(A) | \(a_{cm}=\dfrac{F_1-F_2}{m+M},\) if there is no friction acting between \(m\) and \(M\) |
(B) | \(a_{cm}=\dfrac{F_1-F_2}{m+M},\) if there is static friction between \(m\) and \(M\) |
(C) | \(a_{cm}=\dfrac{F_1-F_2}{m+M},\) in all situations |
1. | \(\dfrac{F}{m}.\) | equal to
2. | \(\dfrac{F}{m}.\) | greater than
3. | \(\dfrac{F}{m}.\) | less than
4. | unpredictable, and depends on the radius of the sphere. |
1. | \(\sqrt{2gL}\) | 2. | \(\sqrt{3gL}\) |
3. | \(\sqrt{6gL}\) | 4. | \(\sqrt{gL}\) |
1. | \(m\left(\dfrac{a^2 +b^2}{3}\right ) \) | 2. | \(m\left(\dfrac{a^2 +b^2}{6}\right) \) |
3. | \(m\left(\dfrac{a^2 +b^2}{12}\right) \) | 4. | \(m\left(\dfrac{a^2 +b^2}{2}\right) \) |
1. | \({\dfrac b 2}\) | 2. | \({ \dfrac b 4}\) |
3. | \({\dfrac b 8}\) | 4. | \(\dfrac b 3\) |
1. | is stationary |
2. | accelerates to the left |
3. | accelerates to the right |
4. | accelerates downward |