Once you complete the synthesis, no next step is to perform an implementation.
Again, remember that specifying a constraint before proceeding to an implementation is mandated.
They will just go ahead and click on an implementation.
No, depending on the constraint that we specify, add logic will be pleased.
The specific politician in an FPGA that so often we perform and implementation will be understanding
their logic is straight, so we are utilizing only a single technology that you could see over here.
Right?
So let's analyze out of all the laughs that we have on our budget, which we are utilizing for the limitation
upon the logic.
So our implementation is successful.
We'll just go ahead and click on open implementation to say, OK, and then we'll just be analyzing
where exactly ideologic is straight.
Now, if you analyze the schematic, great.
So if you go to an implementation design that I didn't analyze the schematic.
So you have exactly the same schematic, right?
So the schematic that we have in the case of the synthesis and implementation domain, see OK.
And this will be in most of the cases until unless you outline implementation strategies.
OK, so if you try to use the area and that is some of the same and then you'll be finding implementation
of schematic is different as compared to synthesis schematic.
But if you do not apply any optimization strategy in that case, OK, your implementation schematic
as well as in the systematic will be almost identical.
Right.
And that is what we are all talking over here, right?
And now when we go to a device rate, so.
If you analyze the place where we have utilized the the place where we added our logic is this one.
So this light is highlighted with the blue color, and you could clearly see the reason because we are
utilizing G50 night.
So which is why no fly output equipment, right?
And then the other thing that we have is over here, right?
So this is, I guess, our next input.
This data represent our output.
Great.
And 15 and 15 percent are in purple great, so we have the G 15.
We're here, right?
Then I'll put this at this position, right, and then last one is.
P15, which is over here, right?
So depending on the constraint that you specify, the specific location will be chosen.
OK, and here we have I like.
OK, so this basically represents 98 that we are employing, right?
So now you understand the usage of an implementation rate, so this basically announcing this is have
converted are still cool to the XP to reproduce, OK, and then when you specify construing the specific
location is identified where we'll be adding.
Right.
So once you complete an implementation, now will go ahead and we restore Lost Bridges program and debug,
OK, here.
The first step is you need to upgrade to the rest of the option that you see in a synthesis and implementation
will be discussing as we progress further.
So if you just analyze the flow that we have in and flew, navigate it.
So we completed a simulation, we completed an analysis, we completed a synthesis and now we also completed
an implementation rate.
And we already did this when we are working within simulation.
So we'll be finding this war option.
I disable there.
But now we completed synthesis and an implementation rate.
And due to this, you will find out that all of this for options are deliberate.
And this also makes sense because we have an edge deal where we go from a behavioral verification.
But when we perform a synthesis, our digital code is transformed to a primitive state, so it becomes
mandatory that we verify whether our design is still working as expected.
Similarly, when we consider an implementation right now, when we are having a similar design without
an optimization strategy.
So I think this is an implementation booth schematic that see.
But in a case of a complex design where you have I an optimization strategies, you could clearly understand
that there might be differences in an implementation rate.
So it becomes mandatory that we also verify that it is working correctly when we implement our design.
So remember, whenever you complete, the synthesis will just go ahead and again from boost synthesis
function functional simulation.
So this will verify whether I design the synthesis design is still working correctly.
Right.
So we'll go ahead and click on that option.
This will again open our V for Mirror, right?
And now you can see we have a possibility, OK, Libya and why?
So we'll just be forcing an input.
Right click Forced Log one two zero.
OK, and the parade that will be choosing for any use and nine for B will again be using a political.
Three hundred nine will again be evaluating all the stimulus four thousand milliseconds.
So let me just verify whether our design is working.
Okay, great.
So when we have one one, so output should be one that is happening over here, when zero zero or two
zero one zero should also give us zero, the only case that we need to verify is 018.
So here we see how to this.
So it is still working.
Correct, right?
The next step after you verify the behavior, of course, and this is functional simulation will just
be going ahead and perform post implementation.
Functional simulation.
OK, here also will be doing the same thing for slot one two zero.
Handed down the second.
For me, three ending nanosecond rate and Will just getting hit on Grenfell Tower journalistic heroes.
You could see the scene before, right?
So our design is looking perfect in both Optus and this, as well as after implementation.
Now we are ready to generate a bit.
So bitstream is something that will be going on to an FPGA, right?
They just hit on John Edwards.
Now, since we already completed an implementation, this won't be taking much time.
So our biggest deal is completed.
Now it's time that you can take your heart away to your personal computer and we'll just head on open
hardware management, right?
So once you open and highway manager, you get an option open target, right?
So you'll just be clicking on open target and an auto connect.
So this will automatically identify the wall, which is connected to your PC.
OK.
And once your ball is identified, we will just go ahead and go grab my device, right?
So you'll be fine finding we have a option.
One is of extreme fighting, which is a big fight that we have.
The other one is a debate.
So when we add an aioli, which is an integrated logic and later use foreign hybrid debugging, there
will be finding and finding analytics file inside it.
Okay, since we have no formal debugging.
So this is a great tool.
Just click on Program FPGA and then you could also up the state on an LLC as you change the state.
All right.
So this completes that entire loop of an FPGA right small aggregator is very, very helpful here.
So first, we have a two ways of specifying design.
It may either be a text based source, or it may either be a schematic basis of state.
Once you complete your source, you proceed for a functional verification by performing a behavioral
simulation.
Ideally, analysis gives you the first view of an ideal quote.
So the typical system that you are designing, whether it is matching through the schematic that you
have chosen right, then you have a synthesis or synthesis, transform your go to something that are
returned the state, then you have an implementation.
So before implementation, it is mandatory that you specify a constraint.
Okay?
And then depending on the constraint, the specific side on an FPGA will be choosing, their logic will
be placed.
And finally, you have a program in debug where you will be generating a bitstream, connecting FPGA
and then downloading a big fight on two and FPGA.
The last step will be to verify your behavior on that highway.
Right?