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Shiba Tatsuya
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but how? the at the top wiring it is a series connection but at the middle and the bottom, it is parallel :/lekh2003 said:You should systematically split the total capacitance and the total charge. Each time there should be a simultaneous equation (one equation of capacitance and the other of charge).
I have a feeling I am suggesting the unnecessarily long way, there might be a shorter method.
But you still know the equations for both. For know, combine anything parallel and make it series. Later, you can split them into parallel again by using the same backwards technique.Shiba Tatsuya said:but how? the at the top wiring it is a series connection but at the middle and the bottom, it is parallel :/
lekh2003 said:But you still know the equations for both. For know, combine anything parallel and make it series. Later, you can split them into parallel again by using the same backwards technique.
Let me get you started. Solve for the top part of the circuit and the two bottom parts combined. Then split the two bottom parts into separate parts. You will have three capacitances of three parts. You can continue.
No, I mean going backward. Think about how the charge changes when you add parallely and how the capacitance changes when you add parallely. Then work backwards with the two equations.Shiba Tatsuya said:by splitting, you mean dividing the result into two?
thank you :D I also noticed this relationship :D I'm done now :Dlekh2003 said:No, I mean going backward. Think about how the charge changes when you add parallely and how the capacitance changes when you add parallely. Then work backwards with the two equations.
For example, say I have the total capacitance and charge of a parallel circuit with two sections, C and Q. The upper section has capacitance and charge, C1 and Q1. The lower section has capacitance and charge, C2 and Q2. I know that Q1 + Q2 = Q and the same can be said for capacitance, because capacitances and charges add together when in parallel. Knowing that Q = CV, you can solve for the necessary variables.
Glad I could help.Shiba Tatsuya said:thank you :D I also noticed this relationship :D I'm done now :D
Individual charges refer to the amount of electric charge carried by a single particle, such as an electron or proton. Voltage, on the other hand, is a measure of the potential difference between two points in an electric field. In other words, voltage is a measure of the amount of work needed to move a unit of charge from one point to another.
Individual charges and voltage are directly proportional to each other. This means that as the amount of individual charges increases, so does the voltage. Conversely, decreasing the amount of individual charges will result in a decrease in voltage.
The unit of measurement for individual charges is the Coulomb (C), while the unit for voltage is the Volt (V).
Yes, both individual charges and voltage can be negative. This simply indicates that the charges or voltage are moving in the opposite direction of the conventionally chosen direction.
In a circuit, individual charges flow from an area of higher potential energy to an area of lower potential energy. As they flow, they create voltage and generate an electric current. Therefore, the amount and movement of individual charges directly impact the voltage in a circuit.