Note: Use the actual (measured) values of resistance in all calculations. 1. Solve the network of Figure 6.7 and compare your results with the measured values recorded in Table 6.2. 2. Using the measured values recorded in Table 6.2, verify Kirchhoff's current law at junctions A, B, and C in Figure 6.7. Also verify Kirchhoff's voltage law around each closed loop in Figure 6.7. (There are four such loops in this figure.) 3. Repeat steps 2 and 3 for the circuit of Figure 6.8 and Table 6.3.

Two cities A and B are connected by a 200km long train line. A train leaves A for B at 20 km / h at the same time as another train leaves B for A at 5 km / h. In the samemoment a fly leaves from A to B following the train line. The fly flies at 40 km / h until it collides with train B. At that moment it returns instantly and follows the train line until it collides with train A. At that moment it returns instantly and follows the line of the train. train until it collides with train B. The fly continues this process, traveling ever smaller distances until the two trains meet. (It is an ideal problem and the fly does not get squashed by the trains).What is the total distance traveled by the fly?

Can solve this with solution and explanation

7. Describe the direct connection, series and parallel methods of measurements using Q-meters? Why and how do we use these methods, explain in brief.