Linked from

The 13 pages that link to Thévenin's theorem, each with the reason it gives.

• Kirchhoff's circuit lawsRelated: Kirchhoff-based circuit equations establish the equivalent source and resistance.

• Voltage dividerRelated: Thevenin’s equivalent makes the divider’s output resistance and load interaction explicit.

• Circuit analysisRelated: It simplifies a network when analyzing the load connected to its terminals.

• Kirchhoff's voltage lawRelated: Loop-law calculations help derive the equivalent source voltage.

• Dependent sourceRelated: Dependent sources must remain active when finding a Thevenin equivalent resistance.

• Maximum power transfer theoremRelated: The equivalent source impedance makes the load-matching condition straightforward to derive.

• Nodal analysisCompared with: Reducing a network first can make its node equations unnecessary or simpler.

• Norton's theoremCompared with: It describes the same terminal behavior using a series voltage-source form.

• Superposition theoremRelated: It provides another way to simplify linear networks before calculating a response.

• Voltage sourceRelated: It reduces complex source networks to a voltage source and series resistance.

• Current sourceRelated: Its voltage-source form contrasts with the Norton model's current-source form.

• Millman's theoremRelated: Both methods simplify linear source networks, though Millman's theorem targets a shared parallel node.

• Miller theoremCompared with: Thévenin reduction preserves behavior at one port, while Miller reduction relocates a cross-node impedance.