A reprogrammable computing platform for JPEG 2000 and H.264 SHD video coding

In this paper, the architecture of a DSP/FPGA based hardware platform is presented, which is conceived to leverage programmable logic processing power for high definition video processing. The system is reconfigurable and scalable, since multiple boards may be parallelized to speed-up the most demanding tasks. JPEG 2000 and H.264, both at HD and Super HD (SHD) resolutions, have been simulated and their performance found on the embedded processing cores. The results show that real-time, or near real-time, encoding is viable, and the modularity of the architecture allows for parallelization and performance scalability

A reprogrammable computing platform for JPEG 2000 and H.264 SHD video coding

In this paper, the architecture of a DSP/FPGA based hardware platform is presented, which is conceived to leverage programmable logic processing power for high definition video processing. The system is reconfigurable and scalable, since multiple boards may be parallelized to speed-up the most demanding tasks. JPEG 2000 and H.264, both at HD and Super HD (SHD) resolutions, have been simulated and their performance found on the embedded processing cores. The results show that real-time, or near real-time, encoding is viable, and the modularity of the architecture allows for parallelization and performance scalability. ©2010 IEEE

Next generation control of transport networks

It is widely understood by telecom operators and industry analysts that bandwidth demand is increasing dramatically, year on year, with typical growth figures of 50% for Internet-based traffic [5]. This trend means that the consumers will have both a wide variety of devices attaching to their networks and a range of high bandwidth service requirements. The corresponding impact is the effect on the traffic engineered network (often referred to as the “transport network”) to ensure that the current rate of growth of network traffic is supported and meets predicted future demands. As traffic demands increase and newer services continuously arise, novel network elements are needed to provide more flexibility, scalability, resilience, and adaptability to today’s transport network. The transport network provides transparent traffic engineered communication of user, application, and device traffic between attached clients (software and hardware) and establishing and maintaining point-to-point or point-to-multipoint connections. The research documented in this thesis was based on three initial research questions posed while performing research at British Telecom research labs and investigating control of transport networks of future transport networks: 1. How can we meet Internet bandwidth growth yet minimise network costs? 2. Which enabling network technologies might be leveraged to control network layers and functions cooperatively, instead of separated network layer and technology control? 3. Is it possible to utilise both centralised and distributed control mechanisms for automation and traffic optimisation? This thesis aims to provide the classification, motivation, invention, and evolution of a next generation control framework for transport networks, and special consideration of delivering broadcast video traffic to UK subscribers. The document outlines pertinent telecoms technology and current art, how requirements I gathered, and research I conducted, and by which the transport control framework functional components are identified and selected, and by which method the architecture was implemented and applied to key research projects requiring next generation control capabilities, both at British Telecom and the wider research community. Finally, in the closing chapters, the thesis outlines the next steps for ongoing research and development of the transport network framework and key areas for further study