152595 A battery has an emf of $15 \mathrm{~V}$ and internal resistance of $1 \Omega$. Is the terminal to terminal potential difference less than, equal to or greater than $15 \mathrm{~V}$ if the current in the battery is (1) from negative to positive terminal, (2) from positive to negative terminal (3) zero current?

152597 Five cells each of emf $E$ and internal resistance $r$ send the same amount of current through an external resistance $R$ whether the cells are connected in parallel or in series.
Then, the ratio $\left(\frac{R}{r}\right)$ is

152599 In the figure shown below, the terminal voltage $\operatorname{across} E_{2}$ is

152600 Two identical cells send the same current in $3 \Omega$ resistance, whether connected in series or in parallel. The internal resistance of the cell should be:

152601 Two identical cells whether connected in parallel or in series gives the same current when connected to an external resistance $1.5 \Omega$. Find the value of internal resistance of each cell.

152595 A battery has an emf of $15 \mathrm{~V}$ and internal resistance of $1 \Omega$. Is the terminal to terminal potential difference less than, equal to or greater than $15 \mathrm{~V}$ if the current in the battery is (1) from negative to positive terminal, (2) from positive to negative terminal (3) zero current?

152597 Five cells each of emf $E$ and internal resistance $r$ send the same amount of current through an external resistance $R$ whether the cells are connected in parallel or in series.
Then, the ratio $\left(\frac{R}{r}\right)$ is

152599 In the figure shown below, the terminal voltage $\operatorname{across} E_{2}$ is

152600 Two identical cells send the same current in $3 \Omega$ resistance, whether connected in series or in parallel. The internal resistance of the cell should be:

152601 Two identical cells whether connected in parallel or in series gives the same current when connected to an external resistance $1.5 \Omega$. Find the value of internal resistance of each cell.

152595 A battery has an emf of $15 \mathrm{~V}$ and internal resistance of $1 \Omega$. Is the terminal to terminal potential difference less than, equal to or greater than $15 \mathrm{~V}$ if the current in the battery is (1) from negative to positive terminal, (2) from positive to negative terminal (3) zero current?

152597 Five cells each of emf $E$ and internal resistance $r$ send the same amount of current through an external resistance $R$ whether the cells are connected in parallel or in series.
Then, the ratio $\left(\frac{R}{r}\right)$ is

152599 In the figure shown below, the terminal voltage $\operatorname{across} E_{2}$ is

152600 Two identical cells send the same current in $3 \Omega$ resistance, whether connected in series or in parallel. The internal resistance of the cell should be:

152601 Two identical cells whether connected in parallel or in series gives the same current when connected to an external resistance $1.5 \Omega$. Find the value of internal resistance of each cell.

152595 A battery has an emf of $15 \mathrm{~V}$ and internal resistance of $1 \Omega$. Is the terminal to terminal potential difference less than, equal to or greater than $15 \mathrm{~V}$ if the current in the battery is (1) from negative to positive terminal, (2) from positive to negative terminal (3) zero current?

152597 Five cells each of emf $E$ and internal resistance $r$ send the same amount of current through an external resistance $R$ whether the cells are connected in parallel or in series.
Then, the ratio $\left(\frac{R}{r}\right)$ is

152599 In the figure shown below, the terminal voltage $\operatorname{across} E_{2}$ is

152600 Two identical cells send the same current in $3 \Omega$ resistance, whether connected in series or in parallel. The internal resistance of the cell should be:

152601 Two identical cells whether connected in parallel or in series gives the same current when connected to an external resistance $1.5 \Omega$. Find the value of internal resistance of each cell.

152595 A battery has an emf of $15 \mathrm{~V}$ and internal resistance of $1 \Omega$. Is the terminal to terminal potential difference less than, equal to or greater than $15 \mathrm{~V}$ if the current in the battery is (1) from negative to positive terminal, (2) from positive to negative terminal (3) zero current?

152597 Five cells each of emf $E$ and internal resistance $r$ send the same amount of current through an external resistance $R$ whether the cells are connected in parallel or in series.
Then, the ratio $\left(\frac{R}{r}\right)$ is

152599 In the figure shown below, the terminal voltage $\operatorname{across} E_{2}$ is

152600 Two identical cells send the same current in $3 \Omega$ resistance, whether connected in series or in parallel. The internal resistance of the cell should be:

152601 Two identical cells whether connected in parallel or in series gives the same current when connected to an external resistance $1.5 \Omega$. Find the value of internal resistance of each cell.