To determine the force block A exerts on block B, we will first analyze the forces on both blocks. Given a frictionless surface, the sole horizontal force acting on each block is the 10 N applied force.
The total mass of the system is calculated as follows:
\(m_A = 2 \text{ kg}\)
\(m_B = 3 \text{ kg}\)
Total mass, \(M = m_A + m_B = 2 \text{ kg} + 3 \text{ kg} = 5 \text{ kg}\)
Next, the system's acceleration is found using Newton's second law:
\(F = M \cdot a\)
\(10 \text{ N} = 5 \text{ kg} \cdot a\)
Solving for \(a\) yields:
\(a = \frac{10 \text{ N}}{5 \text{ kg}} = 2 \text{ m/s}^2\)
Now, we consider block B. The acceleration of block B is solely due to the force applied by block A.
Applying Newton's second law to block B:
\(F_{AB} = m_B \cdot a\)
\(F_{AB} = 3 \text{ kg} \cdot 2 \text{ m/s}^2 = 6 \text{ N}\)
Therefore, the force exerted by block A on block B is \(6 \, \text{N}\).