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Problem 2
Use repeated source transformations to convert this circuit into Norton form. |
DC Circuits >
Source Transformations >
Single Source
Keywords:
Length: 3:10
Date Added: 2007-05-23 20:24:04
Filename: srcTrans_res_ex2
ID: 41
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Problem 3
Use repeated source transformations to convert this circuit into Thèvenin form. |
DC Circuits >
Source Transformations >
Single Source
Keywords:
Length: 2:45
Date Added: 2007-05-23 20:24:04
Filename: srcTrans_res_ex3
ID: 42
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Problem 4
Use repeated source transformations to convert this circuit into Thevenin form. |
DC Circuits >
Source Transformations >
Multiple Sources
Keywords:
Length: 3:35
Date Added: 2006-08-29 13:31:25
Filename: srcTrans_ex4
ID: 69
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Problem 5
Use repeated source transformations to convert this circuit into Thevenin form. |
DC Circuits >
Source Transformations >
Multiple Sources
Keywords:
Length: 4:53
Date Added: 2007-05-23 20:24:04
Filename: srcTrans_ex5
ID: 77
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Problem 6
Use repeated source transformations to convert this circuit into Norton form. |
DC Circuits >
Source Transformations >
Multiple Sources
Keywords:
Length: 3:55
Date Added: 2007-05-23 20:24:04
Filename: srcTrans_ex6
ID: 78
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Problem 1
Find the Thèvenin equivalent circuit at the terminals S-T. |
DC Circuits >
Thèvenin Equivalents >
Dependent Sources Exclusively
Keywords:
Length: 5:59
Date Added: 2007-05-23 20:24:04
Filename: thev_dep_ex1
ID: 88
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Problem 2
Find the Thèvenin equivalent circuit at the terminals U-V. |
DC Circuits >
Thèvenin Equivalents >
Dependent Sources Exclusively
Keywords:
Length: 3:17
Date Added: 2007-05-23 20:24:04
Filename: thev_dep_ex2
ID: 89
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Problem 1
Find the Thèvenin equivalent at the terminals A-B. Use two different methods to find the Thèvenin resistance: (a) As a ratio of short-circuit current and open-circuit voltage, and (b) as the lookback resistance. |
DC Circuits >
Thèvenin Equivalents >
Independent Sources
Keywords:
Length: 5:09
Date Added: 2007-05-23 20:24:04
Filename: thev_ind_ex1
ID: 90
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Problem 2
Find the Thèvenin equivalent circuit to the left of the terminals A-B. |
DC Circuits >
Thèvenin Equivalents >
Independent Sources
Keywords:
Length: 2:38
Date Added: 2007-05-23 20:24:04
Filename: thev_ind_ex2
ID: 91
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Problem 3
Find the Thèvenin equivalent circuit at the terminals A-B. |
DC Circuits >
Thèvenin Equivalents >
Independent Sources
Keywords:
Length: 4:52
Date Added: 2007-05-23 20:24:04
Filename: thev_ind_ex3
ID: 92
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Problem 4
Find the Thèvenin equivalent circuit at the terminals E-F. |
DC Circuits >
Thèvenin Equivalents >
Independent Sources
Keywords:
Length: 8:34
Date Added: 2007-05-23 20:24:04
Filename: thev_ind_ex4
ID: 93
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Problem 1
Find the Thèvenin equivalent circuit at the terminals G-H. |
DC Circuits >
Thèvenin Equivalents >
Independent and Dependent Sources
Keywords:
Length: 5:52
Date Added: 2007-05-23 20:24:04
Filename: thev_inddep_ex1
ID: 94
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Problem 1
Use repeated source transformations to convert this circuit into Norton form. |
DC Circuits >
Source Transformations >
Single Source
Keywords:
Length: 2:24
Date Added: 2007-05-23 20:24:04
Filename: srcTrans_res_ex1
ID: 254
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Problem 1
Use superposition to determine the voltage VX. State which source influences VX the most. |
DC Circuits >
Superposition >
Two Sources
Keywords:
Length: 5:38
Date Added: 2007-05-23 20:24:04
Filename: super_ex1
ID: 255
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Problem 2
Use superposition to determine the current I. State which source influences I the most. |
DC Circuits >
Superposition >
Three Sources
Keywords:
Length: 9:04
Date Added: 2007-05-23 20:24:04
Filename: super_ex2
ID: 256
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Problem 3
Use superposition to determine the voltage VX. |
DC Circuits >
Superposition >
Two Sources
Keywords:
Length: 5:28
Date Added: 2007-05-23 20:24:04
Filename: super_ex3
ID: 257
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Problem 2
Find the Norton equivalent circuit at the terminals Q-R. Express all complex values in your answer in both rectangular and polar form. |
AC Circuits >
Phasors >
Norton Equivalents
Keywords:
Length: 3:38
Date Added: 2007-07-26 11:43:37
Filename: ac_phasors_norton_ex2_eng
ID: 340
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Problem 2
Find the Thevenin equivalent circuit at the terminals Q-R. Express all complex values in your answer in both rectangular and polar form. |
AC Circuits >
Phasors >
Thevenin Equivalents
Keywords:
Length: 3:01
Date Added: 2007-07-26 13:11:27
Filename: ac_phasors_thev_ex2_eng
ID: 345
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Problem 1
Find the Norton equivalent circuit at the terminals F-G. Express all complex values in your solution in both rectangular and polar form. |
AC Circuits >
Phasors >
Norton Equivalents
Keywords:
Length: 3:25
Date Added: 2007-07-27 10:17:26
Filename: ac_phasors_norton_ex1_eng
ID: 373
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Problem 1
Find the Thevenin equivalent circuit at the terminals F-G. Express all complex values in your solution in both rectangular and polar form. |
AC Circuits >
Phasors >
Thevenin Equivalents
Keywords:
Length: 3:57
Date Added: 2007-07-27 11:09:03
Filename: ac_phasors_thev_ex1_eng
ID: 376
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Problem 1
Determine the impedance ZL that results in the maximum average power transferred to ZL. What is the maximum average power transferred to the load impedance? |
AC Circuits >
Power >
Maximum Power Tranfer
Keywords:
Length: 7:37
Date Added: 2007-08-03 14:28:43
Filename: ac_power_maxtransfer_ex1_eng
ID: 441
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Problem 2
Determine settings of R and L that will result in the maximum average power transferred to R if is = 1 cos(1000t) mA and vs = 30 cos(1000t+30°) V. What is the maximum average power transferred to R? |
AC Circuits >
Power >
Maximum Power Tranfer
Keywords:
Length: 8:12
Date Added: 2007-08-03 14:28:52
Filename: ac_power_maxtransfer_ex2_eng
ID: 442
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