The coordinates of an object moving in the xy plane vary with time according to the...
(1 point) A body of mass 10 kg moves in the xy-plane in a counterclockwise circular path of radius 3 meters centered at the origin, making one revolution every 11 seconds. At the time t 0, the body is at the rightmost point of the circle. A. Compute the centripetal force acting on the body at time t. B. Compute the magnitude of that force. HINT. Start with finding the angular velocity o [rad/s] of the body (the rate of...
A particle is moving clockwise on a circle of radius R= 30. The acceleration at t=13π is a(13π)=〈0,−13〉. (a) (5 Points) Find T(13π).Hint: The unit tangent vector of the particle at P will be the same independently of the parametrization of the circle. You can user(t) =〈sin (t),cos (t)〉as the path of a particle moving clockwise on a circle of radius R= 1. (b) (5 points) Find aT at t=13π. (c) (5 points) What is the curvature at t=13π. (d)...
The position of an object in circular motion is modeled by the given parametric equations. Describe the path of the object by stating the radius of the circle, the position at time to the orientation of the motion (clockwise or counterclockwise), and the time that it takes to complete one revolution around the circle. x = 5 cos(4), y = sin(40) radius of the circle position at time to (x, y) = orientation of the motion dockwise counterclockwise time it...
Please help! :) Discussion #3 1. Consider the motion of an object that can be treated as a point particle and is traveling counter-clockwise in a circle of radius R. This motion can (and will for the purposes of these discussion activities) be described and analyzed using a Cartesian (x-y) coordinate system with a spatial origin at the center of the particle's circular trajectory (the physical path its motion traces out in space). (a) Draw a diagram of the position...
At t = 0, a particle moving in the xy plane with constant acceleration has a velocity of vector v i = (3.00 i - 2.00 j) m/s and is at the origin. At t = 3.60 s, the particle's velocity is vector v = (8.90 i + 7.70 j) m/s. (Use the following as necessary: t. Round your coefficients to two decimal places.) (a) Find the acceleration of the particle at any time t. vector a = m/s2 (b)...
At t = 0, a particle moving in the xy plane with constant acceleration has a velocity of vector v i = (3.00 i - 2.00 j) m/s and is at the origin. At t = 3.70 s, the particle's velocity is vector v = (7.40 i + 6.90 j) m/s. (Use the following as necessary: t. Round your coefficients to two decimal places.) (a) Find the acceleration of the particle at any time t. vector a = m/s2 (b)...
The position vector r describes the path of an object moving in space. Position Vector r(t) = (cos(t), sin(t), 3t) t = 1 Time (a) Find the velocity vector, speed, and acceleration vector of the object. v(t) = (b) Evaluate the velocity vector and acceleration vector of the object at the given value of t. a(T) = Submit Answer
For an object moving in a circle of radius r centered on the origin at a speed v the position, r, as a function of time is given by r(t) = r(cos((v/r)t)i + sin((v/r)t)j) (a) Find the expression for the velocity, v, as a function of time.
A force in the xy plane is given by = where F is a constant and r=. a.) Find the magnitude of the force. b.)Show that is perpendicular to =x c.) Find the work done by this force on a particle that moves once around a circle of radius 5 m centered at the origin. A force in the xy plane is given by hat{i}+yhat{j} c.) Find the work done by this force on a particle that moves once around...
The motion of an object moving in simple harmonic motion is given by x(t)=(0.1m)[cos(omega*t)+sin(omega*t)] where omega= 3Pi. A) Determine the velocity and acceleration equations. B) Determine the position, velocity, and acceleration at time t= 2.4 seconds.