Term 3 Week 3 2019

Homework

Ex 6A, p.251-254 Level 2 D.C. Circuit Revision

Ex 6B, p.261-261 Internal Resistance of a Battery

Ex 6C, p.267-272 Kirchhoff's Laws

Ex 6D, p.277-280 Capacitors Ep = ½ QV

Ex 6E, p.283-284 Capacitors C = 𝜺r𝜺oA/d

Ex 6F, p.289-292 Capacitor Networks (Series & Parallel)

Ex 6G, p.298-300 Capacitor Charge & Discharge

Capacitor

C = Q/V

Capacitors

Basic Definition

Physical Parameters

Energy Stored

Ep = ½ QV

Capacitors & Capacitance

Dielectric

An insulating material placed in between the capacitor plates to increase the Capacitance

C = 𝜺r𝜺oA/d

Dielectrics in Capacitors

PhET Capacitor Lab Basics - App

Capacitor Circuits

Capacitors in Series

Calculating Voltage Charge and Total Capacitance

Capacitors in Parallel

Calculating Voltage Charge and Total Capacitance

Capacitors in Parallel vs Capacitors in Series

Capacitors in Combination

Series & Parallel Capacitors

Capacitors in Combination

Patrallel & Series Capacitors

Capacitors in Series

Calculating Voltage Drop

Capacitors in Series

Calculating the Charge Stored

Capacitors in Series

Calculating the Equivalent Capacitance

Capacitors in Parallel

Calculating Voltage Drop

Capacitors in Parallel

Calculating the Charge Stored

Capacitors in Parallel

Calculating the Equivalent Capacitance

Capacitor Charge & Discharge

RC Circuits 1: Charging and Discharging a Capacitor

Term 3 Week 5 2016

Term 3 Week 5 2016

Homework

• Ex 6, p. 108-110, D.C. Circuits
• Q 3, 4, 5, p. 116 Capacitance and Stored Energy
• Ex 7, p.120 -124, Capacitors

Capacitance

Dielectric

An insulating material placed in between the capacitor plates to increase the Capacitance

With a Dielectric the Capacitance formula becomes

C = 𝜺r𝜺oA/d

PhET Application on Capacitors & Dielectrics

Networks of Capacitors

Capacitor Networks & Energy

Energy Stored in a Capacitor

Charge & Discharge of Capacitor