0 1 00:00:21,410 --> 00:00:22,130 Hello. 1 2 00:00:22,140 --> 00:00:31,600 In this video we are going to look DVP02DA analog modules and we will give an analog output. 2 3 00:00:31,680 --> 00:00:37,850 We will use channel 1 and Channel 2 as voltage output in here. 3 4 00:00:37,890 --> 00:00:44,030 You can see a scheme for the voltage output and current output for voltage output. 4 5 00:00:44,040 --> 00:00:54,990 We need to put - to common and we will get our voltage from V+ for current output. 5 6 00:00:54,990 --> 00:01:05,980 We will get our current output from I+ and we need to put com also externally and 24 volt. 6 7 00:01:06,030 --> 00:01:13,540 We need to give to our special module DVP02DA module needs 24 volt. 7 8 00:01:13,530 --> 00:01:21,840 Also you are giving 24VDC to your plc- cpu and also you need to put here 24 volt this 8 9 00:01:21,840 --> 00:01:32,640 is also really important for DVP02DA analog module control register 1 is output mode setting so 9 10 00:01:32,670 --> 00:01:44,730 mod 0 is 0 0 0 so be 0 and 1 and 2 just 3 bits for Channel 1 and 3 and 4 and 5 these bits are for 10 11 00:01:45,060 --> 00:01:54,570 Channel 2 if you want to adopt your mode 1 output voltage mode Unit 2 right 0 0 and 1 for example if 11 12 00:01:54,570 --> 00:02:05,120 you want to adopt your output as current mode and it is more 2 You need to write 0 1 0 as binary. 12 13 00:02:05,140 --> 00:02:08,360 This is equal to 1. 13 14 00:02:08,530 --> 00:02:17,170 So control register 10 and eleven is Channel 1 output value is control register turn and Channel 2 output 14 15 00:02:17,170 --> 00:02:22,480 value is control register eleven and the important point is here. 15 16 00:02:22,780 --> 00:02:25,450 K 0 and K 4000 16 17 00:02:25,690 --> 00:02:33,400 So if we adopt our output it as voltage for Channel 1 and Channel 2 and this output voltage mode will 17 18 00:02:33,400 --> 00:02:34,970 be 0 to 10 volt 18 19 00:02:35,110 --> 00:02:41,480 So 10 Volt will be equal to 4000 and 0 will be equal to 0 19 20 00:02:41,560 --> 00:02:45,260 So go to ISPsoft and create a new project. 20 21 00:02:45,460 --> 00:02:47,020 Leave it like this. 21 22 00:02:47,020 --> 00:02:56,530 We can use PLC type as we in the programs area right click to here and select new and leave it like 22 23 00:02:56,530 --> 00:03:00,690 this doesn't matter for a moment I'm going to say okay 23 24 00:03:05,990 --> 00:03:18,720 and the project page is open and LD M1000 and I will put there to command I will select this at 24 25 00:03:18,720 --> 00:03:23,560 function all types and to insert it. 25 26 00:03:23,580 --> 00:03:29,070 So what was it how was we are using to instruction. 26 27 00:03:29,190 --> 00:03:37,500 The first one and one is number of special module and imagine we put these DVP02XA module to nearby 27 28 00:03:37,530 --> 00:03:39,900 of the CPU as first module. 28 29 00:03:39,990 --> 00:03:48,890 So because of these these modules number will be 0 and the control register that we gonna write in it. 29 30 00:03:48,930 --> 00:03:50,310 So let's take a look. 30 31 00:03:50,310 --> 00:03:53,000 Control register is 1. 31 32 00:03:53,130 --> 00:03:55,560 So we will write. 32 33 00:03:55,650 --> 00:03:58,530 Control register 1 via. 33 34 00:03:58,550 --> 00:04:00,980 Or inside to control register 1. 34 35 00:04:01,020 --> 00:04:07,480 So we need to define which control register that we are going to write as one. 35 36 00:04:07,500 --> 00:04:10,780 So in here that ought to be written in CR 36 37 00:04:11,020 --> 00:04:17,870 Wait 0 that we are going to write a number of data to be written at the time will be 1. 37 38 00:04:17,880 --> 00:04:24,390 This is the complete settings of voltage output and what will we do. 38 39 00:04:24,480 --> 00:04:28,740 We will use to channel 1 and Channel 2 as voltage output. 39 40 00:04:28,890 --> 00:04:33,530 So we need to define 2 more 2 instruction. 40 41 00:04:33,600 --> 00:04:40,300 Come here click these 1 and say 2 here. 41 42 00:04:40,680 --> 00:04:51,970 Inserted and again click this one and come here and add one more to instruction 2 our project and the 42 43 00:04:51,970 --> 00:04:55,140 second one we will write first. 43 44 00:04:55,150 --> 00:05:05,940 Channel 1 again first module and control register of this module will be 10 and that ought to be written 44 45 00:05:06,130 --> 00:05:18,040 for example the one hundred and one data and zero and eleven and the one hundred and two and first and 45 46 00:05:18,400 --> 00:05:23,580 let's put it like this a little bit more up. 46 47 00:05:23,720 --> 00:05:33,510 So what we did in here d 100 will be channel 1 voltage. 47 48 00:05:33,660 --> 00:05:35,430 So how it is working 48 49 00:05:39,570 --> 00:05:42,340 D 100 equals to 0. 49 50 00:05:42,450 --> 00:05:45,300 Then voltage output 50 51 00:05:48,820 --> 00:05:55,730 will be zero if one hundred equals to 4000. 51 52 00:05:55,910 --> 00:05:58,910 So voltage output 52 53 00:06:04,080 --> 00:06:10,820 will be 10V , if the one hundred equals to two thousand. 53 54 00:06:10,820 --> 00:06:14,390 So what will happen voltage output 54 55 00:06:18,700 --> 00:06:21,650 will be five volt. 55 56 00:06:21,730 --> 00:06:30,700 And these are all similar for D102 these are voltage output. 56 57 00:06:30,750 --> 00:06:40,770 And also it is between zero to four thousand and zero to four thousand equals zero to 10 Volt and in 57 58 00:06:40,770 --> 00:06:44,760 here I am just copy like this. 58 59 00:06:44,790 --> 00:06:52,920 So what we are doing in here about the application what we are trying to learn if we want to reach a 59 60 00:06:52,950 --> 00:07:01,300 one special module we need to use I mean we can read from specia modules with the from instruction. 60 61 00:07:01,300 --> 00:07:10,120 But if we want to write as output some things in special modules or we special modules we need to use 61 62 00:07:10,120 --> 00:07:12,570 TO command and for TO command. 62 63 00:07:12,730 --> 00:07:20,590 M1 is number of special module M2 is control registers special modules no S means 63 64 00:07:20,770 --> 00:07:27,490 data to be written in control register and the N means number of data to be written at a time so we 64 65 00:07:27,490 --> 00:07:33,220 can use 3 TO command to adapt our outputs as voltage and voltage values. 65 66 00:07:33,220 --> 00:07:44,420 So if we want to expand this application for example if we can say LD greater than D100 for example 66 67 00:07:45,950 --> 00:07:59,020 five hundred then you can say out Y0 and you can compare it like this and one more network 67 68 00:07:59,080 --> 00:08:01,480 for this I need to move it. 68 69 00:08:02,800 --> 00:08:04,570 To his own position 69 70 00:08:08,400 --> 00:08:09,390 for a moment. 70 71 00:08:09,390 --> 00:08:10,390 Doesn't matter. 71 72 00:08:10,470 --> 00:08:11,880 So again. 72 73 00:08:11,880 --> 00:08:12,770 One more network. 73 74 00:08:14,470 --> 00:08:17,120 Ld lower than for example. 74 75 00:08:17,150 --> 00:08:22,060 One hundred three thousand. 75 76 00:08:23,970 --> 00:08:24,440 Out. 76 77 00:08:25,020 --> 00:08:25,650 Y2 77 78 00:08:25,950 --> 00:08:35,600 So this is just an application to give an outputs and these outputs will be an effect. 78 79 00:08:35,730 --> 00:08:37,770 Your special modules outputs. 79 80 00:08:37,770 --> 00:08:47,370 I mean if you put in D100 2000 value so you will get 5V and imagine 80 81 00:08:52,730 --> 00:09:00,700 your drive is working 50hz , 50Hz = 10VDC 81 82 00:09:00,800 --> 00:09:05,540 So if you give 5V DC to your drive. 82 83 00:09:05,810 --> 00:09:08,750 so drive will turn 25 Hz (50Hz =10/ 5V=25Hz) 83 84 00:09:09,170 --> 00:09:13,300 If you give zero volt to drive will be 0Hz 84 85 00:09:13,340 --> 00:09:23,150 So if you put for example 3000 value from your plc as output and this voltage output will 85 86 00:09:23,150 --> 00:09:36,140 be 7.5 volt and it will equals to 50 hz divided by four. 86 87 00:09:36,140 --> 00:09:37,820 Multiply by three 87 88 00:09:41,770 --> 00:09:48,580 and it means I'm just calculating now 37.5 Hz 88 89 00:09:48,640 --> 00:09:52,210 So this is the usage of the analog output. 89 90 00:09:52,540 --> 00:10:00,110 And according to our factory settings and in here k 0 to k four thousand. 90 91 00:10:00,120 --> 00:10:03,610 But we are not doing in here gain settings and offset settings. 91 92 00:10:03,660 --> 00:10:05,620 Anything else just we are adopted. 92 93 00:10:05,670 --> 00:10:14,190 Our outputs as voltage output and it was not zero and zero and zero and we connected V+ to 93 94 00:10:14,190 --> 00:10:20,790 our drive for example and we assign the one hundred for the Channel One D102 two for Channel 94 95 00:10:20,790 --> 00:10:23,740 2 or channel 0 to channel 1. 95 96 00:10:23,820 --> 00:10:28,080 And in here we write control registered 10 and 11 again. 96 97 00:10:28,110 --> 00:10:28,830 Let's take a look. 97 98 00:10:28,830 --> 00:10:31,630 Channel 1 output value and channel 2 output value 98 99 00:10:31,710 --> 00:10:39,750 So D100-102 must be between 0-4000 and if it reaches to 99 100 00:10:39,750 --> 00:10:46,740 four thousand for example it will give maximum 10V and that all it won't be eleven volt never 100 101 00:10:46,770 --> 00:10:54,840 an ever so the adopted in here first to command as voltage output second to command for Channel One 101 102 00:10:55,170 --> 00:10:57,750 third command for Channel 3. 102 103 00:10:57,930 --> 00:11:04,770 And after that you can write a values to D100-D102or you can compare 103 104 00:11:04,770 --> 00:11:11,480 these values and you can activate anything else or this activate anything else in your PLC projects. 104 105 00:11:11,490 --> 00:11:14,240 So for this video I'm finished here. 105 106 00:11:14,250 --> 00:11:16,050 See you in the next video.