The diagram in fig. shows a source S placed in a thick lead walled container. The radiation given out is allowed to pass through a magnetic field. The magnetic field (shown as x) acts perpendicular to the plane of paper inwards. Arrows show the paths of the radiations A, B and C. Name the radiations labelled A, B and C.

Q. The diagram shows a radioactive source S placed in a thick lead walled container. The radiations given out are allowed to pass through a magnetic field. The magnetic field (shown as x) acts perpendicular to the plane of paper inwards. Arrows show the paths of the radiations A, B and C. Name the radiations labelled A, B and C.

Q. The diagram in fig. shows a source S placed in a thick lead walled container. The radiation given out is allowed to pass through a magnetic field. The magnetic field (shown as x) acts perpendicular to the plane of paper inwards. Arrows show the paths of the radiations A, B and C. Explain clearly how you used the diagram to find the radiations A, B, and C.

Q. The diagram shows a radioactive source S placed in a thick lead walled container. The radiations given out are allowed to pass through a magnetic field. The magnetic field (shown as x) acts perpendicular to the plane of paper inwards. Arrows show the paths of the radiations A, B and C. Explain clearly how can you use the diagram to identify the radiations.

Q. Diagram shows a mixed source R of alpha and beta particles in a thick lead walled container. The particles pass through a magnetic field in a direction perpendicular to the plane of paper inwards as shown by x. Name the law used to identify the deflections of different radiations.

Q. Fig. shows a mixed source R of alpha and beta particles in a thick lead walled container. The particles pass through a magnetic field in a direction perpendicular to the plane of paper inwards as shown by $\times$.
(a) Show in the diagram how the particles get affected.
(b) Name the law used in part (a).