Problem #1
Determine the equivalent resistance of a resistor network shown schematically in Figure P1.
![2216_Determine the equivalent resistance.png](https://secure.tutorsglobe.com/CMSImages/2216_Determine%20the%20equivalent%20resistance.png)
Problem #2 (Resistor Network Analysis by Ladder Method)
![637_Determine the equivalent resistance1.png](https://secure.tutorsglobe.com/CMSImages/637_Determine%20the%20equivalent%20resistance1.png)
Solve a circuit in Figure P2 by Ladder Method.
Problem #3 (Node Voltage Method, or Nodal Analysis, Alexander 3.2)
![584_Determine the equivalent resistance2.png](https://secure.tutorsglobe.com/CMSImages/584_Determine%20the%20equivalent%20resistance2.png)
Problem #4 (Node Voltage Method, or Nodal Analysis, Alexander 3.12)
![1298_Determine the equivalent resistance3.png](https://secure.tutorsglobe.com/CMSImages/1298_Determine%20the%20equivalent%20resistance3.png)
Solve the circuit of Figure P4 for V by Node Voltage Method (NVM).
Problem #5 (Loop Current Method, or Mesh Analysis)
![1751_Determine the equivalent resistance4.png](https://secure.tutorsglobe.com/CMSImages/1751_Determine%20the%20equivalent%20resistance4.png)
1. Solve a bridge circuit shown in Figure P5 by Loop Current Method (LCM)
2. Compute the equivalent resistance of this bridge resistor network using
Problem #6 (Loop Current Method, or Mesh Analysis)
Solve the circuit of Figure P6 (same as in Problem 4) f or V0 by Loop Current Method (LCM).
![1401_Determine the equivalent resistance5.png](https://secure.tutorsglobe.com/CMSImages/1401_Determine%20the%20equivalent%20resistance5.png)
Design Problem #7† (Wheatstone Bridge Sensor)
We can also find it exactly using the analytic results obtained for the bridge circuit in Example 3.