I need the answer as soon as possible A beam of silver atoms, for which M,= +HB. passes through aninhomogeneous magnetic field, as in the Stern-Gerlach apparatus shownschematically in Fig. 1.15. The field gradient is 0B/0z = 10 T m-, thelength of the pole piece is L=0.1 m, the distance to the screen is 1= 1 mand the temperature of the oven is T= 600 K. Assuming that the velocityof the silver atoms is equal to the root-mean-square velocity of (3kT/ M)"2(where k is the Boltzmann constant and M is the mass of a silver atom)calculate the maximum separation (P,P3 in Fig.on the screen.) of the two beamsP3

The Stern Gerlach experiment was performed in the year 1921 that proved the space quantization of…

A beam of silver atoms, for which M=+HB, passes through an inhomogeneous magnetic field, as in the Stern-Gerlach apparatus shown schematically in Fig. 1.15. The field gradient is 0B/0z 103 T m-, the length of the pole piece is L=0.1 m, the distance to the screen is I=1 m and the temperature of the oven is T = 600 K. Assuming that the velocity of the silver atoms is equal to the root-mean-square velocity of (3kT/M)2 (where k is the Boltzmann constant and M is the mass of a silver atom) calculate the maximum separation (P,P, in Fig. on the screen. ) of the two beams

A beam of silver atoms, for which M=+HB, passes through an inhomogeneous magnetic field, as in the Stern-Gerlach apparatus shown schematically in Fig. 1.15. The field gradient is 0B/0z 103 T m-, the length of the pole piece is L=0.1 m, the distance to the screen is I=1 m and the temperature of the oven is T = 600 K. Assuming that the velocity of the silver atoms is equal to the root-mean-square velocity of (3kT/M)2 (where k is the Boltzmann constant and M is the mass of a silver atom) calculate the maximum separation (P,P, in Fig. on the screen. ) of the two beams