For the following system shown assume that pulley is frictionless, string is massless (m remains on M),
Q. The force on the ceiling is

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. The acceleration of the block A is

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. The acceleration of the block A is

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. The acceleration of the block A is

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. Normal reaction on m is (force on C due to B)

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. Normal reaction on m is (force on C due to B)

For the following system shown assume that pulley is frictionless, string is massless (m remains on M), Q. Normal reaction on m is (force on C due to B)

In the system shown in fig the pulley is frictionless and the string massless if m_(1)=m_(2) thrust on the pulley will be:

In the systems shown in figure (A), (B), (C) and (D), the scales of the springs are calibrated in newton Assume that Pulleys are massless and frictionless Strings are massless The surface in figure (D) is frictionless Reading of the spring scale in figure (C) is

In the systems shown in figure (A), (B), (C) and (D), the scales of the springs are calibrated in newton Assume that Pulleys are massless and frictionless Strings are massless The surface in figure (D) is frictionless Reading of the spring scale in figure (B) is

In the systems shown in figure (A), (B), (C) and (D), the scales of the springs are calibrated in newton Assume that Pulleys are massless and frictionless Strings are massless The surface in figure (D) is frictionless Reading of the spring scale in figure (D) is