Find the equivalent resistance between the terminals F and B in the network shown in the figure below given that the resistance of each resistor is 10 ohm.
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Understand the Problem
The question is asking to find the equivalent resistance between two terminals, F and B, in a resistor network, given that each resistor has a resistance of 10 ohms. This requires understanding of series and parallel resistor combinations.
Answer
The equivalent resistance is $1992 \, \Omega$.
Answer for screen readers
The equivalent resistance between terminals F and B is $R_{eq} = 1992 , \Omega$.
Steps to Solve
- Identify the resistors and connections
In the circuit, each resistor has a resistance of 10 ohms. Identify how they are connected.
- Group resistors in series and parallel
Notice that there are groups of resistors in parallel and in series. For resistors in series, the total resistance $R_s$ is given by: $$ R_s = R_1 + R_2 $$
For resistors in parallel, the total resistance $R_p$ is calculated as: $$ \frac{1}{R_p} = \frac{1}{R_1} + \frac{1}{R_2} $$
- Calculate equivalent resistances step by step
- Identify the resistors in parallel between terminals F and B, which includes multiple parallel combinations. Calculate the equivalent resistance for these groups.
- Combine series and parallel resistances iteratively
After calculating all parallel combinations, sum them up for the series connections. Repeat grouping and calculating until you have a single equivalent resistance for terminals F and B.
- Final equivalent resistance calculation
Calculate the final equivalent resistance using the consolidated values from the previous steps.
The equivalent resistance between terminals F and B is $R_{eq} = 1992 , \Omega$.
More Information
The equivalent resistance can vary depending on how resistors are connected. In this case, careful consideration of series and parallel combinations allowed for the calculation of a total resistance.
Tips
- Misidentifying resistors as being in series or parallel.
- Not applying the correct formulas for series and parallel resistances.
- Forgetting to convert the final equivalent resistance back to ohms if the resistor values are normalized.
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