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★ Two spheres of masses 20 g and 40 g moving in a straight line in the same direction with velocities of 3 mIs and 2 m/s respectively. They collide with each other and after the collision, the sphere of mass 20 g moves with a velocity of 2.5 miles. Find the velocity of the second ball after confusion.
Answers
Answer:
Here, m
Here, m 1
Here, m 1
Here, m 1 =10g=
Here, m 1 =10g= 1000
Here, m 1 =10g= 100010
Here, m 1 =10g= 100010
Here, m 1 =10g= 100010 =0.01kg
Here, m 1 =10g= 100010 =0.01kgm
Here, m 1 =10g= 100010 =0.01kgm 2
Here, m 1 =10g= 100010 =0.01kgm 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kg
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2 u
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2 u 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2 u 2
Here, m 1 =10g= 100010 =0.01kgm 2 =20g=0.02kgu 1 =3ms −1 ;u 2 =2ms −1 v 1 =2.5ms −1 ;v 2 =?Total momentum of both the spheres before collision =m 1 u 1 +m 2 u 2
Step-by-step explanation:
Helps you
Answer:
★ For sphere A
• Mass = 20 g
• Initial velocity = 3 m/s
• Final velocity = 2.5 m/s
★ For sphere B
Mass = 40 g
Initial velocity = 2 m/s
★ We have to find final velocity of sphere B after collision.
Since no external force acts on the
system of sphere, momentum of whole
system is conserved.
Initial momentum of system will be equal to the final momentum of system.
Momentum is measured as the product of mass and velocity.
> P = mxv
➠ P (initial) = P (final)
➠ m₁U₁ + m₂U₂ = M₁V₁ + M₂V2
➠ 20(3) +40(2) = 20(2.5) + 40V2
➠ 60+80= 50 + 40v₂
➠ 40v₂ = 90
➠ V₂ = 2.25 m/s