Overview

The course "FPGA Architecture Based System for Industrial Application Using Vivado" is a comprehensive program that focuses on the design and implementation of FPGA-based VLSI systems for industrial applications. Participants will gain practical knowledge and hands-on experience in utilizing Xilinx Vivado software with Artix 7 FPGA boards to develop digital arithmetics, integrate sensors and motors, implement communication protocols, and create IoT applications. By the end of this course, you will be able to: • Understand the architecture and features of Artix 7 FPGA boards. • Install and utilize Xilinx Vivado software for FPGA projects. • Design and implement digital arithmetics including LEDs, adders, buzzer, and pushbuttons using VHDL on FPGA boards. • Integrate sensors such as accelerometers, gesture recognition sensors, and ultrasonic sensors with FPGAs. • Interface motors like stepper motors and DC motors with FPGA kits. • Implement communication protocols including RS232, I2C, and SPI for data exchange. • Develop IoT applications for remote monitoring and control using FPGA technology. • Analyze RTL schematics and configure constraint files for FPGA-based designs. • Validate hardware logic and functionality through simulation and real-time implementation. • Demonstrate proficiency in designing complex VLSI systems for industrial use cases.

Syllabus

FPGA Based VSLI Design and Implementation for Digital Arithmetics Using Vivado

This immersive module is meticulously designed to introduce participants to the world of VHDL programming, focusing on its application to FPGA (Field Programmable Gate Array) design using the Artix 7 FPGA board and Xilinx Vivado software. Beginning with an overview of the Artix 7 FPGA board and the significance of Xilinx Vivado in FPGA projects, the module leads learners through the practical aspects of setting up and simulating basic digital logic circuits. Participants will gain hands-on experience in creating projects from scratch, writing VHDL code for various digital functions, and implementing these designs on the FPGA board. Key concepts such as LED control, push button input handling, and more advanced digital circuits like adders and multipliers will be explored. Through step-by-step guidance, this module aims to equip learners with the knowledge and skills to efficiently develop their FPGA projects, from conceptual VHDL coding to physical implementation and real-time testing on the Artix 7 FPGA board.

FPGA Based VLSI Design and Implementation of Embedded Components and Communication Protoclos Using Vivado

This module offers a comprehensive journey through the design and implementation of embedded components and communication protocols on FPGA using Xilinx Vivado. It starts with the basics of sound generation using buzzers controlled by FPGA, extending to sophisticated digital displays and serial communication protocols. Students will engage in hands-on projects that include interfacing with 7-segment displays and LCDs, and implementing serial communication protocols such as RS232, I2C, and SPI. Each section includes developing VHDL code, configuring constraint files for precise hardware interaction, and analyzing RTL schematics for a deeper understanding of the underlying hardware logic. The module culminates with real-world implementation on the Artix 7 FPGA development board, ensuring students can apply theoretical knowledge to tangible FPGA projects.

FPGA Based VLSI Design and Implementation of Sensors and Motors for Industrial Application Using Vivado

This module delves into the integration of sensors and motors with FPGA using Xilinx Vivado, focusing on industrial applications. Participants will explore various sensors including accelerometers, gesture recognition sensors, capacitive touch sensors, ultrasonic sensors, as well as the principles and interfacing of motors like stepper motors and DC motors. The module covers topics such as sensor basics, VHDL code design, pin configurations, and simulation techniques using Vivado. Additionally, it introduces IoT concepts and VGA interfaces for remote monitoring and control of industrial systems, providing a comprehensive understanding of sensor-motor integration in FPGA-based VLSI design.