The force on a particle of mass m is given by F⃗ =24iˆ−16t2jˆ where F is in N and t in s.

The force on a particle of mass m is given by F⃗ =24iˆ−16t2jˆ where F is...
The force on a particle of mass m is given by F⃗ =26iˆ−13t2jˆ where F is in N and t in s. What will be the change in the particle's momentum between t = 1.0 s and t = 4.0 s ?
Starting at t = 0 s , a horizontal net force F⃗ =( 0.290 N/s )ti^+(-0.440 N/s2 )t2j^ is applied to a box that has an initial momentum p⃗ = ( -2.85 kg⋅m/s )i^+( 4.00 kg⋅m/s )j^ . Part A What is the momentum of the box at t = 1.90 s ? Enter the x and y components of the momentum separated by a comma.
The velocity-versus-time graph is shown for a particle moving along the x-axis. Its initial position is x0 = 1.8 m at t0 = 0 s. (Figure 1) Part A What is the particle's position at t = 1.0 s ? Part B What is the particle's velocity at t = 1.0s? Part C What is the particle's acceleration at t = 1.0 s? Part D What is the particle's position at t = 3.0s? Part E What is the particle's velocity at t = 3.0s? Part...
Force F⃗ =−14j^N is exerted on a particle at r⃗ =(4i^+5^j)m. What is the torque on the particle about the origin? Express your answer using two significant figures. Enter coordinates numerically separated by commas.
D. If the force F acting on a particle of mass m is parallel to its velocity, use Fdp/dt to show that F m(1 - v/c?)dv/dt where v is the speed of the particle, and f is the relativistic momentum
The motion of a particle of mass m = 100 g is given by x = ( 20 cm )cos(5t), where t is in seconds. Part A - Find the particle's potential energy at t = 2.0 s
Force F⃗ =−13j^N is exerted on a particle at r⃗ =(4i^+5j^)m. What is the torque on the particle about the origin? (N*m)
Consider a particle with a mass m subject to a force F(x) = ax - bx3 where x is the displacement of the origin of the reference system and a and b are positive constants. a) Find an expression of the particle's total energy. Show that this total energy is constant. b) Find the equilibrium points and determine if they are stable or unstable.
The centripetal force acting on a particle is given by F = mv2/r. If the centripetal force and mass are kept constant, increasing the radius of the particle's circular path will mean that the particle's velocity must decrease. Note that the question is asking about the radius of the particle's circular path, not just the radius of the particle.
(b) Suppose that a particle of mass m travels along a path r(t) with velocity t) according to Newton's second law, F(t)ma(t), where a-is the acceleration. Then the angular momentum C of the particle about the origin is defined as while the torque of the force F about the origin is Show that the rate of change of the angular momentum is given by C()-T What happens to the momentum if the force F is a central force field, .e.,...