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Collided with simulation is successful.

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Now we go ahead to a fight, we click on export export hardware.

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So this will be a bit of bitstream, right?

4
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So this allows us to program our FPGA for men, right?

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Is it right to boot using the same location where we have Vivaro project that is project onto school

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43 and click Finish, right?

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So once our export is successful, we will start launching.

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I decided to go to digital console.

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Now you will see successfully created in hardware platform, right?

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Then we go to Toulouse and then we launch of deciding.

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So here we will choose projects and the school, 43, which is the directory, we have all the really

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big files.

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So we go to a browse button and then we locate why this project?

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And then here you have project and this got right.

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So this will be the workspace for this ideology.

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So this gives us an flexibility where you could find out all the hardware and software files in a scene

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that right now we go ahead.

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And first step is to invoke an hardware project, right?

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So we click on create that one project.

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We'll just be naming this as Amil GPI.

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Right click next, and then we will be browsing our hybrid platform.

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So this is located in an.

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Why this project project and this of 43 and here you'll find an excessive file, so you just need to

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invoke it and then you'll need to click on finish button.

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Right.

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So this will automatically give and the itis an idea about our hard work black faith.

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So once our hardware platform is ready, the first thing that we do is to remove this out of reach two

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to three, so that can be done by pressing control the AI that will initiate the process of building

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a project.

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So when the bill is finished, just select your phone project, right click on it.

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OK, click on New and then you start creating an application project.

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Great, so please select an application project, click next and choose the theme platform project.

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So this also give us an idea that we could add a multiple track phone project, and depending on which

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platform project we wish to run our application, we get the provision to choose the specific Black

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One project here when we have a multiple black phone project been added into our project, right?

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Here we will be choosing the theme Black Project, click next.

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We'll just be naming the Zs Mill.

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GPIO and disgraced up, remember that you cannot give a same name to your application project as well

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as the black project, right?

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So we usually named our platform project lettuce as you project.

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And then the application project, the Niemi provided project time to school dressed up.

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So this is the strategy that we often follow to name our application project and the platform project.

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So once this is your click next and we will be using stand alone on the S7 Cortex-A9 on this busy right.

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So once this is ready, we will be now using an halloway template.

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So this give us an.

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A list of any which could be used to interact with.

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You are right.

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So let me just go to a small step and here you have had the weight of cigarettes.

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This consists of our main application, which will be executed on an FPGA, right?

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So if you need to change the form, say the process is very simple, right?

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So just right click on this window, right?

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So this is our study, right click on it, choose a preference and then you see a direct link to a text

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ready to right click on it.

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And then you have color forms go in there and this automatically decodes to text one.

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So you just click on an edit button to decide that you want to just choose a 14 click.

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OK, apply, apply.

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So now we start building, right?

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So you'll be finding there are multiple files over here.

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Then we create a new while when we open up the new application project if you go to an image.

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OK, so this stop of board support package, so you just need to go in there.

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So if you just go to a board support package, right, so we have added an image direct, so you'll

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be finding the driver information over here.

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So if you go over here, you could find out that we get GPIO.

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So this is the recommended trailer for V7 GPIO page, right?

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So we are utilizing a GPO paper, so we just need to include this library to get an access to the function,

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which could be used to work with an GPI, right?

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So we go ahead and we include this driver file, right?

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So hashing to you.

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Then we add GP, I'll be s right.

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So this is the driver name which is mentioning that VSP file.

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So Xilinx follow a specific terminology that is the name that is mentioned.

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We're here.

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You just need to add the X-ray.

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So we go ahead and add to the X-ray.

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So you have x GPI.

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Yes.

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So this will be the driver file, which consists of all the functions which could be used to work with

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and GPI, when more important driver that we're required is the driver containing and hide hardware

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information, right?

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And this is X parameters daughter Rachel R2.8, you will be required in almost all the project.

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OK, wherever you require to get an access to any hardware information.

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So once this driver at first we explore the GPI driver, so just click on entry to explore the content

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of each episode driver.

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Now if you go in there.

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OK, so you have certain hand right now, we already know how we utilize the tribal right.

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So here we have a GPIO one fixed structure then.

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You have an instant structure, right, so we follow the same process as discussing the point of the

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so first we copy this config structure.

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We go ahead and we create the pointer of it.

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Great.

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So let me emphasize GPIO can correct.

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So this is the first thing that we require to initialize are predicated.

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The next thing that it requires is an instance structure.

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So we just copy the instance that chirpy studio here and let me just name just as GPI, right?

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So these are the two magnitude thing that they require.

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Next, we declare one function, right?

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So that hasn't written anything.

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And this could be used to initialize our GPI, right?

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So we just need this as Tupaea right, and will be adding all the space that could be used to initialize

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up everything, right?

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So if you go to the GPI driver, right, so you could find out to see if you initialize function, right?

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And you also have a look of confusion.

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So first, we'll just call look up conflict.

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So this help us to need the concrete structure, which will be utilizing it in see if she initialize

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to initialize our framework.

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So if you analyze the look of config, it just required a device to device IDs and hide that information.

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So that could be found out from an experimental coordinates right the GPIO config, OK, and this will

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be close to the lookup config.

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And here we need to parse the device I.D. So you just need to go to an X parameter file and look for

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GPI, right?

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So if you just search for a GPIO, you could find out.

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It takes us to the line number where we have all the data related to what GPL.

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So we just need to copy the device and we need to add this as an argument to our lookup config function.

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So this is the step one.

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So this will give us a conflict structure and that could be utilized along with an instance structuring

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of each address OK to initialize out Typekit.

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So we'll call the initialize.

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We go ahead, OK?

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And then first argument I did have is an instance structure.

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Then we have a config structure and in the set right, so we add an instance searcher.

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Again, remember that instance structure here it required a pointer, right?

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But we haven't declared it to be a point.

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So you just need to pass an address of that structure.

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So ampersand GPI, this is how we will be working with an instance structure in almost all the code

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and config structured servers declare is a pointer, so we just need to GPIO config, right?

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The last thing is a v, etc. So config structure itself consists of a visitor, so you just need to

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use GPA of conflict.

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OK, then we will be accessing the base interest rate.

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So this is how you get access to the etc..

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So once this is specified, OK, they do exist.

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Another way to get a visa address.

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If we go to an X parameter topic and to AGP, IOW could find out there will be set rates.

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So this we said this could also be utilized as a third argument to the June issue.

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Right.

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And if you follow the explosive June issue like this basically written, so if you just explore the

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functionality of it, right?

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So this in the asked, So did you write and ask that you do basically represent the state itself by

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initialization?

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So if this is existing sets, then our initialization is successful and initialization free, right?

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That is what.

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Internet radio exists, so sex is basically is a value of zero 10 zero I initialization is successful

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as our initialization is right to what we're going to do here is we declared one variable, but let

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it just name the said status right?

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And that will be storing the value that has been written by C of June-July.

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Correct?

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And then we verify whether its status is equal to existing success.

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That is the case we'll just use.

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Tell have.

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OK, and we mentioned GPIO in it.

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Success rate, again, we will be adding a new line, correct rail and would just mention the printer.

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OK.

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Do you elect three?

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Right?

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So this is how you perform an initialization of anybody set it right.

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So we just go to a driver there.

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We find out.

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Look at whether we have a presence of a local up.

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So if you look up, one fig is president and CEO of G Initializes Present of US, which ended the conflict

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structure by passing a device IED to a local conflict.

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And then we use the config structure along with an instance structure on a base edits to initialize

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alphabetically to once initialization.

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We go to a mean program now here you have an init platform.

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In that moment, being the platform provides the function, which allows us to work with N, C and D

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to write or C tokens.

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So it will be keeping that OK and then we will be calling this function in our main application.

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So this will flow from initialization of our GPI.

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Now we will be find out the EPA is that I dare to.

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Set the direction for output and to send a detective great, say if you go to again the GPIO tribe,

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right, so you have EPIs that could be used to interact with an entire bank.

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OK, but instead of an entire bank, we want to interact with the pin.

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We know that Ben seven is where we have our reality, right?

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So we also have a pin API to allow us to interact with our pins, right?

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So we have set the direction right to.

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This could be used to set up the direction if you explored the functionality by flipping by clicking

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F3.

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OK, so this set the direction of the specified BEN.

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It does require an instance pointer as our first argument.

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Then Ben is the pin number to which the data is to be read and write.

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So we want to write the data where we have it and that is on pin number seven.

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Wickets of second argument will be the pin number.

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And third will be a direction right to zero for input direction and one for and output direction.

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So we'll just be copying this.

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We go back to an, I mean application right now.

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We will be calling.

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This first argument is an instance structure.

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So its structure is.

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Again, if you can see almost all the EPA's will require a pointer to an instant structure.

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So whenever you specify an instance structure, you need to mandatorily added ampersand, right?

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Typekit Ampersand GPO pin number seven.

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OK, and then the redirection we want to set is an output rate, so that leads and output will just

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be writing one.

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Now let's write an application that will allow us to see a blinking effect on another year.

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So we want to continuously see a blinking effect.

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So we'll just be calling awhile one and then we want to write the reader.

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So first, let's write a one two analogy.

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So to do that, we do have a function, right?

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So we have a function to read the pin value and write up invalid, right?

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00:12:56,560 --> 00:13:00,790
So here you could specify dates and structure again, up in number and the redirect.

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00:13:00,790 --> 00:13:03,040
We want to write that we just copy this.

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We go back to our main application.

201
00:13:06,820 --> 00:13:07,180
OK.

202
00:13:07,420 --> 00:13:12,580
First is an instance structure, so I am placing UPI open number seven and the data that we want to

203
00:13:12,580 --> 00:13:13,500
write is right.

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00:13:13,870 --> 00:13:15,400
Then we will be waiting for.

205
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A delay of one second.

206
00:13:17,590 --> 00:13:21,280
So two hour delay, we have a sleep, OK, so this provides the delay.

207
00:13:21,280 --> 00:13:27,160
In second, whatever argument that you specify will be the delay that has been provided by the sleep

208
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function.

209
00:13:27,520 --> 00:13:30,910
So here argument is one that this will provide the delay of one second.

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Right.

211
00:13:31,270 --> 00:13:34,240
Then we again call the siem rape and function.

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00:13:34,570 --> 00:13:34,930
OK.

213
00:13:35,080 --> 00:13:41,920
But this time we will be writing is so it will be turned on for us one nanosecond and then we will be

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00:13:41,920 --> 00:13:43,720
keeping it off for one nanosecond.

215
00:13:43,750 --> 00:13:46,310
Right this way, we will be getting a blinking effect.

216
00:13:46,330 --> 00:13:48,610
So again, we need to add a delay of one second.

217
00:13:48,880 --> 00:13:51,260
So this completes and Typekit race.

218
00:13:51,270 --> 00:13:51,580
So what?

219
00:13:52,180 --> 00:13:54,700
Why we referred this as a simple benefit, Alice.

220
00:13:54,850 --> 00:13:56,920
So we just need to perform an initialization.

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Second, the detailed addiction and we are ready to send the reader to a briefing.

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00:14:00,940 --> 00:14:04,800
But when we considered an intermediate and a complex benefit, it's a day.

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00:14:04,840 --> 00:14:12,400
We also need to set up the differing frequency ranges, different clock ranges and then the wider range,

224
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the mood up on operation and then only be able to write a redirect.

225
00:14:16,240 --> 00:14:23,140
So usually when we consider a very, very large complex, so you'll need to do three to four configuration

226
00:14:23,140 --> 00:14:24,520
before you actually saying that.

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00:14:24,790 --> 00:14:30,190
But when we consider a simple paper, do you just need to set up the dedication and you are ready to

228
00:14:30,430 --> 00:14:30,700
write?

229
00:14:31,600 --> 00:14:35,050
So this is how you work with an API, right?

230
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So here we performed an initialization.

231
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We are also verifying whether initialization is successful or not.

232
00:14:40,840 --> 00:14:41,110
Right?

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Then we set up the direction and we finally are writing a detailed so we are writing one for one second

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and then zero for one second.

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Right.

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So let's just go ahead and first build up project, right?

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So to build the project?

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Just press control.

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This will automatically see a project, build an entire project and generate an LFA, which will be

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finally executing on next page.

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So once bliss finish.

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OK.

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We select our application logic, right click OK, and then we have an option debug launch on hard,

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right?

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But this will automatically program our FPGA.

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OK, so before you proceed to performing a debugging, you need to make sure that you have connected

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your FPGA.

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To the right to once programming is sexist, you will automatically see pointer way here, right?

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We know will connect the serial terminal that we have over here, right?

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So we are utilizing and you are very fitted, right.

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So we already know that it is operating at one one five two zero zero.

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So we go to a serial terminal, click on this plus button.

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OK, so the board rate at which we are operating is one one five two zero zero, then we will be using.

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Right.

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So once this is done, you will be getting this disconnected on foot.

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Then we just need to click on this resume button.

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So once you click on this resume button, you could see the status as UPI.

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And it is successful.

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So if you observe the world, you could actually see the blinking effect on the mirror that is pressing

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on.