
Force on mass \( m_1 \):
\( T_1 - T_2 - m_1 g = m_1 a \)
Substitute the given values:
\( T_1 - T_2 - 5 \times 9.8 = 5a \)
Simplifying:
\( T_1 - T_2 = 59.0 \, \text{N} \)
Force on mass \( m_2 \):
\( T_2 - m_2 g = m_2 a \)
Substitute the given values:
\( T_2 = 3 \times (9.8 + 2) \)
Simplifying:
\( T_2 = 3 \times 11.8 = 35.4 \, \text{N} \)
Now, solving for \( T_1 \):
\( T_1 = T_2 + 59.0 = 35.4 + 59.0 = 94.4 \, \text{N} \)
Therefore, the force on mass \( m_1 \) is: \( T_1 = 94.4 \, \text{N} \).
Two blocks of masses \( m \) and \( M \), \( (M > m) \), are placed on a frictionless table as shown in figure. A massless spring with spring constant \( k \) is attached with the lower block. If the system is slightly displaced and released then \( \mu = \) coefficient of friction between the two blocks.
(A) The time period of small oscillation of the two blocks is \( T = 2\pi \sqrt{\dfrac{(m + M)}{k}} \)
(B) The acceleration of the blocks is \( a = \dfrac{kx}{M + m} \)
(\( x = \) displacement of the blocks from the mean position)
(C) The magnitude of the frictional force on the upper block is \( \dfrac{m\mu |x|}{M + m} \)
(D) The maximum amplitude of the upper block, if it does not slip, is \( \dfrac{\mu (M + m) g}{k} \)
(E) Maximum frictional force can be \( \mu (M + m) g \)
Choose the correct answer from the options given below:
A wooden block of mass M lies on a rough floor. Another wooden block of the same mass is hanging from the point O through strings as shown in the figure. To achieve equilibrium, the coefficient of static friction between the block on the floor and the floor itself is 
Match List-I with List-II and select the correct option: 