WEBVTT 00:00.300 --> 00:02.270 So we already discussed what the. 00:03.520 --> 00:05.590 Hope from the LNP. 00:06.100 --> 00:13.930 Now let's get started with an actual first category of technology that we have enough programmable logic 00:13.930 --> 00:14.950 devices and simple. 00:15.490 --> 00:20.900 OK, so they consist of and Ruzena columns like architecture. 00:20.920 --> 00:27.540 So, for example, be simple, beautiful architecture, very similar to what we have in MPL. 00:27.740 --> 00:34.500 OK, so they have a programmable aderet, whereas fixed or how they look. 00:34.810 --> 00:37.360 Will we like to present in a simple format. 00:37.660 --> 00:39.650 So we have any barling. 00:39.910 --> 00:43.450 OK, so this is and then we have any Barling. 00:43.810 --> 00:47.620 Similarly we also have B and be able to. 00:48.920 --> 00:50.360 This and this. 00:51.750 --> 00:59.460 And then you have a series of anger, depending on which integrated circuit of especially you are utilizing. 00:59.680 --> 01:06.620 So let us assume that we have three and available inside our integrated circuit. 01:06.640 --> 01:12.670 And since all connection is fixed, so they might be connected in any of the combination, depending 01:12.670 --> 01:21.510 on the manufacturer, let us decide that we choose to feed all the aggregate to a single district. 01:21.520 --> 01:27.240 So that may be a multiple target, having an arbitrary combination of this and straight. 01:27.490 --> 01:32.470 And then we have this as an output that has been generated by Odjick. 01:33.290 --> 01:41.290 Now we have a horizontal line crossing the zone diet, vertical lines that we have fought for and inputs. 01:41.290 --> 01:41.390 Right. 01:41.510 --> 01:46.390 So we have an horizontal line that basically connect to an aggregate. 01:51.360 --> 02:00.960 And then suppose we want to implement Ebbe, so we'll just connect this and this, no connection can 02:00.960 --> 02:01.920 happen in a two way. 02:01.920 --> 02:03.330 So we end up here. 02:03.780 --> 02:08.130 People are referred to as a one time programmable logic. 02:08.310 --> 02:11.580 OK, so it consists of a fuse, which are metal lengths. 02:11.580 --> 02:17.720 Once we fuse a connection, it is not possible to do a game programming. 02:18.090 --> 02:20.310 So people are one time programmable. 02:20.730 --> 02:27.150 So we just connect the rules and column, which depending on the logic that we wish to implement. 02:27.180 --> 02:33.070 OK, so for example, if you wish to implement, T and B will permanently fuse this to line. 02:33.100 --> 02:37.610 So this will give us A and B, OK in there and OK. 02:38.280 --> 02:40.680 And let us suppose we'll add one more. 02:41.700 --> 02:43.380 Logic to it, so ever. 02:43.740 --> 02:49.410 So this will be fused together permanently and this will also be fused together permanently. 02:49.440 --> 02:57.960 OK, so especially consist of a piano as a basic logic building block. 02:57.990 --> 03:03.460 OK, so we have a programmable line connection that has all connections have been fixed and they are 03:03.480 --> 03:05.010 allowed one time programmable. 03:05.040 --> 03:12.450 So once we fuse the connection between rules, we do not have any other option than to have a new device 03:12.450 --> 03:13.800 for implementing a new connection. 03:13.830 --> 03:22.140 So this will usually be used since they have a very good or very less power consumption if you compare 03:22.140 --> 03:26.310 with another technology that is used to achieve some kind of functionality. 03:26.580 --> 03:32.510 OK, so they provide a most efficient way of connecting the links. 03:32.530 --> 03:40.560 OK, so in the final product where we have a low power consumer, we go with this, this where we use 03:40.560 --> 03:50.400 to fuse technology so similar to what we discussed, we have something called a lot of generic ideologic 03:50.400 --> 03:52.140 from a little semiconductor. 03:52.620 --> 03:55.350 OK, so similar kind of architecture. 03:55.380 --> 03:57.150 Do we have any. 03:57.150 --> 03:57.980 We have any. 03:57.990 --> 04:00.630 But we have a B and ambivalent. 04:00.690 --> 04:03.690 OK, that javelina and vertical valediction. 04:05.310 --> 04:08.740 Then again, it follows an appeal like strategy. 04:08.790 --> 04:13.830 OK, so we have an programmable and on and horizontal line. 04:14.080 --> 04:18.170 OK, and then finally a fixed R, then they. 04:19.130 --> 04:20.700 And then we finally get away. 04:20.870 --> 04:30.290 But now, instead of utilizing a fuse, G.L. and Riggall basically use an apron to have a reprogramming 04:30.290 --> 04:33.470 capability so they can be programmed multiple times. 04:33.510 --> 04:40.370 So, for example, in between this to link where we wish to achieve a connection, we will be having. 04:40.440 --> 04:44.500 OK, so we will be having a transistor that secure here. 04:44.510 --> 04:46.850 And these are basically a floating transistor. 04:46.880 --> 04:54.800 OK, so we will be having a series of transistors that exist between this connection and so on and so 04:54.800 --> 04:55.130 forth. 04:55.410 --> 05:03.120 OK, so the advantage of transistors, even though the fact is they can be prudent multiple times per 05:03.140 --> 05:03.740 the requirement. 05:03.780 --> 05:07.570 OK, so these are the simple devices that we start with. 05:07.570 --> 05:14.090 The first one is then specialty, which consists of a whole set of columns, and then the connection 05:14.090 --> 05:17.830 between rules and column is achieved with the help of a metal fuse. 05:17.950 --> 05:24.680 OK, and then we have a technology which basically consists of a programmable switches or transistor 05:24.920 --> 05:27.140 which can be used to make a dedicated connection. 05:27.470 --> 05:33.080 And the rest of the thing which we discuss for a bill that is eligible for this, the families, that 05:33.080 --> 05:35.060 is a special energy girl. 05:35.210 --> 05:38.620 So they use the same trick to implement a combination of circuitry.