Engineering Solving circuits using mesh analysis

AI Thread Summary
Mesh analysis can be applied to solve for the voltage across a current source by treating the loop containing the current source as already solved, incorporating its mesh current into the equations for other loops. An alternative method involves converting the current source and resistor into a Thevenin equivalent, simplifying the analysis. The choice of analysis technique—whether mesh, nodal, or Kirchhoff's—depends on personal comfort and the specific circuit configuration. Familiarity with multiple techniques can enhance problem-solving efficiency. Ultimately, selecting the method that best suits the individual is crucial for effective circuit analysis.
jeromec92
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Hi guys,
is there anyway i can solve the voltage across the current source using Mesh Analysis. I already solved for the voltage across the current source using Nodal analysis. And btw, do you have any tips which technique is the best to use (Kirchoff's, Mesh, Nodal analysis) for different kinds of circuits. Thanks.

-Jerome
 

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jeromec92 said:
Hi guys,
is there anyway i can solve the voltage across the current source using Mesh Analysis. I already solved for the voltage across the current source using Nodal analysis. And btw, do you have any tips which technique is the best to use (Kirchoff's, Mesh, Nodal analysis) for different kinds of circuits. Thanks.

-Jerome

Regarding solution methods, different circuits will "appeal" to you in different ways. Much depends upon how many techniques you are familiar with and your comfort level with each.

Sure you can use mesh analysis for this problem. Assume that the loop contained the current source is an already "solved" mesh that you don't have to worry about other than to include its "mesh" current (4A) in the current passing through R1 when you write the loop equations for the other loops. That is, there will be a "R1*(I2 - I1)" term for the middle loop.

Another approach that occurs to me is to convert I1 and R1 into a Thevenin equivalent voltage source and series resistance, leaving you two "standard" loops for mesh analysis. Remember that the voltage across R1 (and so the current source) in the original circuit is then equivalent to the voltage across the Thevenin voltage and its resistor.
 
gneill said:
Regarding solution methods, different circuits will "appeal" to you in different ways. Much depends upon how many techniques you are familiar with and your comfort level with each.

Sure you can use mesh analysis for this problem. Assume that the loop contained the current source is an already "solved" mesh that you don't have to worry about other than to include its "mesh" current (4A) in the current passing through R1 when you write the loop equations for the other loops. That is, there will be a "R1*(I2 - I1)" term for the middle loop.

Another approach that occurs to me is to convert I1 and R1 into a Thevenin equivalent voltage source and series resistance, leaving you two "standard" loops for mesh analysis. Remember that the voltage across R1 (and so the current source) in the original circuit is then equivalent to the voltage across the Thevenin voltage and its resistor.

Hello, Thank you very much. I finally got it! Anyway I prefer using nodal analysis rather than mesh and kirchoff's. What do you think?
 
jeromec92 said:
Hello, Thank you very much. I finally got it! Anyway I prefer using nodal analysis rather than mesh and kirchoff's. What do you think?

I think you should use what works for you, but having more than one tool in your toolbox will make your life easier :smile:
 

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