356880 \(N\) identical cells, each of emf \(E\), and internal resitance \(r\) are joined in series to form a closed circuit. The potential difference across any cell is \(\Delta V.\) Then

356881 Eels are able to generate current with biological cells called electroplaques. The electroplaques in an Eel are arranged in 100 rows, each row stretching horizontally along the body of the fish containing 5000 electroplaques. The arrangement is suggestively shown below. Each electroplaque has an emf of 0.15 \(V\) and internal resistance of \(0.25\,\Omega \). Find the current in the external resistor.

356882 To draw maximum current from a combination of cells, how should the cells be grouped?

356883 Two identical cells connected in series send 1.0 \(A\) current through a \(5\,\Omega \) resistor. When they are connected in parallel , they send 0.8 \(A\) current through the same resistor. What is the internal resistance of the cell?

356880 \(N\) identical cells, each of emf \(E\), and internal resitance \(r\) are joined in series to form a closed circuit. The potential difference across any cell is \(\Delta V.\) Then

356881 Eels are able to generate current with biological cells called electroplaques. The electroplaques in an Eel are arranged in 100 rows, each row stretching horizontally along the body of the fish containing 5000 electroplaques. The arrangement is suggestively shown below. Each electroplaque has an emf of 0.15 \(V\) and internal resistance of \(0.25\,\Omega \). Find the current in the external resistor.

356882 To draw maximum current from a combination of cells, how should the cells be grouped?

356883 Two identical cells connected in series send 1.0 \(A\) current through a \(5\,\Omega \) resistor. When they are connected in parallel , they send 0.8 \(A\) current through the same resistor. What is the internal resistance of the cell?

356880 \(N\) identical cells, each of emf \(E\), and internal resitance \(r\) are joined in series to form a closed circuit. The potential difference across any cell is \(\Delta V.\) Then

356881 Eels are able to generate current with biological cells called electroplaques. The electroplaques in an Eel are arranged in 100 rows, each row stretching horizontally along the body of the fish containing 5000 electroplaques. The arrangement is suggestively shown below. Each electroplaque has an emf of 0.15 \(V\) and internal resistance of \(0.25\,\Omega \). Find the current in the external resistor.

356882 To draw maximum current from a combination of cells, how should the cells be grouped?

356883 Two identical cells connected in series send 1.0 \(A\) current through a \(5\,\Omega \) resistor. When they are connected in parallel , they send 0.8 \(A\) current through the same resistor. What is the internal resistance of the cell?

356880 \(N\) identical cells, each of emf \(E\), and internal resitance \(r\) are joined in series to form a closed circuit. The potential difference across any cell is \(\Delta V.\) Then

356881 Eels are able to generate current with biological cells called electroplaques. The electroplaques in an Eel are arranged in 100 rows, each row stretching horizontally along the body of the fish containing 5000 electroplaques. The arrangement is suggestively shown below. Each electroplaque has an emf of 0.15 \(V\) and internal resistance of \(0.25\,\Omega \). Find the current in the external resistor.

356882 To draw maximum current from a combination of cells, how should the cells be grouped?

356883 Two identical cells connected in series send 1.0 \(A\) current through a \(5\,\Omega \) resistor. When they are connected in parallel , they send 0.8 \(A\) current through the same resistor. What is the internal resistance of the cell?