WEBVTT 00:00.300 --> 00:07.380 OK, so before actually proceeding to understanding memories, let us in a sense of the internal features 00:07.380 --> 00:16.860 or an internal architecture of, OK, so we have a CLB so configurable logic blocks and then inside 00:16.860 --> 00:19.400 and Silvis, we have slices. 00:19.830 --> 00:25.110 So we're finding out that approximately a third of the slices. 00:25.440 --> 00:30.950 So what slices mean and what Yildiz will understand at the very end of our force. 00:31.560 --> 00:40.020 But let us assume that CLB, something which is used to implement logic functions inside and SPG and 00:40.020 --> 00:43.230 that logic function is implemented with the help of the slices. 00:43.590 --> 00:46.950 So CLV is an abstract abstract. 00:47.850 --> 00:55.160 You can see device or abstract feature or an abstract structure that can be used to implement an object 00:55.170 --> 00:55.680 function. 00:55.890 --> 00:58.920 And inside a CLV you have multiple slices. 00:59.550 --> 01:03.610 So you'll be finding whenever we that in architecture. 01:03.630 --> 01:07.220 So this is the case of Ladislav for seven keys architecture. 01:07.560 --> 01:13.890 So we have all of the slices that slice and logic's slices. 01:14.340 --> 01:21.020 So this can be used to implement the logic, whereas the rest of this is that slice emesis. 01:21.060 --> 01:26.230 So this AMSANT used to implement a distributed memory. 01:26.760 --> 01:37.470 So Slice L cells are used to implement analogical functions, whereas M used to implement or distributed 01:37.470 --> 01:39.130 memories or in fact a memory. 01:39.870 --> 01:44.280 So if you just go further you can actually see a calculation. 01:44.310 --> 01:49.420 So these are the seeds of families and belonging to Spartan's seven. 01:49.440 --> 01:56.160 And if you compare to the slices that you have in an architecture, approximately one third of slices 01:56.160 --> 02:01.250 belongs to a memory and two thirds of the slices belongs to logic. 02:01.260 --> 02:08.760 So you'll be finding this further restrict the amount of the memory that you can get out of a distributed. 02:10.070 --> 02:11.980 Memory are distributed, right? 02:12.260 --> 02:20.420 So usually the line that whenever you required a depth of that depth of one. 02:22.020 --> 02:29.850 Twenty eight or less, you go with their distributed memory and with the date of it. 02:30.780 --> 02:39.120 So if we just compare 72 students, you'd also be finding but let us assume that you are in a situation 02:39.120 --> 02:46.230 where you want to exactly know what is the maximum size of distributed memory that I can get out of 02:46.230 --> 02:52.770 a specific architecture or a maximum maximum size of a block of memory that I can get out of an architecture 02:52.980 --> 02:55.950 so you can look at a specific activity. 02:56.370 --> 02:56.790 So. 02:57.740 --> 03:00.770 Inside Edition, we'll be finding that. 03:01.860 --> 03:08.810 For an Arctic seven, the block which have the dedicated memory blocks available in an architecture, 03:09.390 --> 03:16.560 can give us a memory of being and which is far, far, far high as compared to distributive memory. 03:16.770 --> 03:25.830 And specifically the amount of memory that are distributed can provide assistance if we just go into 03:25.980 --> 03:29.460 an Arctic seven, the world that we are using for this course. 03:29.850 --> 03:39.410 So it'll be finding the EXI seven eight hundred feet will give us a maximum, distributed them to eighty 03:39.830 --> 03:40.550 eight kids. 03:41.400 --> 03:46.650 So this is the maximum distributed we can get out of the Arctic seven. 03:47.220 --> 03:56.700 But always remember when you're required to have a small little memories you can use a slice em or specifically 03:56.700 --> 03:59.880 LCD to implement or distributed memory. 04:00.090 --> 04:09.450 But whenever your memory requirement is far more to the line, can can be set up as one twenty. 04:09.720 --> 04:17.400 But also so if the debt is dipped is greater than 120, we usually prefer to go with a memory and we 04:17.550 --> 04:21.360 give the and it is available for logic function. 04:22.300 --> 04:23.440 And whenever the. 04:24.530 --> 04:30.060 And the size is less than or the depth of the memory that is required is less than 120. 04:30.470 --> 04:36.830 We specifically can go with the distributed memory if a resource vomitus. 04:36.860 --> 04:37.190 Right. 04:37.460 --> 04:46.310 So this is how you can use it to to significantly find out what is the maximum size that I can get out 04:46.310 --> 04:47.840 of our distributed memory. 04:48.320 --> 04:52.310 But usually if you have a larger memory requirement, you go with a memory. 04:52.310 --> 04:56.450 If you have a smaller memory requirement, then you can cross over to the.