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The figure below shows an elastic collision between two bodies in which the coll

ID: 2140492 • Letter: T

Question

The figure below shows an elastic collision between two bodies in which the collision is not head-on. Projectile particle m1 is an alpha particle and target m2 is an oxygen nucleus. The oxygen nucleus (m2) is initially at rest. The alpha particle is scattered at angle ?1= 66.0 The figure below shows an elastic collision between two bodies in which the collision is not head-on. Projectile particle m1 is an alpha particle and target m2 is an oxygen nucleus. The oxygen nucleus (m2) is initially at rest. The alpha particle is scattered at angle ?1= 66.0 The figure below shows an elastic collision between two bodies in which the collision is not head-on. Projectile particle m1 is an alpha particle and target m2 is an oxygen nucleus. The oxygen nucleus (m2) is initially at rest. The alpha particle is scattered at angle ?1= 66.0 The figure below shows an elastic collision between two bodies in which the collision is not head-on. Projectile particle m1 is an alpha particle and target m2 is an oxygen nucleus. The oxygen nucleus (m2) is initially at rest. The alpha particle is scattered at angle ?1= 66.0 degree and the oxygen. nucleus recoils with speed 1.10 times 105 m/s at angle ?2 = 55.0 degree . In atomic mass units, the mass of an alpha particle is 4.00 u and the mass of an oxygen nucleus is 16.0 u. Find the final speed of the alpha particle. m/s Find the initial speed of the alpha particle. m/s

Explanation / Answer

Initial x momentum
= malpha vi
= final x momentum
= malpha vf cos (theta1) + mO vrecoil cos(theta2)

Initial y momentum = 0
= final y momentum
= malpha vf sin (theta1) - mO vrecoil sin(theta2)


Solve the second equation for your final speed.
vf = vrecoil (mO / malpha) (sin(theta2) / sin(theta1) )

=1.10x10^5*(16/4) (sin55/sin66)

=3.94x10^5

Solve the first equation for your initial speed:
vi = vf cos (theta1) + mO vrecoil cos(theta2) / malpha

Substitute your final speed into your equation for initial speed:

vi = vrecoil mO sin(theta2) cos(theta1) / (malpha sin(theta1) )
+ mO vrecoil cos(theta2) / malpha

= vrecoil (mO / malpha) ( sin(theta2) cot(theta1) + cos(theta2) )

=1.10 x 10^5 * (16/4) * [sin(55)* cot(66)+cos(55)]

vi=4.128 x 10^5

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