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Andy aka
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No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived for each \$V_O\$ to produce the final value of \$V_O\$.

In other words:

Use one source with the others disabled then step and repeat for each source.: -

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No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived for each \$V_O\$ to produce the final value of \$V_O\$.

In other words:

Use one source with the others disabled then step and repeat for each source.

No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived for each \$V_O\$ to produce the final value of \$V_O\$.

In other words:

Use one source with the others disabled then step and repeat for each source: -

enter image description here

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Andy aka
  • 473k
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  • 839

No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived for each \$V_O\$ to produce the final value of \$V_O\$.

In other words:

Use one source with the others disabled then step and repeat for each source.

No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived to produce \$V_O\$.

No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived for each \$V_O\$ to produce the final value of \$V_O\$.

In other words:

Use one source with the others disabled then step and repeat for each source.

Source Link
Andy aka
  • 473k
  • 29
  • 383
  • 839

No, you pick a single source to use in your 1st analysis and, for ALL the other sources, you make them short (voltages) or open (current). That's how superposition works for each source. Then you add the individual voltages derived to produce \$V_O\$.