Ewan Flashcards

1
Q

Allows us to replace a voltage source and a
series resistor by a current source and parallel
resistor.

A

Source Transformation

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2
Q

Doing so does not change the current
or voltage of any other element of the circuit.

A

Source Transformation

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3
Q

Doing so does not change the current
or voltage of any other element of the circuit.

A

Source Transformation

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4
Q

Requires that the total effect of several
sources acting simultaneously is equal to
the sum of effects of the individual source
acting one at a time.

A

Superposition Theorem

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5
Q

Voltage Source

A

Shorted

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6
Q

Current Source

A

Opened

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7
Q

Used to transform a circuit into a smaller yet
equivalent circuit by a voltage source
(Thevenin’s voltage) in series with Thevenin’s
resistance or looking back resistance and the
resistance of the circuit where the current is
asked.

A

Thevenin’s Theorem

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8
Q

Allows us to replace a voltage source and a
series resistor by a current source and parallel
resistor. Doing so does not change the current
or voltage of any other element of the circuit.

A

Source Transformation

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9
Q

Requires that the total effect of several
sources acting simultaneously is equal to
the sum of effects of the individual source
acting one at a time.

A

Superposition Theorem

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10
Q

Shorted

A

Voltage Source

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11
Q

Opened

A

Current Source

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12
Q

Used to transform a circuit into a smaller yet
equivalent circuit by a voltage source
(Thevenin’s voltage) in series with Thevenin’s
resistance or looking back resistance and the
resistance of the circuit where the current is
asked.

A

Thevenin’s Theorem

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13
Q

How to Thevenize a Given Circuit?

A
  1. Temporarily remove the resistance (called load resistance RL
  2. Find the open-circuit voltage Voc
  3. Compute the resistance of the network
  4. Replace the entire network with a single Thevenin source,.
  5. Connect RL back to its terminals
  6. calculate the current flowing through RL
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14
Q

Used to transform a circuit into a smaller yet equivalent
circuit by a current source (Short Circuit Current) in
parallel with Thevenin’s resistance and parallel with load
resistor

A

Norton’s Theorem

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15
Q

How To Nortonize a Given Circuit?

A
  1. Remove the resistance
  2. Compute the short-circuit current ISC.
  3. Remove all voltage sources but retain their internal
    resistances
    4 find the network’s resistance RN as looked into from the given terminals. It is the same as Rth.
  4. The current source (ISC) joined in parallel across Ri
    between the two terminals gives Norton’s equivalent circuit.
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16
Q

particularly useful for
analyzing communication networks. The overall efficiency
of a network supplying maximum power to any branch is
50 percent.

A

Maximum
Power Transfer
Theorem

17
Q

transferred to the load when the load
resistance equals the Thevenin resistance as seen from the
load (RL = RTh).

A

Maximum Power

18
Q

combination of Thevenin’s and
Norton’s theorems.

A

Millman’s
Theorem

19
Q

It is used for finding the common
voltage across any network that contains several
parallel voltage sources

A

Millman’s
Theorem

20
Q

To solve for branch currents, each resistor voltage drop
can be divided by its respective resistance (I=E/R)

A