Xilinx evaluation is a toolset that we are using throughout this course here, I'm going to briefly
explain some of their features.
More details about each feature will be described whenever we use them along the course.
Xining Zelada consists of several tools that are used to describe, simulate, debug and synthesize
a design at a different level of obstructions to be implemented on designing subjects.
Each tool performs a specific task.
And this is like, I'm going to give you a big picture of the design flaw.
The main goal of this software tool is converting a hardware design description into the final FPGA
configuration.
Several languages, including the very lock system C, C, C, plus plus an open seal can be used to
describe the hardware design.
In this course we focus on c C++ as a high level description language.
The first step is the design capture in which the design description is verified and possible errors
are reported.
The capture process mainly focuses on the linguistic syntax and semantics of the hardware modules,
connections among them and airports.
After writing the code, simulation is an optional.
But essentially, step simulation is one of the main debugging techniques that designers spend most
of their time, almost 70 percent, to verify their coats.
There are different levels of stimulation provided by the evaluation world, such as high level stimulation,
low level HDL simulation and hardware software simulation, whereas the high level simulation can be
used for verifying the functionality of a design.
The low level Archdale simulation can be used for functional correctness as well as cycle Accuride verification.
The simulation integrates the software and hardware parts in order to bring the cycle accurate verification
into the high level synthesis design flaw.
In this course, we rely on high level simulation and simulation to debug our design code analysis is
the primary step before applying synthesis optimization techniques, data and control dependencies.
Timing and hierarchy analysis are the most important tasks in this step.
These tasks hold the next step to apply synthesis optimization more efficiently.
Notice that developing the design code to ease the code analysis can improve the final design performance.
In Etchells design flaw, understanding the data and control dependencies among statements plays a crucial
role in developing an efficient coat.
Therefore, throughout this course, I will try to easily explain these dependencies and different code
development techniques to help code analysis step sentences is the most important part of the we are
the design suite.
Generally, two levels of sentences are available, high level sentences and logic synthesis others,
while actualised translates as C, C++ System C or open a description of a design into its equivalent
Archil else.
Logic Synthesis converts the article description into an atlas of logic.
Gates high level synthesis is the main subject of discourse, and I will talk about some of its techniques
used for digital system design in future lectures.
The implementation ISTEP uses the FPGA library and building blocks to implement the Netlist generated
by the synthesis of step.
This a step performs all tasks necessary to place on Grodner onto device resources.
The class system is bitstream generation and programming.
This system generates the configuration fine, also known as a bit of stream that can be used to program
an FPGA.
Concentrating on the design flaw will be our next step.
These are the takeaway messages designing Super Bowl Title IX tools that is used for developing a harder
circuit for designing suffrages.
In our course, we use these tools to convert the C C++ description of a design into the FPGA bettison
for.
Now the question, what is the difference between simulation and simulation in Etchells?