FPGA Board Based

zynq xc7z030 board – FII-PE7030 Experiment 8 – Use of ROM, Study the format of .coe and how to edit .coe file to configure the contents of ROM

bitstream, Experiment, FII-PE7030, Use of ROM, zynq xc7z030 board

Experiment 8 Use of ROM 8.1 Experiment Objective Study the usage of internal memory block of FPGA Study the format of *.coe and how to edit *.coe file to configure the contents of ROM Learn to use RAM, read and write RAM 8.2 Experiment Implement Design 16 outputs ROM, address ranging 0-255 Interface 8-bit switch input as ROM’s address Segment display illustartes the contents of ROM and require conversion of hexadecimal to BCD output. 8.3 Experiment 8.3.1 Program Design The first step: the establishment of the main program…

Successfully compiled the simulation library

Experimental Manuals FII-PE7030 FPGA Board Based FPGA Products FPGA Tutor

zynq xc7z030 board – FII-PE7030 Experiment 6 – Use of Multipliers and ISIM

FII-PE7030, ISIM, Modelsim, Multipliers, zynq xc7z030 board

Experiment 6 Use of Multipliers and ISIM 6.1 Experiment Objective Learn to use multiplier Use ISIM to simulate design output 6.2 Experiment Implement 8×8 multiplier, the first input value is an 8-bit switch, and the second input value is the output of an 8-bit counter. Observe the output in ISIM 6.3 Experiment 6.3.1 Program Design The first step: the establishment of the main program framework module mult_sim( input inclk_p, input inclk_n, input [7:0] sw, output [15:0] mult_res, output reg [7:0] count ); endmodule The second step: call multiplier IP core…

zynq xc7z030 board – FII-PE7030 Experiment 4 -Digital clocl comprehensive design result

FII-PE7030 FPGA Board Based FPGA Products

zynq xc7z030 board – FII-PE7030 Experiment 5 – Digital Clock Comprehensive Experiment

Button Debounce, Digital Clock Comprehensive Experiment, FII-PE7030, zynq xc7z030 board

Experiment 5 Digital Clock Comprehensive Experiment 5.1 Experiment Objective Review the segment display content of experiment 3, and the button debounce content of experiment 4; Combine experiment 3 and experiment 4 to design a complete adjustable digital clock; 5.2 Experiment Implement Set four push buttons (left, right, up, down); Left and right push buttons control the calibration function, switch between segment display of hour, minute and second; Up and down calibration by adding 1 and subtracting 1 to the data to be calibrated; Modular design so that the design can…

Experimental Manuals FII-PE7030 FPGA Board Based FPGA Products FPGA Tutor

EVB Board – Basic FPGA design training – FII-PE7030 User Experimental Manuals

EVB Board, FIII-PE7030, xc7z030 ZYNQ

Version Control Version Date Description V1.0 21/11/2019 Initial Release Contents Part One: Introduction to Zynq_7030 Development System 5 1、System Design Objective 5 2、System Resource 5 3、Human-computer Interaction Interface 5 4、Software Development System 6 5、Supporting Resources 6 6、Physical Display 6 Part Two: zynq_7030 Main Resources Usage and FPGA Development Experiemnt 8 Experiment 1 LED Shifting Design 9 1.1 Experiment Objective 9 1.2 Experiment Implement 9 1.3 Experiment 9 1.3.1 LED Introduction 9 1.3.2 Hardware Design 9 1.3.3 Program Design 10 1.4 Experiment Verification 26 Experiment 2 Analysis of Switch Signals via…

Configuration FII-PE7030 FPGA Board Based FPGA Products Hardware Reference Guide

FII-PE7030 Hardware Reference Guide

FII-PE7030

V1.1 Fraser innovation inc FII-PE7030 Hardware Reference Guide Version Control Version Date Description V1.0 08/27/2019 Initial Release V1.1 11/19/2019 Add some SD Card Part and Potentiometer Part Copyright Notice: © 2019 Fraser Innovation Inc ALL RIGHTS RESERVED Without written permission of Fraser Innovation Inc, no unit or individual may extract or modify part of or all the contents of this manual. Offenders will be held liable for their legal responsibility. Thank you for purchasing the FPGA development board. Please read the manual carefully before using the product and make sure…

Experimental Manuals FII-PRA040 FPGA Board Based Risc-V

SOPC (NiosII) system, simulation and verification of RISC-V CPU, Basic FPGA design training, IC design and verification – Altera Risc-V Board Tutorial : Introduction of FII-PRA040 Development System

Basic FPGA design training, FPGA design training, hardware design for RISC-V system applications, IC design and verification, RISC-V CPU, SOPC (NiosII) system

1、Design Objective of the System The main purpose of this system design is to complete FPGA learning, development and experiment with Intel Quartus. The main device uses the Inte Cyclone10 10CL040YF484C8G and is currently the latest generation of FPGA devices from Intel. The major learning and development projects can be completed as follows: Basic FPGA design training Construction and training of the SOPC (NiosII) system IC design and verification, the system provides hardware design, simulation and verification of RISC-V CPU Development and application based on RISC-V The system is specifically…

FPGA Board Based FPGA for Beginners FPGA Tutor Pocket Boards PRA006/PRA010

Use Dual-port RAM to Read and Write Frame Data, use synchronous (or asynchronous ) clock to control the synchronization of frame structure – FPGA Board Beginner Tutorial – Experiment 9

8-bit counter, asynchronous clock, data_len, Dual-port RAM, Frame Data, SignalTap II simulation, synchronous clock, the synchronization of frame structure, three-stage state machine

Experiment 9 Use Dual_port RAM to Read and Write Frame Data 9.1 Experiment Objective Learn to configure and use dual-port RAM Learn to use synchronous clock to control the synchronization of frame structure Learn to use asynchronous clock to control the synchronization of frame structure Experiment Implement Observing the synchronization structure of synchronous clock frames using SignalTap II Extended the use of dual-port RAM Design the use of three-stage state machine Design a 16-bit data frame Data is generated by an 8-bit counter: Data={~counta,counta} The ID of the data frame…

FPGA Board Based FPGA for Beginners FPGA Tutor Pocket Boards PRA006/PRA010

Design 16 outputs ROM, Study the format of .mif and how to edit .mif file to configure the contents of ROM, Use of ROM (Read-only Memory) – FPGA Board for Beginner Tutorial – Experiment 8

decode, Design 16 outputs ROM, Dual_port RAM, Frame Data, segment display, the internal memory block, Use of ROM

Experiment 8 Use of ROM 8.1 Experiment Objective Study the internal memory block of FPGA Study the format of *.mif and how to edit *.mif file to configure the contents of ROM Learn to use RAM, read and write RAM 8.2 Experiment Implement Design 16 outputs ROM, address ranging 0-255 Interface 8-bit switch input as ROM’s address Segment display illustrates the contents of ROM and require conversion of hexadecimal to BCD output. 8.3 Experiment 8.3.1 Introduction to Program This experiment was carried out on the basis of Experiment 7, and…

FPGA Board Based FPGA for Beginners FPGA Tutor Pocket Boards

Building new FPGA projects in Quartus, device selection, PLL setup, PLL frequency setting, Verilog’s tree hierarchy design, and the use of SignalTap II – FPGA Board for Beginner – Experiment 4 -PRA006

BCD_counter display of the digital clock, Block/ Schematic Test, FPGA Board for Beginner, PRA006, use of SignalTap, Verilog HDL’s tree hierarchy design

Experiment 4 Block/SCH Experiment 4.1 Experiment Objective Review building new FPGA projects in Quartus, device selection, PLL setup, PLL frequency setting, Verilog’s tree hierarchy design, and the use of SignalTap II Master the design method of graphics from top to bottom Combined with the BCD_counter project to achieve the display of the digital clock Observe the experimental results 4.2 Experiment Implement Use schematics design to build the project 4.3 Experiment This experiment is mainly to master another design method. The other design contents are basically the same as the…

FPGA Board Based FPGA for Beginners Pocket Boards

FPGA Board for Beginner

FPGA, FPGA for Beginner, Jtag, verilog, VGA Video Interface, VHDL

FPGA for Beginners A field-programmable gate array (FPGA) is an integrated circuit designed to be configured by a customer or a designer after manufacturing – hence the term “field-programmable”. The FPGA configuration is generally specified using a hardware description language (HDL), similar to that used for an Application-Specific Integrated Circuit (ASIC). Circuit diagrams were previously used to specify the configuration, but this is increasingly rare due to the advent of electronic design automation tools. FII was founded on making FPGA technology more approachable for students or FPGA beginners to learn. We partnered with the world leader and founder of modern day FPGA technology,…