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Verbatim, conditionally successful.

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Now we proceed to first export and hard work by date, so we go to fight right click export, select

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export hardware, and this will be including bits.

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Right click next and we will be including the resume in the scene where we have all allowed to file.

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So this project in contract?

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Click next and we finish, right?

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So this will be the same detective where we create a whiteys workspace, right?

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So once exporting of bitstream along with then all the hardware related information is successful.

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We proceed to tools and launch of IP side, right?

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So here, the first thing that we do is to select the theme that actually where we have all our revitalized

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right, so this budget and the school to it.

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So that is the day care that we'll be using.

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And then we will be launching our right exciting.

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So once our wildest ideas really, we proceed with first reading and platform project great.

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So we select the platform project.

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We just named this SBW them.

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Click next.

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And then we will be browsing and excessive file, which represent our platform related information.

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So click on Browse Button, go to the directory where we have our.

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Project 12.

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And here we have our access, if so, we'll just be invoking that in the White House and then we will

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be clicking finished, right?

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So once our platform project is ready, the first thing that we do is to build up our project.

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So just pest control, and this will automatically start a process of building the project.

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And once bail is successful, right, we selected the platform project right click new and then we select

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an application project great.

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So the name that will be choosing for our application project will be BW them and let's go rest, right

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once this is done.

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Click next, and then we will be choosing an halloway complete.

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Now we start building up our application for them.

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So we go to a small step, the first thing that we need to make sure to make our say timely usable is

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to correctly initialize it, right?

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00:02:14,580 --> 00:02:20,310
So we include all the mandatory driver which are necessary for initializing excitement.

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And then we start writing the code for our right.

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So if you go to a board support package, you could clearly see the recommended driver for an exciting

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00:02:30,620 --> 00:02:32,420
time last year, my CTO, right?

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00:02:32,750 --> 00:02:36,180
That is what we call an envelope over here in analysis.

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So hacking Lu x EMR CTA thought that's right.

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So this is a driver file, which consists of all the EPA, which could be used to correctly configure

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00:02:46,730 --> 00:02:52,850
and use, etc. another EPA digital file that we required to.

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Getting access to all the information related to high end hardware is an X parameter.

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So once this two is done now we go to high.

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The MRC driver file and we proceed for initialization of our exit time, right?

44
00:03:07,450 --> 00:03:10,610
So this will be the normal procedure that we follow now here.

45
00:03:10,610 --> 00:03:17,180
Instead of utilizing lookup config and the CFD initialize, what we want to do is we will be utilizing

46
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an initialized function right that is just required, an instant structure and the device.

47
00:03:21,980 --> 00:03:23,630
So we need to declare an instance.

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We will start declaring an instance structure over here, right?

49
00:03:29,060 --> 00:03:34,110
So this is our internal structure and we just named this DMA, right?

50
00:03:34,130 --> 00:03:40,040
So we declare one function, which will be used to perform an initialization of our time, right?

51
00:03:40,460 --> 00:03:47,790
So if you go to a timer chamber, so we have akm-gsi initialization.

52
00:03:47,810 --> 00:03:53,480
So this required an integer structure and the device, I need it and this redundancy dissolve initialization.

53
00:03:53,480 --> 00:03:58,760
So we declare when variable status, OK, and we'll be attaching the value that it's been written by

54
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the MRC yet initialize to the state as variable rate.

55
00:04:01,940 --> 00:04:03,650
So this requires the instance.

56
00:04:03,650 --> 00:04:08,720
Actually, we just ran the device I gave for our timer could be found out from experimental dot.

57
00:04:08,730 --> 00:04:14,300
Actually, you just need to find four timer and then here you have your device, right?

58
00:04:14,930 --> 00:04:17,330
So you just need to add it over here.

59
00:04:17,360 --> 00:04:20,990
So what's this two argument are applied to and initialize?

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It will automatically retain the status of an initialization rate.

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So we'll just be verifying whether status is equal to existing sexists.

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00:04:32,480 --> 00:04:35,390
OK, in that case, we'll just be mentioning that.

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Daimler look in that success.

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So this makes sense.

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00:04:42,890 --> 00:04:44,530
Hence, we could just mention.

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OK, Dimer, and it fit right now.

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What you could do is you could also perform a self-test and then again perform the check, whether it

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in the existing success or not.

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00:04:57,490 --> 00:04:59,490
But that will not be doing over here, right?

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What we're going to do is we'll just be performing an initial audition and we'll proceed for looking

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around with and freedom and you could always performance artist if you wish to perform.

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Right now, we proceed and look for the eps which are provided for PWI, right?

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00:05:17,190 --> 00:05:22,980
And remember when you are working with Peter Lim since that, utilize both the timers.

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OK.

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00:05:23,550 --> 00:05:26,730
So you should not touch the time was right.

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So if you are a that will be to predominantly work with a of and then keep them.

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Unused because VW and Block will be utilizing them to generate the VW only for today.

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Now we have VW and configure, enable and disable rate, so we just go to VW and configure and understand

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what it is today to configure timer to generate VW an output rate.

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So this is how we can figure out VW should have an instant structure for our time.

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Then the period OK and then the hiding rate.

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00:06:00,810 --> 00:06:08,410
So remember that this two argument that is speed of Lampeter and VW, my name is the parade of beatable

83
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signal in nanosecond, right?

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00:06:10,420 --> 00:06:17,500
So if you remember, the argument that we used to pass is the counter-rally rating.

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And when we are working with the timer, OK, so wherever you send the research value, it is basically

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setting up the counter value.

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00:06:24,840 --> 00:06:30,270
But when we consider the values that we are sending over here, does it represent the value of VW and

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signal in nanosecond rates or what that means is.

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00:06:34,350 --> 00:06:39,980
That is, as you VE said, the break to be 10 E-Trade, so it is basically 10 into the industry.

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So now this value, if we said the counter value or the argument over here is then eat right or inside

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this.

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If you specify the period to be 10 eat, then that basically mean the operating Typekit eight or five

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plus cycle will be 10 into the industry.

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Multiply by then this to minus 9.8.

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And then if you just multiply, this will basically give us one second.

96
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So our entire period for a cycle will be one second, and the period for which we will be keeping our

97
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reform high will be later to me.

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00:07:14,820 --> 00:07:17,420
The second argument to be five eight, right?

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So five and destroy it endedness two minus nine, right?

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So if you just solve this, you will be getting five maintenance two minus one, which basically resulting

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to zero point five second rate.

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So this basically mean the entire body it right from zero to this, OK, where we complete our fourth

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cycle, this entire period is one second.

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Right, this right from here to here represent one second and the duration for which I signal will be

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high, it's 0.5 second rate.

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And to calculate the duty cycle, the process is very simple.

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It will be drawn up on demand plus deal rate or even upon the bridge.

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So the rate for us is one and the time for which our pulses high is 0.5 second.

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So here we will be getting 50 percent duty cycle.

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So this is how we will be converting the value that we specify to the time today.

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Now let it just proceed to our main goal and then we'll be declaring the variable rate.

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So first variable is usually which represent the period of a repeat of the.

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OK.

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And this will be setting at E!

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Grades, So 10, and then you'd see two rates of one to three, one, two three and one two.

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Right.

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So this represent aids to Rick.

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And the time for which we want to make up is why we create so new that we do.

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And then we just mentioned high value marriage, so this should be equal to five.

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It creates a fight one two three four five six seven.

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And right now, this two will be adding as an argument to be able to configure and remember when more

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information which is provided.

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Is this one right?

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And deserted, and you eat, which basically represent the duty cycle that will be possibly achieved

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with the configuration that you just specified.

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And this function, this is an caution that you need to take.

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This function needs to be called before enabling DWM.

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Otherwise, the output of BW may be indeterminate, right?

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So before we call BW enable, OK, we need to configure this right.

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And in that case, the good idea will be that first you disable your freedom, limit, configure it

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00:09:38,380 --> 00:09:40,000
and then you enable, right?

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So wherever you need to perform a configuration before enabling the good strategy will always be to

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first call or disable function.

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OK, then by configuration and then enable the specific base.

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So that is what we are going to do here.

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So we have the specific API to disable RTW.

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This just required an instance pointer, right?

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So we go ahead.

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We call this API right.

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And here we just need to pass an instance structure of our timer.

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We just dmaa.

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00:10:09,940 --> 00:10:12,460
Then we perform our configuration, right?

143
00:10:12,460 --> 00:10:18,640
So to perform configuration, we have this EPA and this and you iterate, which represents the duty

144
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cycle.

145
00:10:19,000 --> 00:10:24,250
So let's just declare one variable, which is you wait and I will be storing the value of you do cycle

146
00:10:24,250 --> 00:10:25,540
that we are able to you, right?

147
00:10:26,980 --> 00:10:28,570
Now, the caller.

148
00:10:29,740 --> 00:10:36,040
Configure function rate, and then this requires three argument, first one is GMA, then the period,

149
00:10:36,040 --> 00:10:36,280
right?

150
00:10:36,290 --> 00:10:44,470
So it is today and say this variable will be keeping it here and then we have an hyron, right?

151
00:10:45,310 --> 00:10:49,910
So these are the three arguments which are repeatable and consider requiring this rate and duty cycle

152
00:10:50,740 --> 00:10:52,570
will just be storing that in then.

153
00:10:52,960 --> 00:10:58,090
Do you think when this is done and now we are ready to call and enable function?

154
00:10:58,290 --> 00:11:05,430
So after you configure your P.W., you are ready to call our IWM enabled function.

155
00:11:05,650 --> 00:11:08,950
This again required just a single argument that is an instant structure.

156
00:11:09,310 --> 00:11:14,770
So we called GWM Enable and we add two marriages, and it's just such great.

157
00:11:16,070 --> 00:11:21,090
Why is this is what we are going to do is we'll just be painting.

158
00:11:22,860 --> 00:11:25,200
Their duty cycle that we are getting right, so.

159
00:11:27,230 --> 00:11:32,060
Well, again, this is to inside, you know, when we complete our first Typekit.

160
00:11:32,500 --> 00:11:38,050
OK, so we already knew that the parade is stored inside Daimler-Benz, right?

161
00:11:38,240 --> 00:11:44,450
So as soon as our timer rule out, that basically mean that we completed our first strike rate so we

162
00:11:44,450 --> 00:11:46,280
could just go ahead.

163
00:11:46,280 --> 00:11:47,330
And while.

164
00:11:48,020 --> 00:11:53,720
OK, so we already have anyplace that could be used to check whether timer is expired or not.

165
00:11:54,230 --> 00:12:00,320
So we have our pulling function, which is basically returns to when our timer expired, right?

166
00:12:00,590 --> 00:12:01,900
We'll just be calling this.

167
00:12:01,910 --> 00:12:02,990
We go ahead.

168
00:12:03,140 --> 00:12:06,590
We added, We're here with the night operator and this required.

169
00:12:07,820 --> 00:12:08,780
The TMI.

170
00:12:09,850 --> 00:12:17,560
And the counter, which we will be checking, is that device and see you, this is how we recognize

171
00:12:17,830 --> 00:12:23,260
Tamerlan because Tamerlan is someone we just touring the entire break.

172
00:12:23,270 --> 00:12:27,810
So that rules out that basically mean we completed our first cycle.

173
00:12:27,870 --> 00:12:28,150
Right?

174
00:12:28,450 --> 00:12:37,250
If you consider a timer to so that basically stores the time for which we want to make our signal high,

175
00:12:37,270 --> 00:12:37,600
right?

176
00:12:38,080 --> 00:12:46,630
So we will just be waiting for our timer and then we could just mention one more message that is completed.

177
00:12:48,010 --> 00:12:53,350
BW and I could say so this is what we're going to do, right?

178
00:12:53,620 --> 00:12:58,340
So whenever some of the key points that you need to remember is whenever you are working with an BW,

179
00:12:58,540 --> 00:13:01,480
see that you do not use and EPA is right.

180
00:13:01,480 --> 00:13:05,650
So we need to first enable the timers, which are enabled by default.

181
00:13:05,650 --> 00:13:09,880
So you just need to use the IPA as it is without reconfiguring, right?

182
00:13:10,060 --> 00:13:16,030
And when you write an application, you'll see that you do not use the timer, which you are utilizing

183
00:13:16,030 --> 00:13:17,110
for repeatable and right.

184
00:13:17,110 --> 00:13:23,660
And the third important point to note is you need to call B W and configure function.

185
00:13:23,690 --> 00:13:24,280
OK, that is.

186
00:13:24,280 --> 00:13:27,950
You need to configure your BW prior to calling an enabler, right?

187
00:13:27,970 --> 00:13:34,240
So these are some of the key points that we need to remember while utilizing BW.

188
00:13:34,320 --> 00:13:39,970
And then this two arguments, even though this to you that usually do, but this will give us a period

189
00:13:39,970 --> 00:13:41,440
in nanoseconds.

190
00:13:41,470 --> 00:13:41,770
Right?

191
00:13:42,160 --> 00:13:48,880
So let's just observe it every able to get the door on time off, I really need to be zero point five

192
00:13:48,880 --> 00:13:51,430
second and opting for a 0.5 second rate.

193
00:13:51,440 --> 00:13:53,480
So this will just generate a perfect square.

194
00:13:54,040 --> 00:13:57,340
So we must be able to observe the blinking effect on an entity.

195
00:13:57,340 --> 00:14:00,580
So let me just go and try to build up our entire project.

196
00:14:01,620 --> 00:14:06,210
So once built, a successful will be able to get a nail file, which could be downloaded on an FPGA,

197
00:14:06,220 --> 00:14:11,880
right, so then select our application project, right click Debug s launch on Hydra.

198
00:14:13,160 --> 00:14:17,000
So once we switch to the back perspective, it will automatically programmer.

199
00:14:17,390 --> 00:14:21,090
So once programming is successful, we go to a lady's dominant right.

200
00:14:21,170 --> 00:14:27,380
We select this plus button and then here we will be selecting the column six where we have our region

201
00:14:27,680 --> 00:14:29,660
and the board, it will be nine six zero zero.

202
00:14:29,670 --> 00:14:36,780
So once we successfully connected to the column, six eight people from the resume button, right?

203
00:14:36,800 --> 00:14:43,040
So here you would clearly see that we are getting this cycle of 50 percent and this is expected, right?

204
00:14:43,040 --> 00:14:45,520
So this is expected right from here.

205
00:14:45,530 --> 00:14:50,020
Also, because I'll put it this 0.5, that's compared to a total break.

206
00:14:50,330 --> 00:14:52,490
They're getting the duty cycle of 50 percent.

207
00:14:52,760 --> 00:14:53,120
OK.

208
00:14:53,450 --> 00:14:56,750
And then we also completed our BW on cycle, right?

209
00:14:56,750 --> 00:14:59,300
So this will be within one second.

210
00:14:59,330 --> 00:14:59,550
Right.

211
00:14:59,960 --> 00:15:06,140
And now if you absorb the elderly, which is elderly, zero on the.

212
00:15:07,130 --> 00:15:13,480
A future development will you could clearly see the blinking effect on the ability.