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Using the results of part a, determine the maximum power to the load.
Discuss the relationship between distribution of muscle fiber type and performance.
Find the Thevenin equivalent circuit for the portions of the networks of Figure.
Using the results of part (a), determine the voltage VC for the same figure.
Find the Thevenin equivalent circuit for the network external to the inductor of Figure.
Write a computer program that will provide a general solution for the network of Figure.
Determine the mesh currents for the network of Figure.
Write the nodal equations for the network of Figure.
Using nodal analysis, determine the voltage across the capacitive reactance.
Using mesh analysis, determine the current through the capacitive reactance.
Determine the unknown inductance Lx and resistance Rx.
Determine whether the Maxwell bridge of Fig. is balanced (? = 1000 rad/s).
Find the current I5 for the network of Figure.
Write a program to provide a general solution to Problem, that is, given the reactance of each element, generate a solution for parts .
That is, given the resistance and reactance of the elements, determine the requested current, voltage, and power.
Convert the voltage source of Fig. (a) to a current source and the current source of Fig. (b) to a voltage source.
Write the mesh equations for the networks of Figure. Determine the current through the resistor.
Determine the phase relationship between the using a dual-trace oscilloscope.
Determine the phase relationship between the waveforms, and indicate which one leads or lags.
Plot the impedance of the network versus frequency from 0 to 10 kHz.
Find the rms values of the voltages vR and vC at a frequency of 1 kHz.
Write a program to generate the sinusoidal expression for the current of a resistor.
Calculate IC using the current divider rule. Calculate VL using the voltage divider rule.
Find the current Is. Calculate I2 using the current divider rule.
Calculate the voltage V2 and the current IL. Find the power factor of the network.