Already done the pictures and tables, just need to type discussion and cons

9:01 1 of 3 Experiment #3- Capacitors Name: Introduction: The capacitance (C) of a capacitor is defined as the ratio of the magnitude of the charge (Q) on either conductor (plate) to the magnitude of the potential difference (DV) between the conductors (plates). Capacitance is measured by farad (f). Simulation: https://phet.colorado.edu/sims/cheerpi/capacitor-lab/latest/capacitor-lab.html? simulation capacitor-lab The plates carry equal and +Q If K@ 1 Theory: 7. For a parallel-plate capacitor whose plates are separated by air, capacitance C is given by For a parallel-plate capacitor whose plates are separated by air, capacitance C is given by Capacitors in Series: == 1. Parallel-plate capacitor consists of two parallel plates. 2. Each plate has equal area 'A'. 3. They are separated by a distance'd'. 4. The plates carry equal and opposite charges (Q). 5. When connected to the battery, charge is pulled off one plate and transferred to the other plate. With Dielectrics of constant (K), 6. The capacitance of a device depends on the geometric arrangement of the conductors. C=e,KA/d Where, & 8.854x10" F-m' (farads per meter) Energy Stored in a Capacitor = C (DV C = e,A/d (100 pt) Capacitors in Parallel: C = C, +C,+C... Procedure: Results/Data: Table-1: 1. Select the parallel plate capacitor with oppositely charged plates. 2. Apply different potential values to the plate through the battery connected. 3. Connect the voltmeter which measure the potential difference between two charged plates. 4. Measure the equivalent capacitance (C) of the capacitor. 5. Measure the total energy stored in the capacitor. 6. Repeat the measurement for series and parallel capacitors. Electric energy stored in the single capacitors: