0 1 00:00:21,540 --> 00:00:22,390 Hello. 1 2 00:00:22,410 --> 00:00:28,170 Let's continue to question and answers section part 2. 2 3 00:00:28,170 --> 00:00:30,000 So first question. 3 4 00:00:30,000 --> 00:00:37,700 How can I get the analog input readings for the dvp20sx211t plc model. 4 5 00:00:37,920 --> 00:00:42,190 From reading a momentary value to an average reading. 5 6 00:00:42,300 --> 00:00:48,400 Or how can I minimize vibrations in analog reading ends. 6 7 00:00:48,480 --> 00:00:51,770 Is that D1062. 7 8 00:00:51,810 --> 00:01:00,510 It is the average number of analog inputs so you can increase the content of this data try to use 0,47 8 9 00:01:00,510 --> 00:01:07,770 0,47uf capacitor to the plus and minus terminals of the line. 9 10 00:01:07,920 --> 00:01:18,480 You will be reading so you are reading from Channel for example Channel 1 and you can put here 10 11 00:01:21,940 --> 00:01:26,120 one capacitor. 11 12 00:01:26,260 --> 00:01:27,600 This is our capacitor. 12 13 00:01:29,080 --> 00:01:34,150 Imagine like this to the plus and minus terminals. 13 14 00:01:34,150 --> 00:01:37,540 You can put 0,47uf capacitor. 14 15 00:01:37,690 --> 00:01:43,840 So this will reduce the ripple effect of your analog inputs. 15 16 00:01:43,930 --> 00:01:54,340 If H0F0F number is written initially in D1115 all analog inputs 16 17 00:01:54,340 --> 00:02:01,760 will be conditional as the 0-20 mA as analog current input. 17 18 00:02:01,760 --> 00:02:12,160 So if you want to use analog current input for whole analog inputs these H0F0F number 18 19 00:02:12,430 --> 00:02:17,450 needs to written to D1115. 19 20 00:02:17,600 --> 00:02:23,070 Register for question 2, for the 06XA. 20 21 00:02:23,090 --> 00:02:27,580 analog module for reading the input and output channels. 21 22 00:02:27,580 --> 00:02:31,090 What is the difference between Channel 1 and Channel 4. 22 23 00:02:31,120 --> 00:02:33,180 Input signals average value 23 24 00:02:33,310 --> 00:02:42,640 Example data registers between CR6 and CR9 and the Channel1 and Channel4 analog input 24 25 00:02:42,640 --> 00:02:49,810 signals or analog signals available value CR12 and 15 data registers must be used. 25 26 00:02:49,810 --> 00:02:56,260 So what is the difference between the average value of the input signals and it is current value 26 27 00:02:56,950 --> 00:03:05,180 So the answer is that the current value is the instantaneous value of the analog signal at any time. 27 28 00:03:05,230 --> 00:03:14,280 So this is really important instantaneous value of the analog signal at any time mean value or average value 28 29 00:03:14,320 --> 00:03:21,780 On the other hand is the values that have less oscillation compared to average number and instantaneous 29 30 00:03:21,780 --> 00:03:24,820 what signals average in the registers. 30 31 00:03:24,940 --> 00:03:38,180 For example in exact time you can taking an analog inputs and for example 1 2 and 3 and you are dividing 31 32 00:03:38,270 --> 00:03:45,010 to adding these values to three and a average value will be two. 32 33 00:03:45,020 --> 00:03:46,950 For example in this time. 33 34 00:03:47,000 --> 00:03:54,960 So in that moment if you read your analog value it can be three or one or two. 34 35 00:03:54,980 --> 00:04:03,170 This is the difference of the average value or the exact or instantaneous value or signals about 35 36 00:04:03,170 --> 00:04:08,800 analog inputs or outputs for Question 3. 36 37 00:04:08,810 --> 00:04:13,050 There is a fluctuation in 0 to 10 world analog value. 37 38 00:04:13,070 --> 00:04:18,030 How can I prevent this fluctuation for zero to 10 mode. 38 39 00:04:18,050 --> 00:04:27,290 So the question is that if you can add 0,47uf, 16volt capacitor to the 39 40 00:04:27,590 --> 00:04:37,950 plus and minus terminals or ends of your zero to 10 what DC signal you will prevent some voltage fluctuation. 40 41 00:04:38,210 --> 00:04:47,840 And let's take a look to a question for which module should ı use for to read an SSI communication 41 42 00:04:47,900 --> 00:04:55,290 encoder via plc if you need to SSI communication encoder via plc. 42 43 00:04:55,400 --> 00:05:04,970 So let's take a look to our answer SSI encoder support is currently only available on MC motion 43 44 00:05:05,030 --> 00:05:13,680 controllers so unit MC motion controllers to use SSI communication encoder via plc. 44 45 00:05:13,700 --> 00:05:16,520 So let's take a look to question five. 45 46 00:05:16,790 --> 00:05:21,980 I want to read analog value with the analog module 06XA. 46 47 00:05:21,980 --> 00:05:29,090 I want to see the value I changed with the potentiometer in D register but in D 47 48 00:05:29,120 --> 00:05:36,860 register the value constantly shows zero and its value does not change the error light of the analog 48 49 00:05:36,860 --> 00:05:38,210 module is on. 49 50 00:05:38,210 --> 00:05:45,050 So this is our question and let's take a look to our answer. 50 51 00:05:45,110 --> 00:05:51,240 First of all we must be sure to supply 24 will DC to your analog module. 51 52 00:05:51,410 --> 00:05:53,680 Externally okay. 52 53 00:05:53,710 --> 00:06:04,270 This is our analog module but in here also we need to supply to 24VDC to our analog module 53 54 00:06:04,690 --> 00:06:11,380 Channel1 for the analog voltage input verify that you have made the following connection and your 54 55 00:06:11,380 --> 00:06:13,840 analog voltage value with the multimeter. 55 56 00:06:13,870 --> 00:06:28,290 So you need to add your voltage input to V+ and you need to add your minus or common 56 57 00:06:28,290 --> 00:06:31,190 cable to your com or minus to com. 57 58 00:06:31,260 --> 00:06:32,100 That's okay. 58 59 00:06:32,100 --> 00:06:39,060 This is for the voltage input and also you need to supply to your analog module + and - and plus 59 60 00:06:39,060 --> 00:06:49,380 should be 24 volt and minus will be zero volt dc and you need to measure V+ and comm between 60 61 00:06:49,380 --> 00:06:57,300 it for example with the multimeter if you see for example 5VDC and inside of your register if we 61 62 00:06:57,300 --> 00:07:06,240 see this value but 5VDC will be for example if this analog value resolution imagine 0 to 4000 62 63 00:07:06,690 --> 00:07:09,480 according to 5V it should be 2000 63 64 00:07:09,650 --> 00:07:18,600 You need to see inside of your register 2000 so to be sure you need to measure this analog 64 65 00:07:18,660 --> 00:07:20,550 input with the multimeter. 65 66 00:07:20,550 --> 00:07:25,840 This is the exact solution and also these cables connection must be correct. 66 67 00:07:25,860 --> 00:07:31,080 So according to this and this scheme you need to check your connections. 67 68 00:07:31,080 --> 00:07:33,830 So for this video I am finished here. 68 69 00:07:33,840 --> 00:07:35,240 See you in the next video.