Uncategorised (JEE Advanced Physics by BM Sharma + GMP Solutions)
Twelve identical resistances arranged on all edges of a cube. The resistors are all the same. Then find the equivalent resistance between the edges A and B as shown in figure.
02
Sep
Twelve identical resistances arranged on all edges of a cube. The resistors are all the same. Then find the equivalent resistance between the edges A and B as shown in figure. Twelve identical resistances arranged on all edges of a cube. The resistors are all the same. Then find the equivalent resistance between the edges [...]
An ideal gas of molar mass M is filled in a tall vertical cylindrical vessel whose cross-sectional area is A and it is kept on earth’s surface. Assuming the temperature of the gas as T and the pressure on the bottom as p0,
02
Sep
An ideal gas of molar mass M is filled in a tall vertical cylindrical vessel whose cross-sectional area is A and it is kept on earth’s surface. Assuming the temperature of the gas as T and the pressure on the bottom as p0, (b) cooled at constant volume to 300 k A cylinder contains 2 [...]
Six resistor are arranged along the edges of a pyramid as shown in Fig. 5.43. The values of resistances are mentioned with resistances in the figure. Find the effective between A and B.
02
Sep
Six resistor are arranged along the edges of a pyramid as shown in Fig. 5.43. The values of resistances are mentioned with resistances in the figure. Find the effective between A and B. Six resistor are arranged along the edges of a pyramid as shown in Fig. 5.43. The values of resistances are mentioned with [...]
In the following network of 12 identical resistances, calculate the equivalent resistance between points A and C
02
Sep
In the following network of 12 identical resistances, calculate the equivalent resistance between points A and C calculate the equivalent resistance between points A and C In the following network of 12 identical resistances September 2, 2020 Category: Uncategorised (JEE Advanced Physics by BM Sharma + GMP Solutions) ,
A cylinder contains 2 liters of air at 2 atmospheric pressure and 200 k. is subjected to the following cyclic process in four different stages. It is (a) heated at constant pressure to 600 k, (b) cooled at constant volume to 300 k
02
Sep
A cylinder contains 2 liters of air at 2 atmospheric pressure and 200 k. is subjected to the following cyclic process in four different stages. It is (a) heated at constant pressure to 600 k, (b) cooled at constant volume to 300 k (b) cooled at constant volume to 300 k A cylinder contains 2 [...]
In the circuit shown in figure E,F, G and H are cell of emf 2,1,3, and 1V respectively. The resistances 2,1,3 and 1(Omega)are their respective internal resistance .Calculate (a)the potential difference between B and D and (b) the potential differences across the terminals of each of each of the cells G and H.
02
Sep
In the circuit shown in figure E,F, G and H are cell of emf 2,1,3, and 1V respectively. The resistances 2,1,3 and 1(Omega)are their respective internal resistance .Calculate (a)the potential difference between B and D and (b) the potential differences across the terminals of each of each of the cells G and H. 1 3% [...]
An adiabatic vessel contains n1 = 3 mole of diatomic gas. Moment of inertia of each molecule is I=2.76×10^−46kgm^2 and root-mean-square angular velocity is ω0=5×10^12rad/s. Another adiabatic vessel contains n2=5 mole of a monoatomic gas at a temperature 470K. Assume gases to be ideal, calculate root-mean-square angular velocity of diatomic molecules when the two vessels are connected by a thin tube
02
Sep
An adiabatic vessel contains n1 = 3 mole of diatomic gas. Moment of inertia of each molecule is I=2.76×10^−46kgm^2 and root-mean-square angular velocity is ω0=5×10^12rad/s. Another adiabatic vessel contains n2=5 mole of a monoatomic gas at a temperature 470K. Assume gases to be ideal, calculate root-mean-square angular velocity of diatomic molecules when the two vessels [...]
Find the current in each part of the circuit given in fig.(a).
02
Sep
Find the current in each part of the circuit given in fig.(a). Find the current in each part of the circuit given in fig.(a). September 2, 2020 Category: Uncategorised (JEE Advanced Physics by BM Sharma + GMP Solutions) ,
In the circuit shown in fig. determine the voltage drop between A and D.
02
Sep
In the circuit shown in fig. determine the voltage drop between A and D. In the circuit shown in fig. determine the voltage drop between A and D. September 2, 2020 Category: Uncategorised (JEE Advanced Physics by BM Sharma + GMP Solutions) ,
Find the minimum attainable pressure of an ideal gas in the process T=T0+αV^2, Where T0 and α are positive constant and V is the volume of one mole of gas. Draw the approximate T−V plot of this process.
02
Sep
Find the minimum attainable pressure of an ideal gas in the process T=T0+αV^2, Where T0 and α are positive constant and V is the volume of one mole of gas. Draw the approximate T−V plot of this process. Find the minimum attainable pressure of an ideal gas in the process T=T0+αV^2 Where T0 and α [...]