152622 Current provided by a battery is maximum when

152623 Two batteries of emf $4 \mathrm{~V}$ and $8 \mathrm{~V}$ with internal resistances $1 \Omega$ and $2 \Omega$ respectively are connected to an external resistance, $R=9 \Omega$ as shown in figure. The current in circuit and the potential difference between $P$ and $Q$ respectively will be

152624 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.2 \Omega$ is connected with the resistance of $1.8 \Omega$. The voltage across the cell terminal will be

152625 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.5 \Omega$ is connected to a $7.5 \Omega$ external resistance. The terminal potential difference of the cell is:-

152626 Two resistors or resistance, $100 \Omega$ and $200 \Omega$ are connected in parallel in an electrical circuit. The ratio of the thermal energy developed in $100 \Omega$ to that in $200 \Omega$ in a given time is

152622 Current provided by a battery is maximum when

152623 Two batteries of emf $4 \mathrm{~V}$ and $8 \mathrm{~V}$ with internal resistances $1 \Omega$ and $2 \Omega$ respectively are connected to an external resistance, $R=9 \Omega$ as shown in figure. The current in circuit and the potential difference between $P$ and $Q$ respectively will be

152624 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.2 \Omega$ is connected with the resistance of $1.8 \Omega$. The voltage across the cell terminal will be

152625 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.5 \Omega$ is connected to a $7.5 \Omega$ external resistance. The terminal potential difference of the cell is:-

152626 Two resistors or resistance, $100 \Omega$ and $200 \Omega$ are connected in parallel in an electrical circuit. The ratio of the thermal energy developed in $100 \Omega$ to that in $200 \Omega$ in a given time is

152622 Current provided by a battery is maximum when

152623 Two batteries of emf $4 \mathrm{~V}$ and $8 \mathrm{~V}$ with internal resistances $1 \Omega$ and $2 \Omega$ respectively are connected to an external resistance, $R=9 \Omega$ as shown in figure. The current in circuit and the potential difference between $P$ and $Q$ respectively will be

152624 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.2 \Omega$ is connected with the resistance of $1.8 \Omega$. The voltage across the cell terminal will be

152625 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.5 \Omega$ is connected to a $7.5 \Omega$ external resistance. The terminal potential difference of the cell is:-

152626 Two resistors or resistance, $100 \Omega$ and $200 \Omega$ are connected in parallel in an electrical circuit. The ratio of the thermal energy developed in $100 \Omega$ to that in $200 \Omega$ in a given time is

152622 Current provided by a battery is maximum when

152623 Two batteries of emf $4 \mathrm{~V}$ and $8 \mathrm{~V}$ with internal resistances $1 \Omega$ and $2 \Omega$ respectively are connected to an external resistance, $R=9 \Omega$ as shown in figure. The current in circuit and the potential difference between $P$ and $Q$ respectively will be

152624 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.2 \Omega$ is connected with the resistance of $1.8 \Omega$. The voltage across the cell terminal will be

152625 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.5 \Omega$ is connected to a $7.5 \Omega$ external resistance. The terminal potential difference of the cell is:-

152626 Two resistors or resistance, $100 \Omega$ and $200 \Omega$ are connected in parallel in an electrical circuit. The ratio of the thermal energy developed in $100 \Omega$ to that in $200 \Omega$ in a given time is

152622 Current provided by a battery is maximum when

152623 Two batteries of emf $4 \mathrm{~V}$ and $8 \mathrm{~V}$ with internal resistances $1 \Omega$ and $2 \Omega$ respectively are connected to an external resistance, $R=9 \Omega$ as shown in figure. The current in circuit and the potential difference between $P$ and $Q$ respectively will be

152624 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.2 \Omega$ is connected with the resistance of $1.8 \Omega$. The voltage across the cell terminal will be

152625 A cell of emf $4 \mathrm{~V}$ and internal resistance $0.5 \Omega$ is connected to a $7.5 \Omega$ external resistance. The terminal potential difference of the cell is:-

152626 Two resistors or resistance, $100 \Omega$ and $200 \Omega$ are connected in parallel in an electrical circuit. The ratio of the thermal energy developed in $100 \Omega$ to that in $200 \Omega$ in a given time is