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Let us start with a demonstration of an intermediate American state.

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So when we consider a timeout or a compass, we have the following list of all time which are available,

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including processing system.

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Right.

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So first, let's start with the private time so you can look to that thing processing system.

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So when we see a private time, what that basically mean, they are enabled by default when we do not

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need to do anything to enable them, right?

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So they will be available as an independent block with the processing system and we could utilize them

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as a timer or a counter, depending on the specific requirements that we are targeting, right?

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So first, we'll proceed with that.

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Now, remember, since we haven't covered anything related to an inch up do now, OK, so we will be

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predominantly focusing on the full mode of over time, right?

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So what will more basically mean is we will be utilizing the CPU resources to continuously check whether

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our timer is expired or not.

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Grace and such operation is that a few days in full operation where we are utilizing the CPU resources

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to better counter you just to a value of zero.

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They do exist in another mode of an operation of a timer and that is referred to as an interest, right?

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So there we will be waiting for the timer to expire.

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We will be doing some other task and this timer expires.

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It will automatically trigger an interrupt.

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And that basically conveys the message that our timer expired rate Rachel as we progress further and

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discuss and they will be discussing the second mode of Operation Rachel.

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We will be predominantly focusing on the whole mode of the timer in this specific section, right?

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So they'd be covering some of the timer, not all the timer, but this will give us a fundamental foundation

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on top of which you could explore the other time also.

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All right, so let it just proceed with an watchdog timer, OK, which is again, 32 bit now.

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Remember, the private CPU timer operates at half of the sync frequency rate, so I think of that 667

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megahertz so good.

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The time that it's a little bit timer and 32 bit washed out timer operates eight six six seven by two.

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That is three three three point three to make so sort of this fundamental concept.

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Now we go to the fundamental clock design, right?

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So here we have created a new project.

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Highlighted as engrossing system notices with the help of a decent script that we have created, right,

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and we know that since we are working within private time, we do not need to enable or disable anything

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to do that the independent block, which are available with the in-person system and they are enabled

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by default.

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So we just need to go ahead and create the bitstream and start working around an application code.

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So that is what we're going to do here.

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We go to a two step right click on the block to Z and we will be creating and still operate.

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So this is our step one as we complete our blog design and we know that we only have two codes have

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been present, right?

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So we have a leader and fixed.

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I learned from our past experience.

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We already know that these are already mapped to their respective higher bitrate, so we do not need

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to perform an intermediate synthesis just to verify whether boots are connected to the respective hardware.

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So we go ahead.

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I can read the bits you make to as soon as Albert's room is ready will be proceeding to export and Harvard

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files OK and do a scene directory.

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We will be creating a platform project as well as an application project.

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Remember to choose the seamed A. You have your project for why it is all right.

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So this gives us an flexibility of having an entire hardware and software file in this scheme that it

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will directly be starting to write an application code you need to export and hardware fight.

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You need to create a platform project using the file that you have exported.

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OK.

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And third thing that you need to do is to create an application project where you will be utilizing

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in Hollywood.