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The circuit in the figure below consists of two identical, parallel metal plates connected to identical metal springs, a switch, and a 136-V battery. With the switch open, the plates are uncharged, are separated by a distance d = 7.60 mm, and have a capacitance C = 2.00 μF. When the switch is closed, the distance between the plates decreases by a factor of 0.500. (a) How much charge collects on each plate? μC (b) What is the spring constant for each spring? kN/m

The circuit in the figure below consists of two identical, parallel metal plates connected to identical metal springs, a switch, and a 136-V battery. With the switch open, the plates are uncharged, are separated by a distance d = 7.60 mm, and have a capacitance C = 2.00 μF. When the switch is closed, the distance between the plates decreases by a factor of 0.500. (a) How much charge collects on each plate? μC (b) What is the spring constant for each spring? kN/m

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The circuit in the figure below consists of two identical, parallel metal plates connected to identical metal springs, a switch, and a 136 − V battery. With the switch open, the plates are uncharged, are separated by a distance d = 7.60 mm , and have a capacitance C = 2.00 μ F . When the switch is closed, the distance between the plates decreases by a factor of 0.500 . (a) How much charge collects on each plate? ◻ μ C (b) What is the spring constant for each spring? ◻ kN / m

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