Skip to content
sgm6733 edited this page Jun 12, 2019 · 51 revisions

Arrow High-Speed Converter Platforms featuring technology from Analog Devices & Intel PSG

Table of Contents

  1. Introduction

  2. Platforms

  3. JESD204B Interface Framework

  4. IIO Oscilloscope™

  5. IIO

  6. LibIIO™

  7. Terms of Use

Introduction

Arrow High-Speed Converter Platforms include example designs for high performance Analog to Digital (ADC) and Digital to Analog (DAC) converters. Typical end user applications of this technology include Software Defined Radio and Radar.

These converters offer the flexibility of a selectable wideband frequency range. The converter hardware footprint is reduced by the utilization of the space-saving, high-speed JESD204B serial interface. These interfaces are typically comprised of multiple Giga-bit-per-second serial interfaces. Intel PSG® SoC FPGAs are well suited to interface to these converters and are featured prominently in these platforms. Intel PSG® SoC FPGAs include powerful ARM Cortex-A® processors.

Arrow Electronics™ has used production ready FPGA System on Modules (SOM) in these platforms. They meet stringent industrial requirements and can be used in end-user custom products. SOMs reduce design complexity, enhance time to market, and in some cases, can lower total cost of ownership (TCO).

A platform is typically comprised of:

  • SoC FPGA SOM
  • Carrier card with FMC HPC connector
  • ADI® FMC converter board

Example designs include:

  • FPGA HDL code
  • Linux operating system
  • Custom IIO Linux device drivers
  • IIO Oscilloscope™, a Linux user space application

Each platform is provided with a unique Quick Start Guide, ensuring a good out-of-box experience. Complete example design source code is provided in repositories. This includes source for Linux and FPGA HDL code.

All examples are based on original content provided by Analog Devices® and Intel PSG®.

Platforms

The following platforms are available



Information on this site was obtained from
Clone this wiki locally