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A 3.00 kg object has a velocity (6.00 ha...

A `3.00 kg` object has a velocity `(6.00 hati - 2.00 hatj) m//s`. What is the net work done on the object if its velocity changes to `(8.00 hati - 4.00 hatj) m//s`?

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A 3 kg object has initial velocity (6hati-2hatj)ms^(-1) . What will be the total work done (in joule) on the object if its velocity changes to (8hati+4hatj)ms^(-1) ?

A 3 kg object has initial velocity (6hati-2hatj)ms^(-1) . What will be the total work done (in joule) on the object if its velocity changes to (8hati+4hatj)ms^(-1) ?

An object weighs 2.50 kg. In time t, measured in seconds, the velocity of the object is given by bar(v)=(7.00t hati+2.00t^(2)hatj) m/s. At the instant the net force on the object has a magnitude of 35.0 N, what are the direction of the net force and the object's direction of travel ?

A force vec(F)=(3.00N)hat(i)+(7.00N) hat(j) + (7.00N)hat(k) act on a 2.00 kg mobile object that moves from an initial position of vec(r_(i))=(3.00m)hat(i)-(2.00m)hat(j)+(5.00m)hat(k) to a final position of vec(r_(f))+(5.00m)hat(i)+(4.00m)hat(j)+(7.00m)hat(k) in 4.00 s. Find the work done on the object by the force in the 4.00 s interval.

A force vec(F)= (3.00 N) hat(i)+(7.00 N) hat(j)+(7.00 N) hat(k) acts on a 2.00 kg mobile object that moves from an initial position of vec(d)_(i) = (3.00 m) hat(i)- (2.00 m) hat(j)+ (5.00 m) hat(k) to a final position of vec(d)_(f)=-(5.00 m) hat(i) + (4.00 m) hat(j)+ (7.00 m) hat(k) in 4.00 s. Find (a) the work done on the object by the force in the 4.00 s interval, (b) the average power due to the force during that interval, and (c) the angle between vectors vec(d)_(i) and vec(d)_(f) .

A force (2.00hati-4.00hatj+2.00hatk)N acts on a particle located at (3.00hati+2.00hatj-4.00hatk)m . What is the magnitude of the torque on the particle as measured about the origin?

A particle leaves the origin with an initial velodty v= (3.00 hati) m//s and a constant acceleration a= (-1.00 hati-0.500 hatj) m//s^2. When the particle reaches its maximum x coordinate, what are (a) its velocity and (b) its position vector?

A particle leaves the origin with an initial velodty v= (3.00 hati) m//s and a constant acceleration a= (-1.00 hati-0.500 hatj) m//s^2. When the particle reaches its maximum x coordinate, what are (a) its velocity and (b) its position vector?

A particle leaves the origin with an initial velodty v= (3.00 hati) m//s and a constant acceleration a= (-1.00 hati-0.500 hatj) m//s^2. When the particle reaches its maximum x coordinate, what are (a) its velocity and (b) its position vector?

A particle leaves the origin with an initial velodty v= (3.00 hati) m//s and a constant acceleration a= (-1.00 hati-0.500 hatj) m//s^2. When the particle reaches its maximum x coordinate, what are (a) its velocity and (b) its position vector?