1 00:00:23,733 --> 00:00:25,232 “Table View” window 2 00:00:25,280 --> 00:00:30,101 The first step in designing a test is to make different states of the test in “Table View” window. 3 00:00:30,173 --> 00:00:36,330 This means that to simulate fault state, it is necessary to inject signal several stage and receive feedback. 4 00:00:36,441 --> 00:00:43,648 Every stage of the test is showed on this window in form of a table named “state” and each “state” is made of several components. 5 00:00:43,704 --> 00:00:49,188 To open the “Table View” window, it is possible to use “View” menu or the toolbar at the top of the page. 6 00:00:49,212 --> 00:00:58,964 In the first part of every “state”, RMS value, phase and frequency of the outputs of the device, which are selected in “Hardware Configuration” part, are specified. 7 00:00:58,988 --> 00:01:07,657 In the first column of this part, the RMS value of the outputs of the device is specified. The maximum allowed value is determined in “Limits” section in “Test Object” page. 8 00:01:07,722 --> 00:01:14,800 In the second column, the phase of the output signals of the device is specified which can be between 0 to 360 degrees. 9 00:01:14,825 --> 00:01:26,698 Also, in the third column the frequency of the output signals of the device are specified which can be between 0 to 1.5 kHz. If DC signal is needed, the frequency should be specified as 0. 10 00:01:26,754 --> 00:01:33,836 In the “Bin. Out” section, the open/close state of “Binary Outputs” of the device is determined in accordance with the user’s wish. 11 00:01:33,879 --> 00:01:38,803 In the “Trigger” section, the conditions of “state” completion are determined which can be based on time, 12 00:01:38,827 --> 00:01:47,675 by pressing “space” button by the user and, also, based on receiving a specified signal from the relay or a combination of all three of these conditions. 13 00:01:47,684 --> 00:01:50,313 It is necessary to consider these two points: 14 00:01:50,370 --> 00:01:57,932 The first point is that in this section, it is possible to activate the related condition by double-clicking on any of the icons. 15 00:01:57,980 --> 00:02:05,980 To adjust the settings related to the “Inputs” you can do so from “Detail View” window or simply by checking “Trigger Condition” option. 16 00:02:06,005 --> 00:02:09,796 The second point: these conditions have “OR” logic with each other. 17 00:02:09,852 --> 00:02:15,315 This means that if several conditions are met, if one of them is true, the current “state” ends. 18 00:02:15,348 --> 00:02:21,244 In the next section the type of “state” is determined which can be selected from the available drop-down list. 19 00:02:21,300 --> 00:02:24,896 Note that each of these types is described in “Detail View” section. 20 00:02:24,921 --> 00:02:31,665 In “Bin. Input” section, the momentarily receival state of signal on every activated binary inputs is specified. 21 00:02:31,713 --> 00:02:36,763 In the “Comment” section, any important note about each “state” is recorded by the user. 22 00:02:36,788 --> 00:02:41,501 Note that entering information in this section is only possible in “Detail View” page. 23 00:02:41,526 --> 00:02:43,369 Right-click on “Table View” window 24 00:02:43,394 --> 00:02:44,948 RMS value column 25 00:02:44,996 --> 00:02:50,075 By right-clicking on any column of the “Table View” window, a list containing several options opens. 26 00:02:50,100 --> 00:02:53,238 Each of these options is designed for a specific purpose. 27 00:02:53,263 --> 00:02:58,003 After right-clicking on the column related to “RMS” value, by selecting “Nominal Value”, 28 00:02:58,028 --> 00:03:04,328 the amount of current and voltage in each cell is changed to specified nominal values in “Device” block in “Test Object” page 29 00:03:04,353 --> 00:03:08,059 By selecting “Zero” it is possible to set the cell value to zero. 30 00:03:08,092 --> 00:03:13,376 If the user wishes the voltage or current in all three phases to be equal to the selected cell value, 31 00:03:13,448 --> 00:03:16,213 they can select the “Equal Magnitudes” option. 32 00:03:16,277 --> 00:03:21,685 Also by checking “Link Magnitude” option, the values of all three phases will be linked together. 33 00:03:21,734 --> 00:03:27,162 It should be noted that if two groups of voltage or current are activated from “Hardware Configuration”, 34 00:03:27,187 --> 00:03:33,684 you can see that the three phases of group A are linked together while the three phases of Group B are linked together. 35 00:03:33,740 --> 00:03:43,768 To better understand this, enter 2amps as the current for one of the phases of group A and enter 4amps as the current for one of the phases of group B. 36 00:03:44,069 --> 00:03:48,069 The “100% Load” option is used for changing the current to nominal value. 37 00:03:48,094 --> 00:03:55,933 The “50% Load” option is used for changing the current to half of the nominal value and the “Unloaded” option is used for changing the current to zero. 38 00:03:55,958 --> 00:04:00,626 Note that by selecting any of these options, the voltage is changed to the nominal value. 39 00:04:00,634 --> 00:04:06,934 If the user copies the values of voltage and current by right-clicking in “Vector View” window and selecting “Copy to Clipboard”, 40 00:04:06,967 --> 00:04:13,696 by selecting “Paste From Vector View Clipboard” in “Table View” window they can paste these values in their intended “state”. 41 00:04:13,871 --> 00:04:22,945 Also, by clicking on “L1L2L3->L3L1L2” option, the rotation of the phases as well as their values will change. 42 00:04:23,001 --> 00:04:31,757 “Link to XRio” option enables the user to relate the value of voltage, current, phase or frequency to any desired parameter in “XRio”. 43 00:04:31,790 --> 00:04:37,377 By selecting this option, “Link to XRio” window opens where the desired parameter can be selected. 44 00:04:37,639 --> 00:04:45,162 For example, in the “XRio” tree diagram in “Rio” section, in “Nominal Value” branch in “Device” block, the “In” parameter is selected. 45 00:04:45,209 --> 00:04:54,951 Also, it is possible to multiply the selected parameter by a specific value or add it to a specific value which is, finally, displayed in the box at the bottom. 46 00:04:54,976 --> 00:04:59,061 On the top right of this window it is possible to search a parameter. 47 00:04:59,347 --> 00:05:08,583 By checking “Filter by Sender Unit” on the left, all “XRio” parameters which have the same “unit” with the selected parameter in “Sequencer” are marked. 48 00:05:08,655 --> 00:05:10,833 After linking the intended voltage, 49 00:05:10,793 --> 00:05:17,675 you can see that the selected cell is turned purple which indicates that this cell is linked with a value from the “XRio”. 50 00:05:17,713 --> 00:05:24,841 By selecting “Go to Linked Value”, it is possible to view that the selected parameter in “Sequencer” is linked with which parameter in “XRio”. 51 00:05:24,849 --> 00:05:34,935 If the user does not wish the parameter to be linked with “XRio”, it is possible to remove the link by selecting “Remove Link” option. 52 00:05:34,960 --> 00:05:35,960 Phase column 53 00:05:35,985 --> 00:05:43,987 By right-clicking on this column and selecting “Line Angle”, the angles of the selected voltage or current will equal with angle value of transmission line. 54 00:05:44,012 --> 00:05:48,200 It is possible to view and adjust this value in “Distance” block in “Test Object” page. 55 00:05:48,272 --> 00:05:52,658 By selecting “Zero”, it is possible to set the selected voltage or current to zero. 56 00:05:52,714 --> 00:05:58,036 If the user wishes to have the minimum amount of received current in the beginning of voltage injection, 57 00:05:58,051 --> 00:06:03,151 by selecting "90°" option, the phase of the injected voltage is set to 90 degrees. 58 00:06:03,207 --> 00:06:05,726 Balance Angle” option is selected for each cell, 59 00:06:05,751 --> 00:06:11,891 the related signal is selected as the reference signal and other phases are set at a degree with a 120 degrees, 60 00:06:12,080 --> 00:06:15,152 degree of difference with the reference signal. 61 00:06:15,219 --> 00:06:19,016 The “Reverse Rotation” option does the same in counterclockwise. 62 00:06:19,041 --> 00:06:28,042 This means that if this option is selected for a cell, regardless of its phase value, -120 degrees is Added to the next phase, respectively. 63 00:06:28,127 --> 00:06:34,755 By clicking on “Link angles (Equals)”, the angles of all three phases are equated and if one of them is changed, 64 00:06:34,803 --> 00:06:36,747 the others change accordingly. 65 00:06:36,811 --> 00:06:41,492 Also, the “Link angles (Balance)” option causes that if one of the phases is changed, 66 00:06:41,533 --> 00:06:45,368 the others change with a 120 degree difference. 67 00:06:45,393 --> 00:06:46,058 “Frequency” Column 68 00:06:46,082 --> 00:06:50,019 By selecting the “Nominal Value” from the options available for this column, 69 00:06:50,044 --> 00:06:56,596 the frequency value in each cell is changed to its nominal value in the “Device” block in the “Test Object” page. 70 00:06:56,628 --> 00:07:01,419 By selecting “DC”, the frequency is changed to zero and it is possible to produce “DC” signal. 71 00:07:01,539 --> 00:07:06,750 If the user wishes all the frequency values to be equal, the “Equal Frequency” option can be used. 72 00:07:06,894 --> 00:07:12,311 By selecting this option for any cell, the frequency of other signals is set equal to the selected cell. 73 00:07:12,407 --> 00:07:15,982 "Link Frequency" links all values of the frequencies with each other. 74 00:07:15,998 --> 00:07:18,667 This means that if one of the frequencies is changed, 75 00:07:18,699 --> 00:07:24,547 the other frequencies change the same amount as well and all the signals will always have the same frequency. 76 00:07:24,666 --> 00:07:28,535 If you need signals with different frequencies, you should uncheck this option. 77 00:07:28,899 --> 00:07:30,099 Decaying signal 78 00:07:30,225 --> 00:07:38,225 If you wish to create “DC” decaying signal, after setting the frequency to zero, it is possible to enter the time constant in the phase column. 79 00:07:38,470 --> 00:07:46,489 As you know, the relation of a decaying signal is written as “A*e^(-t*T)”. 80 00:07:46,561 --> 00:07:51,829 In this relation “A” is amplitude while “T” is the opposite of time constant. 81 00:07:51,892 --> 00:07:55,028 This means that the number you enter is the “T”.