357307 A 10\(m\) long wire of resistance \(20\Omega \) is connected in series with a battery of emf 3\(V\) and a resisstance of \(10\Omega \). The potential gradient along the wire in \(V\)/\(m\) is

357308 A battery of emf \({E_0} = 12V\) is connected across a 4 \(m\) long uniform wire having resistance \(4\left( {\frac{\Omega }{m}} \right).\) The cells of small emf’s \({\varepsilon _1} = 2V\) and \({\varepsilon _2} = 4V\) having internal resistance \(2\Omega \) and \(4\Omega \) respectively, are connected as shown in the figure. If galvanometer shows no deflection at the point \(N\), the distance of point \(N\) from the point \(A\) is equal to

357309 A potential divider circuit is shown in figure. The output voltage \(V_{0}\) is

357310 A potentiometer wire has length \(L\). For given cell of emf \(E\), the balancing length is \(\frac{L}{3}\) from the positive end of the wire. If the length of potentiometer wire is increased by 50%, then for the same cell, the balance point is obtained at length

357307 A 10\(m\) long wire of resistance \(20\Omega \) is connected in series with a battery of emf 3\(V\) and a resisstance of \(10\Omega \). The potential gradient along the wire in \(V\)/\(m\) is

357308 A battery of emf \({E_0} = 12V\) is connected across a 4 \(m\) long uniform wire having resistance \(4\left( {\frac{\Omega }{m}} \right).\) The cells of small emf’s \({\varepsilon _1} = 2V\) and \({\varepsilon _2} = 4V\) having internal resistance \(2\Omega \) and \(4\Omega \) respectively, are connected as shown in the figure. If galvanometer shows no deflection at the point \(N\), the distance of point \(N\) from the point \(A\) is equal to

357309 A potential divider circuit is shown in figure. The output voltage \(V_{0}\) is

357310 A potentiometer wire has length \(L\). For given cell of emf \(E\), the balancing length is \(\frac{L}{3}\) from the positive end of the wire. If the length of potentiometer wire is increased by 50%, then for the same cell, the balance point is obtained at length

357307 A 10\(m\) long wire of resistance \(20\Omega \) is connected in series with a battery of emf 3\(V\) and a resisstance of \(10\Omega \). The potential gradient along the wire in \(V\)/\(m\) is

357308 A battery of emf \({E_0} = 12V\) is connected across a 4 \(m\) long uniform wire having resistance \(4\left( {\frac{\Omega }{m}} \right).\) The cells of small emf’s \({\varepsilon _1} = 2V\) and \({\varepsilon _2} = 4V\) having internal resistance \(2\Omega \) and \(4\Omega \) respectively, are connected as shown in the figure. If galvanometer shows no deflection at the point \(N\), the distance of point \(N\) from the point \(A\) is equal to

357309 A potential divider circuit is shown in figure. The output voltage \(V_{0}\) is

357310 A potentiometer wire has length \(L\). For given cell of emf \(E\), the balancing length is \(\frac{L}{3}\) from the positive end of the wire. If the length of potentiometer wire is increased by 50%, then for the same cell, the balance point is obtained at length

357307 A 10\(m\) long wire of resistance \(20\Omega \) is connected in series with a battery of emf 3\(V\) and a resisstance of \(10\Omega \). The potential gradient along the wire in \(V\)/\(m\) is

357308 A battery of emf \({E_0} = 12V\) is connected across a 4 \(m\) long uniform wire having resistance \(4\left( {\frac{\Omega }{m}} \right).\) The cells of small emf’s \({\varepsilon _1} = 2V\) and \({\varepsilon _2} = 4V\) having internal resistance \(2\Omega \) and \(4\Omega \) respectively, are connected as shown in the figure. If galvanometer shows no deflection at the point \(N\), the distance of point \(N\) from the point \(A\) is equal to

357309 A potential divider circuit is shown in figure. The output voltage \(V_{0}\) is

357310 A potentiometer wire has length \(L\). For given cell of emf \(E\), the balancing length is \(\frac{L}{3}\) from the positive end of the wire. If the length of potentiometer wire is increased by 50%, then for the same cell, the balance point is obtained at length