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(N/A) Series ConnectionParallel Connection$(1)$ In series connection, the magnitude of charge on each capacitor is the same.$(1)$ In parallel connecti

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(N/A) Series ConnectionParallel Connection$(1)$ In series connection, the magnitude of charge on each capacitor is the same.$(1)$ In parallel connection, the potential difference across each capacitor is the same.$(2)$ The reciprocal of effective capacitance is equal to the sum of the reciprocals of the capacitance of each capacitor: $\frac{1}{C_{eq}} = \sum \frac{1}{C_i}$.$(2)$ The effective capacitance is equal to the sum of the individual capacitances: $C_{eq} = \sum C_i$.$(3)$ The effective capacitance is less than the smallest individual capacitance in the circuit.$(3)$ The effective capacitance is greater than the largest individual capacitance in the circuit.$(4)$ The effective capacitance decreases as the number of capacitors increases.$(4)$ The effective capacitance increases as the number of capacitors increases.$(5)$ The potential difference across the combination is the sum of the potential differences across each capacitor: $V = \sum V_i$.$(5)$ The charge on the combination is the sum of the charges on each capacitor: $Q = \sum Q_i$.

Write the difference between capacitors in series and parallel connections.

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Series Connection	Parallel Connection
$(1)$ In series connection, the magnitude of charge on each capacitor is the same.	$(1)$ In parallel connection, the potential difference across each capacitor is the same.
$(2)$ The reciprocal of effective capacitance is equal to the sum of the reciprocals of the capacitance of each capacitor: $\frac{1}{C_{eq}} = \sum \frac{1}{C_i}$.	$(2)$ The effective capacitance is equal to the sum of the individual capacitances: $C_{eq} = \sum C_i$.
$(3)$ The effective capacitance is less than the smallest individual capacitance in the circuit.	$(3)$ The effective capacitance is greater than the largest individual capacitance in the circuit.
$(4)$ The effective capacitance decreases as the number of capacitors increases.	$(4)$ The effective capacitance increases as the number of capacitors increases.
$(5)$ The potential difference across the combination is the sum of the potential differences across each capacitor: $V = \sum V_i$.	$(5)$ The charge on the combination is the sum of the charges on each capacitor: $Q = \sum Q_i$.