Use nodal analysis to solve the circuit and determine the values of and .
I. Identify all nodes in the circuit.
There are four nodes in the circuit:
Solved problems in resistive circuits such as nodal analysis, mesh analysis, superposition, source transformation, Thevenin and Norton theorems and so on
Use nodal analysis to solve the circuit and determine the values of and .
I. Identify all nodes in the circuit.
There are four nodes in the circuit:
Solve the circuit with the nodal analysis and determine and .
Solution
1) Identify all nodes in the circuit. Call the number of nodes .
The circuit has 5 nodes. Therefore, .
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Find (or ) and (or ) using voltage division rule.
a)
b)
c)
d)
Solution
a)
Voltage divider:
Ohm’s law:
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Determine the power of and . (Hint: there is no need to use nodal analysis; voltages between nodes can be easily found by the voltage sources.)
Solution
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Solve the circuit using nodal analysis and determine the power of .
Solution
I. Identify all nodes in the circuit. The circuit contains 3 nodes, as illustrated below.
Let’s use nodal analysis to solve this circuit and determine .
Solution
I. Identify all nodes in the circuit. There are four nodes in the circuit, as indicated below
Find the power of using circuit reduction methods.
Solution
and are parallel. and are also parallel. Therefore:
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Solve the circuit using nodal analysis and find the power of .
Solution
a) Choose a reference node, label the voltages:
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Find (Hint: use circuit reduction).
All resistors are and
Solution
Let’s redraw the circuit:
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Find using single node-pair analysis (do not reduce the circuit).
and .
Solution
a) Redraw the circuit if necessary. Mark the voltage across nodes: