H.264 High Profile: Codec for Broadcast & Professional Video Application

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H.264 High Profile: Codec for Broadcast Professional Video Application Overview By Ravi Srinivasan, CoreEL Technologies High definition video content is becoming rampant as more countries are now transitioning into digital life. The ways of delivering High definition content in a bandwidth limited channel have become a challenge in itself. To cater to such high demanding broadcast professional video markets, we require a compression / decompression standard that allows no compromise on the quality of the video that has to be broadcasted over a bandwidth constrained network. Broadcast / Professional Video markets are looking at H.264 as the right compression / decompression technology for such bandwidth limited applications and world leaders in such high end markets are already rolling out products that include H.264 as the de-facto standard. Benefits of H.264 in Broadcast / Professional Video: H.264 / MPEG-4 AVC (MPEG-4 Part 10) video coding is standardized by ITU-T in association with ISO / IEC MPEG, they are together called the Joint Video Team (JVT).,to cater to a wide variety of applications ranging from low data rate, low resolution consumer application to high quality content creation applications. The H.264 standard supports various profiles viz. Baseline, Main, Extended High Profiles and extension to the existing profiles called Fidelity Range Extension (FRExt). The broadcast / professional video markets require High quality video at higher frame-rates like 1080p60 performance. The fidelity range extension enables high quality video by supporting varied chroma sub-sampling formats 4:2:0,4:2:2 4:4:4 with greater color bit-depth ranging from 8-bit up to 12-bits and resolution ranging from QCIF (176x144) to Full HD (1920x1080), both progressive and interlaced scanning. It also supports adaptive block transform switching between 4x4 macro-block (MB) 8x8 MB and weighted prediction for rapid changes or motion in the picture. Latest developments in the standards such as aspect ratio and color space conversion are specifically aided for professional video application. Some of the other standard features that H.264 is known for are as follows: Multiple reference pictures / Picture prediction Motion compensation / estimation Temporal Spatial coding techniques MBAFF / PicAFF De-blocking Entropy coding CABAC / CAVLC Network Abstraction Layer (NAL) unit

The H.264 video provides better picture quality for a given data-rate compared to its predecessors, at the cost of higher compute power for compression and decompression leading to varied implementations using standard PCs/servers, embedded processors, ASSPs, DSPs and FPGAs. DSP vs. FPGA DSP or FPGA based custom hardware are popular implementations for broadcast professional video applications, which demands high performance and high quality video, which can be achieved only by using High profile standard and beyond in H.264. Today with higher performance FPGAs being available it seems to be a better alternative for such demanding applications. These implementations are now possible using single FPGA, which otherwise would require a farm of DSPs for doing the same job. FPGAs provide the same degree of flexibility as DSPs making them more attractive CoreEL s H. High Profile Decoder CoreEL offers high performance, high quality and robust H.264 video decoding solutions on FPGAs for professional / broadcast video applications. CoreEL H.264 hand-coded RTL code is highly optimized for FPGA architecture delivering higher performance at lower clock speed and smaller memory footprint. Figure 1 Video Decoding System

The decoder runs on a single FPGA and is capable of decoding H.264 HD and SD resolutions. It is also multi-channel capable with optimal number of channels decoding simultaneously. In additio to B oad ast a d P ofessio al appli atio s, Co eel s de ode solutio is suita le fo high channel density surveillance applications with higher performance throughput. CoreEL has developed a very compelling H.264 HP decoder solution which is feature rich as well as opti al i pe fo a e. Co eel s H.264 de ode o es i follo i g fla o s ta geti g different end applications needs requirements H.264 Decoder Color Bit-depth Chroma Format Prediction Application Main Profile 8-bit 4:2:0 Originally intended to consumer profile for broadcast storage application High (HiP) Profile 8-bit (4:0:0) 4:2:0 Broadcast storage applications, particularly for High definition television apps Hi10P Up to 10-bit (4:0:0) 4:2:0 Same as HiP but with more bit resolution for more higher quality requirements Hi422P Up to 10-bit (4:0:0), 4:2:0 4:2:2 Professional video applications that use interlaced video Hi444P Up to 14-bit (CoreEL currently (4:0:0), 4:2:0, 4:2:2 supports up to 4:4:4 12-bit) Lossless video applications Very high resolution requirements Hi10 / Up to 10-bit 4:2:0 only AVC 50 Hi422 / Up to 10-bit 4:2:2 only AVC 100 High end professional broadcast video cameras, Postprocessing applications, High bit-rate apps High end professional broadcast video cameras, Postprocessing applications, High bit-rate apps

AVC decoder Panasonic made a breakthrough in high end broadcast / professional video cameras recorderplayers by introducing H.264 technology with frame only processing branded as the AVC, which is used at very high bit-rates such as 50 Mbps and 100 Mbps. AVC has now become de-facto technology in many of the upcoming broadcast / professional video cameras from various other manufacturers. CoreEL has developed AVC decoding solution and has tested for such compliance using professional level bit-streams. CoreEL s AVC Decoder features: CABAC only entropy coding Bit-rate @ 50 Mbits/s Supports 1920x1080 resolution, High10 profile @ Level 4 Supports 1280x720 resolution, High10 profile @ Level 3.2 Support for 4:2:0 chroma sampling format, 10-bit color depth Frames are horizontally scaled by ¾ (1920x1080 is scaled to 1440x1080 1280x720 is scaled to 960x720) Frame rates supported for 1440x1080 60i, 50i, 30p, 25p, 24p Frame rates supported for 960x720 60p, 50p, 30p, 25p, 24p All prediction modes 4x4, 8x8, 16x16 supported CoreEL s AVC Decoder features: CAVLC only entropy coding Bit-rate @ 100 Mbits/s Supports 1920x1080 i / p 1280x720 p resolutions Support for High 4:2:2 profile @ Level 4.1, 10 bit color depth Frame rates supported for 1920x1080 60i, 50i, 30p, 25p, 24p Frame rates supported for 1280x720 60p, 50p, 30p, 25p, 24p All prediction modes 4x4, 8x8, 16x16 supported H.264 frame only codecs are now increasingly used in post production industry. They are basically used for non-linear editing (NLE) and compositing of the video shot by cameras using such a technology. Testing of H.264 Decoder Solution CoreEL has tested its IP cores with ITU-T test vectors from the standardization body itself and industry accepted conformance bit-streams from Fraunhofer Institute. The core has also been tested with professional bit-streams from Panasonic / Mitsubishi for -frame decoder testing.

Error Robustness CoreEL has built the decoder solution with robust error handling. The entire stream is divided into independent NAL unit, if any errors are detected then the decoder stops decoding that particular NAL unit packet and continues to decode the next good NAL unit packet. CoreEL error handling mechanism is such that the decoder does not hang and gracefully exits when inputted with severely corrupted streams. Design Flexibility Modularity: Co eel s de ode solutio is e fle i le a d odula to suit the e ui e e ts of a ide-array of broadcast / p ofessio al ideo su eilla e appli atio s. Co eel s de ode solutio a e customized to achieve the desired bit rate, frame rate, resolution modes, chroma formats and bit-depth etc. Co eel s de ode solutio a e usto ized to a o plish de odi g of multiple streams simultaneously. Multiple streams decoding is required in applications such as multi-viewing. Use-cases can be to simultaneously decode more than one stream and display the video content simultaneously. For example, Quadrant view or picture-in-picture (PiP) in broadcast newsrooms. The customization can be further be extended to support various needs of broadcast professional video applications. For portability across various FPGA hardware platforms, the decoder is designed to be flexible modular. Advantages of CoreEL H.264 Decoder IP: Supports both Main and High Profile solution @ Level 4.2 Highly pipelined scalable architecture Optimized both for memory and speed Lower gate count and Block RAM requirements Programmable color bit depth up to 12-bits Programmable chroma format support: 4:2:0, 4:2:2 4:4:4 Supports resolutions from QCIF to Full HD progressive laced Frame-rates up to 60 fps for HD decode High bit-rates support of up to 100 Mbps Simultaneous multi-channel decode Fully validated on custom built hardware using ITU-T and Fraunhofer test streams Supports Panasonic AVC (I-frame) and H.264 frame (I-P-B frames) decoding