Consider the combination of capacitors in the figure below. (Let C = 22.0 F and C...

  

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Consider the combination of capacitors in the figure below. (Let C₁ = 22.0 µF and C₂ = 2.50 µF.) + 36.0 V 4.00 μF 8.00 μF (a) Find the equivalent single capacitance of the two capacitors in series. UF Redraw the diagram (called diagram 1) with this equivalent capacitance. (b) In diagram 1 find the equivalent capacitance of the three capacitors in parallel. HF Redraw the diagram as a single battery and single capacitor in a loop. (c) Compute the charge on the single equivalent capacitor. μC (d) Returning to diagram 1, compute the charge on each individual capacitor. 4.00-μF capacitor μC μC 2.50-μF capacitor 22.0-μF and 8.00-μF equivalent capacitor Does the sum agree with the value found in part (c)? O Yes No HC @ (e) What is the charge on the 22.0-μF capacitor and on the 8.00-μF capacitor? μC (f) Compute the voltage drop across the 22.0-μF capacitor. (g) Compute the voltage drop across the 8.00-μF capacitor. V Consider the combination of capacitors in the figure below. (Let C₁ = 22.0 µF and C₂ = 2.50 µF.) + 36.0 V 4.00 μF 8.00 μF (a) Find the equivalent single capacitance of the two capacitors in series. UF Redraw the diagram (called diagram 1) with this equivalent capacitance. (b) In diagram 1 find the equivalent capacitance of the three capacitors in parallel. HF Redraw the diagram as a single battery and single capacitor in a loop. (c) Compute the charge on the single equivalent capacitor. μC (d) Returning to diagram 1, compute the charge on each individual capacitor. 4.00-μF capacitor μC μC 2.50-μF capacitor 22.0-μF and 8.00-μF equivalent capacitor Does the sum agree with the value found in part (c)? O Yes No HC @ (e) What is the charge on the 22.0-μF capacitor and on the 8.00-μF capacitor? μC (f) Compute the voltage drop across the 22.0-μF capacitor. (g) Compute the voltage drop across the 8.00-μF capacitor. V

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