Accelerator Design for Ethernet and HDMI IP Systems for IoT using Xilinx Vivado 18.X

Xilinx Vivado software is used for designing synthesis and implementation of accelerator. The objective of this paper is to understand the concept of intellectual property (IP), IP reuse, custom IP and IP subsystem and to design the subsystem using Xilinx Vivado is used. This paper attempts to design accelerator to make communication possible between High Definition Multimedia Interface (HDMI) and Ethernet for Internet of Things (IoT) using Xilinx Vivado 18.X [4]. The term is increasingly being also defined as objects that “talk” to each other rather in the manner of Internet of Learning Things (IoLT) based IoT to define objects with that of “realistically talk” to each other, given the rising system external & internal environmental complexity and uncertainty factors facing the objects.

Enabling High-Performance Heterogeneous Integration via Interface Standards, IP Reuse, and Modular Design

DARPA is leading a new thrust to leverage mainstream semiconductor design approaches to enable the rapid and cost-effective integration of heterogeneous device technologies. This represents a leap ahead beyond the monolithic silicon approach that has served the semiconductor industry well, but which now creates prohibitive cost and design issues at leading-edge nodes, as well as performance constraints without the benefits of broad device technology options. DARPA's Common Heterogeneous Integration and IP Reuse Strategies (CHIPS) program will develop interface standards, IP reuse methodologies, and modular design approaches with the goal of making heterogeneous integration as straightforward as printed circuit board design and assembly, without compromising device performance. An overview of the program's vision, goals, and progress to date is presented here.

Design of Permanent Magnet Synchronous Motor Control Chip Based on SOPC

This article presents a program for permanent magnet synchronous motor (PMSM) vector control chip design based on SOPC technology. Microprocessor NIOSII and hardware arithmetic unit such as CORDIC and SVPWM, were all integrated in a FPGA by using bus interconnect and IP reuse technology, so that became a dedicated control chip of PMSM. Using hardware and software co-design methods, the chip was designed on Altera's CycloneIII FPGA, chip design flexibility and use small resource. Finally, combined with the power driver board achieved the dual closed-loop control of PMSM. The results show that system have a good performance, which proved that system can be well controlled by the designed IC.