The motions of A and B are constrained because they are connected by a rope of constant length. The length of the rope depends on the distances sĄ andy which change. Write an expression for the length L of the rope in terms of the variable distances sĄ and y and the fixed distance 11 m. If the distance sA = 2.4 m and y = 2.4 m, how long is the rope that connects moving point A to fixed point C? 11 m Answer:L = i

A cube with the dimensions bXbXb with mass m lies on the flat horizontal ground. One the side shown in the figure. The thickness normal to the plane of the figure is b. The cube is subject to the earth's gravity and the friction coefficient between the cube abd the ground is mu. Express your answer in terms of the given variables. What is the minimum force required to produce sliding? What is the minumum force required to produce tipping of the cube? Assume the cube is rotating about O. Impulsive horizontal loading L is applied on the edge B such that force F(t) is applied during the very short time delta t: where L= the integral from zero to delta t of F(t)dt. What is the minimum value of the impulse for which the cube tips over and falls on side OA.

Part (a)  Do this for the range r > R.  E = _____ Part (b)  Do this for the range r < R.  E = _____

Using the results from part (c), what was the cars horizontal component of acceleration, in meter per second squared, during the braking period ? C=2.75

Please answer the correctly and clearly

I need help with a math question: Given that x = position, v = velocity, a = acceleration, m = mass. Which of the following will have units of kg * m/s^2 and why? m ∫ a dt m ∫ v dt 1/2m dv^2/dx m ∫ x dt 1/2m dv^2/dt  m dx/dt m dv/dt m da/dt 1/2m ∫ v^2 dt I am including an image/reference table. Thanks!