WEBVTT 00:00.070 --> 00:06.390 Now, what will do it since from the beginning, we are just working within a single bit input and output 00:06.390 --> 00:13.350 board will consider an example that will give us an insight of how you use a multi bit size with input 00:13.350 --> 00:14.010 and output. 00:14.190 --> 00:20.340 OK, and then follow our De Développement exchange rate and to implement to understand this, we will 00:20.340 --> 00:21.750 be considering this example. 00:21.760 --> 00:25.650 So this this forward binary to Greek or converter to expression is very simple. 00:25.650 --> 00:29.340 So we have a system and we are able to replace it with a basic logic. 00:29.350 --> 00:35.700 It so you could clearly see in an internal of our system, we only have a be psychologically trait. 00:35.700 --> 00:41.970 So hence we prefer to go with an dataflow more state right at an input site and B rate, which is of, 00:41.970 --> 00:43.820 say, forward at an output site. 00:43.830 --> 00:47.030 We have achieved OK, which is again of space for. 00:47.210 --> 00:53.700 Now what we want to do is we will be declaring one new source code, right, and they will try to implement 00:53.700 --> 00:55.700 this entire system, right? 00:56.700 --> 00:57.990 So let it just go ahead. 00:57.990 --> 01:01.330 And I'll a new design source to our existing project. 01:01.330 --> 01:01.590 Great. 01:01.590 --> 01:04.800 So we select designs to click on this plus button, right? 01:04.800 --> 01:06.980 And will choose either to create design tools. 01:07.000 --> 01:07.770 Click Next. 01:07.770 --> 01:15.600 Right here we will be creating a new file, so just click on Create File and we name this as binary 01:15.600 --> 01:17.130 to create right. 01:17.550 --> 01:19.770 Then we click OK and then finish. 01:19.990 --> 01:23.940 So this will automatically open up about where we could specify input and output. 01:24.120 --> 01:24.360 Right? 01:24.840 --> 01:30.000 So in this case, you could clearly observe that B is having a sides of orbit, right? 01:30.210 --> 01:34.800 And the output that also have a size of orbit, right? 01:34.800 --> 01:41.460 So we need to declare to put each of 64bit, one will have to input direction and either will have an 01:41.460 --> 01:42.510 output direction, right? 01:42.510 --> 01:46.650 So let's just go ahead and declare B right so that represent an input. 01:46.830 --> 01:51.750 And whenever we want to specify a multipage size, we just need to click on this plus, right? 01:51.990 --> 01:58.640 And then we need to specify the minimum and maximum size that we have for our vector. 01:58.860 --> 02:04.960 So in this case, for bitrate so far forward a list, we will be zero and I maybe will be three, right? 02:05.130 --> 02:06.690 This is what we want to specify. 02:06.690 --> 02:10.700 The next one is our output port, so we'll just need this s t right. 02:11.040 --> 02:12.300 The direction will be output. 02:12.300 --> 02:13.710 Again, we will select both. 02:13.980 --> 02:18.690 So again, the image besides will be three and a list besides will be C, right? 02:18.690 --> 02:19.680 So we'll click OK. 02:19.920 --> 02:25.170 This will automatically create a visual template for us where we will start writing article. 02:25.240 --> 02:25.440 Right. 02:25.440 --> 02:31.560 So first thing in a case when you have a multiple sources present in your project is to correctly choose 02:31.560 --> 02:32.640 the top model, right? 02:32.700 --> 02:37.170 So in this example, we want to work with the binary to create code converter, right? 02:37.170 --> 02:43.410 So we'll just be choosing between G and then right click set to desktop, right? 02:43.440 --> 02:45.210 This is the first thing that we do. 02:45.450 --> 02:51.270 The next thing is we go to a simulation source and we choose again b 2G and then we will be setting 02:51.270 --> 02:52.050 a desktop, right? 02:52.890 --> 02:59.280 So whatever you see in a flow navigator will give will be performed with those sources, which are to 02:59.280 --> 03:00.450 say, desktop rates. 03:00.450 --> 03:04.710 And now we go to a design source and we'll start modifying. 03:05.010 --> 03:10.470 So here we have our template right now to access the single bit out of a vector. 03:10.500 --> 03:11.890 The process is very simple, right? 03:11.910 --> 03:15.030 So if you you just need to use the parentheses, right? 03:15.030 --> 03:21.540 So this is a bit different as compared to the C language to remember that C is case sensitive, right? 03:21.660 --> 03:24.210 And visually they insensitive. 03:24.210 --> 03:32.130 Write to whatever rules that you follow in the C may not be valid in of Rachel Rachel. 03:32.340 --> 03:36.630 This could be a good point to remember that we and C are not similar, right? 03:36.630 --> 03:37.500 So they are different. 03:37.770 --> 03:45.420 So in a C, OK, we use the square bracket to access an element in an array, but in a case of a version. 03:45.540 --> 03:45.940 OK. 03:45.960 --> 03:51.330 So whenever you are in a situation where you want to access the bit from an vector, you just need to 03:51.330 --> 03:52.650 use the parentheses, right? 03:52.950 --> 03:56.280 So let me just go ahead and analyze the diagram, right? 03:56.290 --> 04:00.150 So here we have a G3 and that is simply close to right. 04:00.390 --> 04:07.260 So we will be going ahead to access the MSP bitrate to represent the MSP of our output. 04:07.530 --> 04:07.870 Right. 04:07.980 --> 04:13.600 So G, and then we will be utilizing the round bracket or apprentices, right? 04:13.620 --> 04:14.910 Then we use three. 04:15.090 --> 04:19.160 This is how we access the single bit off directory. 04:19.620 --> 04:23.880 Then this will be close to and since we are working with a lead of low modelling state, so we need 04:23.880 --> 04:27.980 to use the concurrent signal assignment operator. 04:28.140 --> 04:36.810 So we use the less than or equal to in the when we want to add the signal assignment operator. 04:37.150 --> 04:37.290 Right. 04:37.320 --> 04:40.950 And this is equal to the MSP based off our input, right? 04:40.950 --> 04:42.900 So be again apparent. 04:42.900 --> 04:44.480 This is a sign that three, right? 04:44.500 --> 04:49.170 So this is how you access the single digit of the vector, right? 04:49.410 --> 04:52.110 In the next case, we have G2. 04:52.110 --> 04:57.420 Rachel G2 will be equal to be three XOR with B2, right? 04:57.420 --> 04:59.700 So this is an expression that we want to add or. 04:59.760 --> 05:07.140 Here, so to access the G2 rate, so it will be G, then don't break it to rate and this will be equal 05:07.230 --> 05:12.770 to be three OK and two axes and it we just need to add a keyword XOR. 05:13.170 --> 05:13.490 OK. 05:13.740 --> 05:21.270 And we do remember this is a very scarce incentive due to you could use XOR in a lower case as well 05:21.270 --> 05:27.300 as uppercase right in the next expression that we have is given will be close to be two x r with B. 05:27.870 --> 05:34.440 So we go ahead the achievement rate and this will be equal to B2. 05:35.070 --> 05:36.630 OK, XOR with. 05:37.650 --> 05:39.300 Bill, this makes its. 05:40.440 --> 05:43.160 And the last expression is for zero. 05:43.210 --> 05:48.280 And this will be equal to be when X or with. 05:49.030 --> 05:50.380 The seal, right? 05:50.680 --> 05:52.660 So this completes the entire goal. 05:52.690 --> 05:58.330 Now, as soon as our goal is completed, we'll get what we're going to do is we will be saving our by 05:58.330 --> 06:00.160 pressing control this night. 06:00.170 --> 06:05.620 So since we already set our morning desktop, we could go ahead, do an ideal analysis and also the 06:05.620 --> 06:06.460 schematic right? 06:07.560 --> 06:13.230 So if you observe, OK, we have one, two and three x.org it and one direct connection between input 06:13.230 --> 06:13.980 and output, right? 06:13.990 --> 06:17.880 So this exactly matches to what we have over here, right? 06:18.200 --> 06:19.960 The next step is alert. 06:20.040 --> 06:25.470 Whatever the next step is, what we're going to do is we'll be adding some random binary values. 06:25.470 --> 06:29.790 So again, we'll be able to win on in simulation, whether we get an equivalent green number, right?