,74 35,5 slice1,sim,eep 36,33 35,73 35,32 34,62 33,69 34,38 slice1,vd,eep 37,13 36,6 36,31 35,95 34,6 35,98 slice1,vd,uep1 37,13 36,56 36,28 36,1 34,63 34,63 slice1,vd,uep2 27,72 28,44 27,81 28,8 27,59 29,89 slice1,vd,uep3 36,75 36,49 36,39 36,1 35,5 34,93 slice1,vd,uep4 36,72 36,52 36,53 36,23 35,83 34,89 slice1,mvc2,eep 36,23 35,75 35,44 34,82 34,14 35,61 slice1,mvc2,uep1 36,23 35,37 35,9 34,67 34,19 34,73 slice1,mvc2,uep2 36,23 34,41 34,69 34,69 33,91 34,73 slice1,mvc2,uep3 33,72 34,1 34,27 34,3 33,39 35,35 slice1,mvc2,uep4 32,9 33,99 33,99 33,47 32,96 35,4 slice1,vd2,eep 36,14 35,73 35,89 35,68 35,46 36,14 slice1,vd2,uep1 36,14 35,73 35,89 35,68 35,46 36,14 Page 22 of 214

204 slice1,vd2,uep2 27,62 28,26 27,65 27,85 27,41 28,39 slice1,vd2,uep3 36,11 35,71 35,74 35,65 35,25 35,15 slice1,vd2,uep4 36,11 35,61 35,62 35,58 35,34 36,7 slice75,mvc,eep 37,27 35,55 35,8 34,63 33,27 35,38 slice75,mvc,uep1 37,27 35,54 34,89 34,48 33,38 35,38 slice75,mvc,uep2 35,27 35,2 34,9 34,11 33,33 33,72 slice75,mvc,uep3 34,69 34,21 34,64 33,78 32,79 33,83 slice75,mvc,uep4 33,69 34,49 34,47 33,5 32,61 34,68 slice75,sim,eep 36,34 35,66 35,36 34,66 33,5 34,66 slice75,vd,eep 37,16 36,42 36,17 35,77 34,45 34,35 slice75,vd,uep1 36,21 36,41 36,2 35,76 34,55 34,35 slice75,vd,uep ,3 27,77 28,1 27,47 28,89 slice75,vd,uep3 35,92 36,4 36,4 35,88 35,2 34,35 slice75,vd,uep4 35,83 36,48 36,41 36,6 35,71 34,33 slice75,mvc2,eep 36,24 35,65 35,39 34,66 34,26 33,43 slice75,mvc2,uep1 36,24 35,24 35,9 34,58 34,21 34,69 slice75,mvc2,uep2 35,8 34,6 34,43 34,6 33,44 34,69 slice75,mvc2,uep3 32,93 34,39 34,34 34,27 33,6 35,28 slice75,mvc2,uep4 3,13 34,25 34,2 33,32 32,94 34,7 slice75,vd2,eep 36,13 35,81 35,9 35,77 35,53 35,62 slice75,vd2,uep1 36,13 35,81 35,9 35,77 35,53 35,62 slice75,vd2,uep2 28,3 28,28 27,76 27,94 27,38 28,26 slice75,vd2,uep3 36,14 35,72 35,89 35,71 35,37 36 slice75,vd2,uep4 36,15 35,58 35,83 35,76 35,43 36,9 slice5,mvc,eep 37,3 34,99 34,46 33,83 32,7 34,34 slice5,mvc,uep1 35,78 34,64 34,47 33,66 32,7 33,68 slice5,mvc,uep2 35,78 34,41 34,45 33,48 32,51 33,65 slice5,mvc,uep3 35,45 34,17 34,46 33,36 32,32 33,68 slice5,mvc,uep4 35,45 34,26 34,49 33,21 32,45 33,68 slice5,sim,eep 36,37 35,28 34,81 34,28 32,94 34,31 slice5,vd,eep 36,73 36,2 35,58 35,27 33,83 34,18 slice5,vd,uep1 36,73 36,2 35,58 35,27 33,83 34,18 slice5,vd,uep2 29,25 29,44 29,3 29,12 28,51 28,72 slice5,vd,uep3 36,64 36,21 35,87 35,32 34,4 34,14 slice5,vd,uep4 36,64 36,3 35,92 35,37 34,14 34,14 slice5,mvc2,eep 36,26 35,3 35,2 34,46 33,71 34,46 slice5,mvc2,uep1 36,26 34,99 34,98 34,28 33,69 34,46 slice5,mvc2,uep2 36,16 34,39 34,64 33,99 33,51 34,46 slice5,mvc2,uep3 34,36 33,95 34,51 33,73 33,27 34,46 slice5,mvc2,uep4 32,55 33,92 34,12 33,29 32,75 34,46 slice5,vd2,eep 36,19 35,69 35,67 35,5 35,1 34,22 slice5,vd2,uep1 36,19 35,69 35,67 35,5 35,1 34,22 slice5,vd2,uep2 28,86 29,9 28,59 28,62 28,5 29,5 slice5,vd2,uep3 36,17 35,66 35,78 35,6 35,2 34,8 slice5,vd2,uep4 36,19 35,63 35,79 35,6 35,19 35,31 SNR = 19, # Experiments: noslice,mvc,eep 37,3 36,26 35,3 36,55 noslice,mvc,uep1 37,9 36,12 35,23 36,55 noslice,mvc,uep2 36,82 35,99 35,36 35,82 noslice,mvc,uep3 36,67 36,8 35,37 35,82 noslice,mvc,uep4 36,34 35,91 35,3 35,54 noslice,sim,eep 36,57 35,69 35,3 35,81 noslice,vd,eep 37,15 36,9 36,32 36,4 noslice,vd,uep1 37,15 36,96 36,36 36,4 noslice,vd,uep2 26,98 26,78 26,63 26,94 noslice,vd,uep3 37,5 36,93 36,64 36,4 noslice,vd,uep ,94 36,7 36,4 noslice,mvc2,eep 36,5 36,1 35,51 35,44 noslice,mvc2,uep1 36,49 36,11 35,53 35,44 noslice,mvc2,uep2 35,78 35,83 35,8 35,44 noslice,mvc2,uep3 35,5 35,51 34,95 35,44 noslice,mvc2,uep4 35,41 35,17 34,86 35,44 noslice,vd2,eep 36,57 36,42 36,11 35,77 noslice,vd2,uep1 36,57 36,42 36,11 35,77 noslice,vd2,uep2 26,88 26,69 26,55 26,9 noslice,vd2,uep3 36,51 36,44 36,12 35,77 noslice,vd2,uep4 36,41 36,35 36,22 36,6 slice13,mvc,eep 36,64 36,34 35,48 36,37 slice13,mvc,uep1 36,52 36,19 35,54 37,34 slice13,mvc,uep2 36,32 36,18 35,45 36,35 slice13,mvc,uep3 35,86 35,67 35,15 36,35 slice13,mvc,uep4 35,86 35,52 35,35 36,35 Page 23 of 214

205 slice13,sim,eep 36,29 35,7 35,38 36,34 slice13,vd,eep 37,4 36,82 36,52 37,12 slice13,vd,uep1 36,99 36,87 36,56 37,12 slice13,vd,uep2 28,89 28,7 28,52 29,5 slice13,vd,uep3 36,86 36,82 36,68 36,21 slice13,vd,uep4 36,82 36,79 36,72 36,21 slice13,mvc2,eep 36,22 35,94 35,52 36,23 slice13,mvc2,uep1 36,2 35,76 35,13 36,23 slice13,mvc2,uep2 35,27 35,2 34,77 36,23 slice13,mvc2,uep3 34,97 34,82 34,6 34,96 slice13,mvc2,uep4 34,59 34,46 34,51 34,96 slice13,vd2,eep 36,9 36,2 35,91 36,14 slice13,vd2,uep1 36,9 36,2 35,91 36,14 slice13,vd2,uep2 28,62 28,46 28,22 28,83 slice13,vd2,uep3 36,8 35,99 35,79 36,14 slice13,vd2,uep4 35,93 35,89 35,73 36,11 slice1,mvc,eep 37,4 36,37 35,64 36,28 slice1,mvc,uep1 36,83 36,29 35,28 36,28 slice1,mvc,uep2 36,32 35,88 35,2 36,28 slice1,mvc,uep3 35,76 35,66 35,12 36,28 slice1,mvc,uep4 35,64 35,52 35,19 36,16 slice1,sim,eep 36,27 35,59 35,32 35,36 slice1,vd,eep 36,97 36,81 36,43 37,13 slice1,vd,uep1 36,99 36,88 36,53 37,13 slice1,vd,uep2 28,65 28,4 28,31 28,73 slice1,vd,uep3 36,85 36,81 36,69 36,21 slice1,vd,uep4 36,85 36,79 36,74 36,21 slice1,mvc2,eep 36,23 35,91 35,52 36,23 slice1,mvc2,uep1 35,98 35,81 35,18 36,23 slice1,mvc2,uep2 35,31 35,42 35,3 35,35 slice1,mvc2,uep3 35,15 35,3 35,2 35,35 slice1,mvc2,uep4 34,93 34,7 34,94 35,35 slice1,vd2,eep 36, ,95 36,14 slice1,vd2,uep1 36, ,95 36,14 slice1,vd2,uep2 28,46 28,22 28,11 28,64 slice1,vd2,uep3 35,99 35,99 35,78 36,14 slice1,vd2,uep4 35,94 35,89 35,81 36,12 slice75,mvc,eep 36,99 36,14 35,5 34,74 slice75,mvc,uep1 36,65 36,14 35,23 35,8 slice75,mvc,uep2 36,46 35,83 35,4 36,28 slice75,mvc,uep3 36,17 35,54 34,86 34,6 slice75,mvc,uep4 35,8 35,49 34,82 36,11 slice75,sim,eep 36,3 35,68 35,4 35,42 slice75,vd,eep 36,92 36,74 36,36 36,79 slice75,vd,uep1 36,96 36,78 36,35 35,89 slice75,vd,uep2 28,54 28,34 28,24 29,46 slice75,vd,uep3 36,84 36,75 36,5 35,89 slice75,vd,uep4 36,83 36,81 36,59 35,89 slice75,mvc2,eep 36,21 35,86 35,29 36,24 slice75,mvc2,uep ,75 35,14 36,24 slice75,mvc2,uep2 35,54 35,39 35,3 35,28 slice75,mvc2,uep3 35,28 35,4 34,95 35,28 slice75,mvc2,uep4 35,5 34,6 34,79 35,28 slice75,vd2,eep 36,11 36,7 36,1 36,17 slice75,vd2,uep1 36,11 36,7 36,1 36,17 slice75,vd2,uep2 28,58 28,34 28,23 28,44 slice75,vd2,uep3 36,2 36,4 35,88 36,16 slice75,vd2,uep4 35,95 35,95 35,84 36,14 slice5,mvc,eep 36,76 35,75 34,99 35,44 slice5,mvc,uep1 36,49 35,61 34,94 35,44 slice5,mvc,uep2 36,29 35,35 34,8 35,44 slice5,mvc,uep3 35,98 35,35 34,73 34,56 slice5,mvc,uep4 35,89 35,33 34,71 34,63 slice5,sim,eep 36,21 35,51 34,96 35,31 slice5,vd,eep 36,79 36,39 36,1 34,97 slice5,vd,uep1 36,79 36,39 36,1 34,97 slice5,vd,uep2 29,77 29,55 29,32 3,9 slice5,vd,uep3 36,8 36,44 36,18 34,97 slice5,vd,uep4 36,81 36,49 36,22 35,86 slice5,mvc2,eep 36,9 35, ,38 slice5,mvc2,uep1 35,84 35,65 34,85 35,38 slice5,mvc2,uep2 35,61 35,31 34,65 35,38 Page 24 of 214

206 slice5,mvc2,uep3 35,44 35,9 34,64 35,38 slice5,mvc2,uep4 34,92 34,77 34,36 35,38 slice5,vd2,eep 36,16 36,8 35,9 35,44 slice5,vd2,uep1 36,16 36,8 35,9 35,44 slice5,vd2,uep2 29,53 29,22 29,6 29,83 slice5,vd2,uep3 36,11 36,8 35,84 35,43 slice5,vd2,uep4 36,5 36,1 35,83 36,17 Table 3-14 An overall comparison of all coding methods, slice modes and protection methods can be visualized by looking at Figure In the figure, noslice and slice5 clusters have a larger green range than others. Among slice75, slice1 and slice13 MVC and MVC2 are two winners having EEP and UEP1 protection methods applied.. Page 25 of 214

207 Figure Page 26 of 214

Development and optimization of coding algorithms for mobile 3DTV. Gerhard Tech Heribert Brust Karsten Müller Anil Aksay Done Bugdayci

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