Overview
An interconnect component connects initiators and targets in a system. A single initiator system simply requires a decoder and multiplexor, which are explained in the following sections. In a multi-initiator system, an interconnect is necessary for signal routing and arbitration between initiators to the proper target. This route is necessary for address, control, and write data signals. This specification does not include the specific methodologies implemented for multi-initiator systems, including single or multi-layer interconnects.
Learn more about Bus Fabric IP core
This post discusses the network-on-chip (NoC) approach and explains how Agnisys can help you generate NoCs automatically for your designs.
Generate scalable NoC IPs with IDS-NoC™ for efficient data transfer, distributed routing, and high-performance SoC communication.
In today’s semiconductor industry, System-on-Chip (SoC) design has become increasingly complex. Modern SoCs integrate multiple intellectual property (IP) blocks, each designed by different teams, vendors, or even geographies. These IPs vary in functionality—processors, memory controllers, peripherals, accelerators, and interconnects—but must work smoothly together in a single chip.
For six decades, Moore's geometric scaling drove progress in semiconductors. That industry compact no longer holds: returns from pure dimensional shrinking have flattened, leading-edge design budgets exceed one billion dollars per chip, and cost-per-transistor at the most advanced nodes is no longer falling.
This paper describes a CSoC platform and configurable digital subsystem IP which can be deployed for development of IOT edge devices. The paper encompasses the different attributes of IOT edge device that can cater multiple industry segments, key features and benefits of CSoC platform, components of the digital subsystem IP that enables rapid prototyping of SoCs for IOT applications.