# Rules In Series And Parallel Circuit

It might seem like a daunting task, understanding how to work with circuit components in series and parallel configurations, but it's really not as hard as it seems. All it takes is a basic understanding of electricity and some easy-to-understand rules to help you make the right connections.

When it comes to circuits, you need to think of electricity as water flowing through pipes. If you connect two pipes in series, the same amount of water has to flow through both pipes before it reaches the end. This means that the current is the same throughout the two pipes. In a parallel circuit, two pipes are connected in such a way that the water can flow freely from one pipe to the other. That means that the current can split between the two paths, taking different amounts depending on the resistance of the two paths.

Now, the same principles apply to electrical circuits. When you connect components in series, the same amount of current passes through each of the components. That means that the voltage drop across each of the components will be the same, as the current is constant throughout the circuit. The voltage source must also supply enough voltage to get the same current through all of the components. In a parallel circuit, the current splits up between the components, taking different amounts depending on the resistance of each path. The voltage source must supply enough voltage to get the same current through all of the components.

One important rule to remember when working with series and parallel circuits is Ohm's Law, which states that Voltage = Current x Resistance (V=IR). This means that if you know the voltage, current and resistance of one component, you can calculate the voltage, current and resistance of any other component in the circuit. This is a useful rule to keep in mind when troubleshooting a circuit.

Another important rule to keep in mind is Kirchhoff's Voltage Law (KVL), which states that the sum of the voltage drops and sources in a closed loop must equal zero. This law can be applied to any type of circuit, whether it's series or parallel, and it allows you to calculate the voltage drops across each of the components in the circuit.

The last rule to keep in mind is Kirchhoff's Current Law (KCL), which states that the sum of the currents entering and leaving a node must equal zero. This law can also be applied to any type of circuit, and it allows you to calculate the currents entering and leaving each node in the circuit.

Understanding and following these simple rules is important when it comes to working with series and parallel circuits. By following these rules, you can ensure that your circuit is functioning properly and that you have a good understanding of how the circuit works. Resistance Physics Series And Parallel Resistor Circuits Ppt Circuit Construction Study Guide Inspirit How To Solve Capacitor Circuits 13 Steps With Pictures Voltage And Cur Divider Rule Formula Example Electrical4u Series Circuit Stickman Physics Physics Tutorial Combination Circuits Electric Power Parallel Circuit Stickman Physics The Difference Between Series And Parallel Circuits Basic Direct Cur Dc Theory Automation Textbook Solved Use Ohm S Law To Derive Eq 2 For The Parallel Chegg Com Rules For Parallel Dc Circuits Electrical Electronic Series Circuits Ee301 Parallel Circuits And Kirchhoff S Cur Law 1 Objectives A Restate The Definition Of Node Demonstrate How To Series And Parallel Circuits Learn Sparkfun Com Series Parallel Circuits What Are The Rules For Series And Parallel Circuits Quora Circuit Topology And Laws Applied Electricity Lessons In Electric Circuits Volume I Dc Chapter 7 Dc Series Circuits Explained Resistance Voltage And Power Consumption