What is the Velocity of Ozone Formed from Inelastic Collisions?

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To find the velocity of the ozone formed from the inelastic collision of a 32 u oxygen molecule and a 16 u oxygen atom, momentum conservation must be applied in two dimensions. The initial velocities of the particles are given, with one moving at 1100 m/s and the other at 1648 m/s at an angle of 38 degrees. The final velocity of the combined ozone molecule can be calculated by resolving the momentum in both the x and y directions. The relevant equations for inelastic collisions and vector momentum are essential for solving this problem. Understanding the principles of momentum as a vector quantity is crucial for determining the correct final velocity of the ozone.
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Homework Statement



A 32 u oxygen molecule moving in the +x direction at 1100 m/s collides with an oxygen atom of mass 16u moving at 1648 m/s at 38 degrees to the + x-axis. The particles stick together to form an ozone molecule. Find the velocity of the ozone.

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