### Collision of Atoms in a GasTwo atoms collide while moving in a gas. The larger atom has a mass \(M_1 = 6\) Daltons and a speed \(v_1 = 226\) m/s, while the smaller has a mass \(M_2 = 1\) Dalton (D). During the collision, both atoms simply bounce off each other. They do not change their speeds, but after the collision, they each reverse their directions, bouncing straight back.*(Note: You may express your results using the mass unit "Daltons". 1 Dalton is approximately equal to the mass of a proton or neutron and is defined as one-twelfth the mass of a single neutral carbon-12 atom in its ground state.)***Diagram:**- The diagram shows two spheres, one larger green sphere labeled \(M_1\) (mass = 6 Daltons) and one smaller red sphere labeled \(M_2\) (mass = 1 Dalton), moving towards each other. The larger atom \(M_1\) has a velocity \(v_1 = 226 \text{ m/s}\) indicated by an arrow pointing to the left. The smaller atom \(M_2\) has a velocity \(v_2\) indicated by an arrow pointing to the right. After collision, the arrows reverse, indicating that they bounce back in opposite directions with the same speed.### Questions:**A. What is the magnitude of the change in the momentum, \(\Delta p_1\), of mass \(M_1\)?**\[ \Delta p_1 = \boxed{D \text{ m/s}} \]**B. If the collision took place over a time interval of 5 ns, what is the average acceleration experienced by the atom \(M_1\)?***(Note: 1 ns = \(1 \times 10^{-9}\) s. You can enter your answer in scientific notation using e, like 1.2e3 for 1200.)*\[ \text{Average acceleration} = \boxed{\text{m/s/s}} \]

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Description: ### Collision of Atoms in a GasTwo atoms collide while moving in a gas. The larger atom has a mass \(M_1 = 6\) Daltons and a speed \(v_1 = 226\) m/s, while the smaller has a mass \(M_2 = 1\) Dalton (D). During the collision, both atoms simply bounce

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Two atoms collide while moving in a gas. The larger atom has a mass M, = 6 Daltons and a speed vi = 226 m/s, while the smaller has a mass M2 = 1 Daltons (D). During the collision both atoms simply bounce off each other. They do not change their speeds, but after the collision they each reverse their directions, bouncing straight back. (You may express your results using the mass unit "Daltons". 1 Dalton is approximately equal to the mass of a proton or neutron and is defined as one-twelfth the mass of a single neutral carbon-12 atom in its ground state.) M. M2 A. What is the magnitude of the change in the momentum, Ap1, of mass M13 D m/s B. If the collision took place over a time interval of 5 ns, what is the average acceleration experienced by the atom M,? (Note: 1 ns = 1 x 109 s. You can enter your answer in scientific notation using e, like 1.2e3 for 1200.) m/s/s

Two atoms collide while moving in a gas. The larger atom has a mass M, = 6 Daltons and a speed vi = 226 m/s, while the smaller has a mass M2 = 1 Daltons (D). During the collision both atoms simply bounce off each other. They do not change their speeds, but after the collision they each reverse their directions, bouncing straight back. (You may express your results using the mass unit "Daltons". 1 Dalton is approximately equal to the mass of a proton or neutron and is defined as one-twelfth the mass of a single neutral carbon-12 atom in its ground state.) M. M2 A. What is the magnitude of the change in the momentum, Ap1, of mass M13 D m/s B. If the collision took place over a time interval of 5 ns, what is the average acceleration experienced by the atom M,? (Note: 1 ns = 1 x 109 s. You can enter your answer in scientific notation using e, like 1.2e3 for 1200.) m/s/s

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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