1 00:00:24,051 --> 00:00:24,098 ” 2 00:00:24,099 --> 00:00:24,146 ”V 3 00:00:24,147 --> 00:00:24,193 ”Ve 4 00:00:24,194 --> 00:00:24,241 ”Vec 5 00:00:24,242 --> 00:00:24,289 ”Vect 6 00:00:24,290 --> 00:00:24,337 ”Vecto 7 00:00:24,338 --> 00:00:24,384 ”Vector 8 00:00:24,385 --> 00:00:24,432 ”Vector 9 00:00:24,433 --> 00:00:24,480 ”Vector V 10 00:00:24,481 --> 00:00:24,528 ”Vector Vi 11 00:00:24,529 --> 00:00:24,575 ”Vector Vie 12 00:00:24,576 --> 00:00:24,623 ”Vector View 13 00:00:24,624 --> 00:00:24,671 ”Vector View” 14 00:00:24,672 --> 00:00:24,719 ”Vector View” 15 00:00:24,720 --> 00:00:24,766 ”Vector View” W 16 00:00:24,767 --> 00:00:24,814 ”Vector View” Wi 17 00:00:24,815 --> 00:00:24,862 ”Vector View” Win 18 00:00:24,863 --> 00:00:24,910 ”Vector View” Wind 19 00:00:24,911 --> 00:00:24,957 ”Vector View” Windo 20 00:00:24,958 --> 00:00:25,005 ”Vector View” Window 21 00:00:25,006 --> 00:00:25,053 ”Vector View” Window 22 00:00:25,054 --> 00:00:25,101 ”Vector View” Window p 23 00:00:25,102 --> 00:00:25,148 ”Vector View” Window pa 24 00:00:25,149 --> 00:00:25,196 ”Vector View” Window par 25 00:00:25,197 --> 00:00:25,244 ”Vector View” Window part 26 00:00:25,245 --> 00:00:25,292 ”Vector View” Window part 27 00:00:25,293 --> 00:00:25,339 ”Vector View” Window part 1 28 00:00:25,340 --> 00:00:25,387 ”Vector View” Window part 1: 29 00:00:25,388 --> 00:00:25,988 ”Vector View” Window part 1: 30 00:00:26,480 --> 00:00:35,665 To open this window, “Vector View” option from the “View” menu should be used and it is possible to open up to five “Vector Views” of this window simultaneously. 31 00:00:35,689 --> 00:00:42,489 By clicking on the right arrow of “Vector View” icon from the toolbar desired number of windows can be opened. 32 00:00:42,513 --> 00:00:49,542 Here, the first “Vector View” is opened. To better explain this window, first, we close “Detail View” and “Measurement” view windows. 33 00:00:49,566 --> 00:00:56,320 In summary, on this window it is possible to view current and voltage input and output values in different modes. 34 00:00:56,344 --> 00:01:05,113 “Signal”, “Magnitude”, the first harmonic, phase, real value, imaginary values are displayed in “Signal”, “Magnitude”, “Harmonic 1”, “Phase”, 35 00:01:05,137 --> 00:01:08,192 “Real” and “Imaginary” columns respectively. 36 00:01:08,217 --> 00:01:17,423 Also, the arrow of signals can be made hidden in the “Show Arrow” column while the color of arrows can be selected from “Color” column. 37 00:01:18,166 --> 00:01:25,818 Moreover, to add the frequency column to this table, by right clicking in this area and selecting “Table” from “Show/Hide” option, 38 00:01:25,842 --> 00:01:29,906 the frequency column is added to display the frequency of signals. 39 00:01:29,931 --> 00:01:40,325 For example, “V L1-E” signal with a 63.51 volt range and a first harmonic value of 63.51, phase value of 0, 40 00:01:40,349 --> 00:01:48,319 frequency of 50, real value of 63.51 and imaginary value of 0 is depicted with a blue arrow. 41 00:01:48,343 --> 00:01:55,828 Now, by changing the status of “Show Arrow” to “False”, you can see that the vector of this signal is made hidden in “Vector View”. 42 00:01:55,852 --> 00:02:01,342 To optimize the display of “Vector View” vectors, right click on this section and check “Optimize”. 43 00:02:01,366 --> 00:02:12,548 If you want to manually optimize the display of vectors, first you need to uncheck “Optimize” option and then optimize the display of vectors from the related fields at the corners of this page. 44 00:02:12,572 --> 00:02:23,304 Also, if you want to add a signal to be displayed in “Vector View”, by right clicking on the vector section of this window, you should select or remove your intended mode to be displayed from the “Show” option. 45 00:02:23,328 --> 00:02:30,485 By default, only “Output Value” and “Actual” are selected and phase voltage and current values of the device are displayed. 46 00:02:30,509 --> 00:02:34,076 By unchecking “Output Value” and selecting “Line-Neutral”, 47 00:02:34,101 --> 00:02:42,494 you can see that in addition to phase voltage and current values, voltage and current values of neutral point are displayed in table and vector as well. 48 00:02:42,519 --> 00:02:50,402 Also, if you want to display line-line values of output voltage of the device, you should select “Line-Line” from this list and check this option. 49 00:02:50,426 --> 00:03:00,484 Then you will see that the values of line-line voltage of the device are displayed in the above table and the vector display of them is displayed in the below vector. 50 00:03:00,508 --> 00:03:04,054 If you wish to see the symmetrical current and voltages, 51 00:03:04,078 --> 00:03:10,196 select “Symmetrical” option and by doing so you can see that the values of voltage and zero, 52 00:03:10,220 --> 00:03:15,883 negative and positive sequence flows and their vector view are displayed in the below table. 53 00:03:15,907 --> 00:03:18,354 By selecting any of the “Power (Sv)”, 54 00:03:18,378 --> 00:03:30,013 “Power (Sa)” and “Power (Sc)” options, the value of power is calculated in accordance with the current and voltage of the test as well as different calculation methods and then displayed in the related rows. 55 00:03:30,037 --> 00:03:37,596 For example, by selecting “Power (Sv)”, you can see that S1, S2 and S3 quantities are displayed in three rows. 56 00:03:37,620 --> 00:03:45,635 In “Magnitude”, “Phase”, “Real” and “Imaginary” columns, the apparent power value, angle, active power and reactive power are displayed respectively. 57 00:03:45,659 --> 00:03:48,236 Now, since here “Power (Sv)” is selected, 58 00:03:48,260 --> 00:03:57,003 the power value of “Sv” is displayed according to the formulas in the box and after being calculated according to vector method,, is displayed in “Sv” row 59 00:03:57,027 --> 00:04:01,935 Also, in “PFv” section, the coefficient value of apparent power is displayed. 60 00:04:01,959 --> 00:04:12,097 Now, if the user selects “Power(Sa)”, the power value of “Sa” is calculated using the calculation method and according to the formulas in the box and then displayed in “Sa” field. 61 00:04:12,132 --> 00:04:18,314 In “PFa” field, the coefficient of power is first calculated using the same method and then displayed. 62 00:04:18,338 --> 00:04:20,292 If “Power (Sc)” is selected, 63 00:04:20,323 --> 00:04:30,240 the value and coefficient of power are calculated using the algebraic method and the displayed formulas and then displayed in “Sc” and “PFc” rows. 64 00:04:30,272 --> 00:04:37,688 You should keep it in mind that S1, S2 and S3 quantities are the same in all three methods and displayed on the vector. 65 00:04:38,061 --> 00:04:40,323 Also, when the load is unbalanced, 66 00:04:40,347 --> 00:04:50,304 “Power(Power (Sc)” method works better than the others and V_∑ and I_∑ parameters refer to algebraic sum of voltages and algebraic sum of currents respectively. 67 00:04:50,329 --> 00:04:57,931 Also, V and I parameters refer to current and voltage of the system which are calculated in a four-phase system using the displayed formulas