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Category: 5.MAGNETIC FORCES AND TORQUES

Category: 5.MAGNETIC FORCES AND TORQUES

20.) Calculate the current i shown in Figure 12. Place answer in box.

20.) Calculate the current i shown in Figure 12. Place answer in box.

Questions 18 and 19: Consider the circuit shown in Figure 11. 18.) Find the capacitor voltage, vc ( t), at t = 1 second. Place answer in box. 19.) Find the power being absorbed by the 33 Ω resistor at t = 1 second. Place answer in box.

Questions 18 and 19: Consider the circuit shown in Figure 11. 18.) Find the capacitor voltage, vc ( t), at t = 1 second. Place answer in box. 19.) Find the power being absorbed by the 33 Ω resistor at t = 1 second. Place answer in box.

Questions 16 and 17: Use the superposition principle to find the components of the current i shown in Figure 10. 16.) Determine the component of i due to the voltage source only and place your answer in the box. 17.) Determine the component of i due to the current source only and place your answer in the box.

Questions 16 and 17: Use the superposition principle to find the components of the current i shown in Figure 10. 16.) Determine the component of i due to the voltage source only and place your answer in the box. 17.) Determine the component of i due to the current source only and place your answer in the box.

Questions 14 and 15: Consider the circuit shown in Figure 9. Design the circuit to have a time- constant of 3 seconds for t > 0 and vC ( ∞)= 2 V. 14.) Determine the required value of R and place your answer in the box. 15.) Determine the required value of C and place your answer in the box.

Questions 14 and 15: Consider the circuit shown in Figure 9. Design the circuit to have a time- constant of 3 seconds for t > 0 and vC ( ∞)= 2 V. 14.) Determine the required value of R and place your answer in the box. 15.) Determine the required value of C and place your answer in the box.

13.) The circuit in Figure 8 needs to have an equivalent capacitance of 0.14 F across terminals a and b. Determine the required value of C. Place your answer in the box.

13.) The circuit in Figure 8 needs to have an equivalent capacitance of 0.14 F across terminals a and b. Determine the required value of C. Place your answer in the box.

Questions 11 and 12: The op-amp in Figure 7 is ideal. Determine R1 and R2 so that vo ut = 10 V and i = 1 mA. 11.) Determine the required value of R1 and place your answer in the box. 12.) Determine the required value of R2 and place your answer in the box.

Questions 11 and 12: The op-amp in Figure 7 is ideal. Determine R1 and R2 so that vo ut = 10 V and i = 1 mA. 11.) Determine the required value of R1 and place your answer in the box. 12.) Determine the required value of R2 and place your answer in the box.

10.) Find the mesh current i1 of the circuit shown in Figure 6. Place your answer in the box.

10.) Find the mesh current i1 of the circuit shown in Figure 6. Place your answer in the box.

Questions 8 and 9: Find the Thevenin equivalent circuit at terminals a and b for the circuit shown in Figure 5. Draw the Thevenin equivalent circuit in the box below.

Questions 8 and 9: Find the Thevenin equivalent circuit at terminals a and b for the circuit shown in Figure 5. Draw the Thevenin equivalent circuit in the box below.

Questions 6 and 7: Find the node voltage va and the current i for the circuit shown in Figure 4. 6.) Calculate the node voltage va of the circuit shown in Figure 4. Place your answer in the box 7.) Calculate the current i of the circuit shown in Figure 4. Place your answer in the box.

Questions 6 and 7: Find the node voltage va and the current i for the circuit shown in Figure 4. 6.) Calculate the node voltage va of the circuit shown in Figure 4. Place your answer in the box 7.) Calculate the current i of the circuit shown in Figure 4. Place your answer in the box.

Questions 4 and 5: Consider the circuit shown in Figure 3. 4.) Find the equivalent resistance across terminals a and b. Place your answer in the box. 5.) Calculate the current i and place your answer in the box.

Questions 4 and 5: Consider the circuit shown in Figure 3. 4.) Find the equivalent resistance across terminals a and b. Place your answer in the box. 5.) Calculate the current i and place your answer in the box.

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