Zaloguj się

Multiple capacitors connected serve as electrical components in various applications. These multiple capacitors behave as a single equivalent capacitor, and its total capacitance depends on the capacitance of individual capacitors and the type of connections. Capacitors can be arranged in two - orientations, either in series or parallel connections.

Suppose the capacitors are connected one after the other such that the negative terminal of the first connects to the positive terminal of the second. In that case, it is called a series connection. Each capacitor acquires an equal magnitude of charge Q, when this series combination is connected to a battery with voltage V. The charge on the plate attached to the battery's positive terminal is +Q, and the charge on the plate connected to the negative terminal is −Q. Charges are then induced on the other plates so that the sum of the charges on all plates, and the sum of charges on any pair of capacitor plates, is zero.

However, the potential drop on each capacitor varies as the ratio of the charge to its capacitance. The sum of the potential drop across each capacitor equals the total battery voltage. The reciprocal of equivalent capacitance in a series circuit is the sum of reciprocals of individual capacitances. Thus, the capacitor combination resembles a single equivalent capacitor with a capacitance value smaller than the smallest capacitances in a series combination.

When the multiple capacitors are connected such that the positive terminals of all the capacitors are connected to the battery's positive terminal, and negative terminals are connected to the battery's negative terminal, it's called a parallel connection. The voltage drop across each capacitor is the same, but the charge stored varies. The total charge stored by the network is the sum of the charge stored in each capacitor. The equivalent capacitance in a parallel circuit equals the sum of all individual capacitances in the network. Thus, the capacitor combination resembles a single equivalent capacitor with higher capacitance.

Tagi

CapacitorsSeries ConnectionParallel ConnectionEquivalent CapacitanceTotal CapacitanceCharge QVoltage VPotential DropBattery VoltageIndividual CapacitancesElectrical Components

Z rozdziału 25:

article

Now Playing

25.3 : Capacitors in Series and Parallel

Capacitance

3.8K Wyświetleń

article

25.1 : Kondensatory i pojemność

Capacitance

7.2K Wyświetleń

article

25.2 : Kondensator sferyczny i cylindryczny

Capacitance

5.2K Wyświetleń

article

25.4 : Pojemność równoważna

Capacitance

1.3K Wyświetleń

article

25.5 : Energia zmagazynowana w kondensatorze

Capacitance

3.5K Wyświetleń

article

25.6 : Energia zmagazynowana w kondensatorze: rozwiązywanie problemów

Capacitance

996 Wyświetleń

article

25.7 : Kondensator z dielektrykiem

Capacitance

3.7K Wyświetleń

article

25.8 : Polaryzacja dielektryczna w kondensatorze

Capacitance

4.4K Wyświetleń

article

25.9 : Prawo Gaussa w dielektrykach

Capacitance

4.0K Wyświetleń

article

25.10 : Potencjał spowodowany przez spolaryzowany obiekt

Capacitance

341 Wyświetleń

article

25.11 : Podatność, przenikalność elektryczna i stała dielektryczna

Capacitance

1.2K Wyświetleń

article

25.12 : Elektrostatyczne warunki brzegowe w dielektrykach

Capacitance

977 Wyświetleń

JoVE Logo

Prywatność

Warunki Korzystania

Zasady

Badania

Edukacja

O JoVE

Copyright © 2025 MyJoVE Corporation. Wszelkie prawa zastrzeżone