The masses of blocks A and B are m and M respectively. Between A and B, there is a constant frictional force F and B can slide on a smooth horizontal surface. A is set in motion with velocity v₀ while B is at rest. What is the distance moved by A relative to B before they move with the same velocity? 
Which of the following is the correct electronic configuration for \( \text{Oxygen (O)} \)?
In the figure, two blocks are separated by a uniform strut attached to each block with frictionless pins. Block A weighs 400 N, block B weighs 300 N, and the strut AB weighs 200 N. If μ = 0.25 under block B, determine the minimum coefficient of friction under A to prevent motion. 
Block A of mass m and block B of mass 2m are placed on a fixed triangular wedge by means of a massless, inextensible string and a frictionless pulley as shown in the figure. The wedge is inclined at 45° to the horizontal on both sides. If the coefficient of friction between block A and the wedge is (2)/(3) and that between block B and the wedge is (1)/(3), and both blocks A and B are released from rest, the acceleration of A will be: 
In the figure, two blocks are separated by a uniform strut attached to each block with frictionless pins. Block \(A\) weighs 400 N, Block \(B\) weighs 300 N, and the strut \(AB\) weighs 200 N. If \(\mu = 0.25\) under \(B\), determine the minimum coefficient of friction under \(A\) to prevent motion. 
The masses of blocks \(A\) and \(B\) are \(m\) and \(M\) respectively. Between \(A\) and \(B\) there is a constant frictional force \(F\). Block \(B\) can slide on a smooth horizontal surface. \(A\) is set in motion with velocity \(v_0\) while \(B\) is at rest. What is the distance moved by \(A\) relative to \(B\) before they move with the same velocity? 