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24 March, 01:20

What is the magnitude of the force you must exert on the rope in order to accelerate upward at 1.4 m/s2, assuming your inertia is 63 kg? Express your answer with the appropriate units.

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Answers (2)
  1. 24 March, 01:32
    0
    The magnitude of the force you must exert on the rope in order to accelerate upward is 705.6 N

    Explanation:

    The magnitude of force, you must exert can be estimated as follows;

    Since it is upward motion, we must consider acceleration due to gravity which opposes the upward motion.

    F = m (a+g)

    where;

    F is the magnitude of the upward force

    m is your mass, which is the measure of inertia = 63kg

    a is the acceleration of the rope = 1.4 m/s²

    F = 63 (1.4 + 9.8)

    F = 63 (11.2)

    F = 705.6 N

    Therefore, the magnitude of the force you must exert on the rope in order to accelerate upward is 705.6 N
  2. 24 March, 02:34
    0
    705.6 N

    Explanation:

    Force: This can be defined as the product of mass a acceleration.

    The S. I unit of force is Newton.

    The expression for the force on the rope in order to accelerate upward is given as,

    F-W = ma ... Equation 1

    Where F = Force exerted on the rope, W = weight of the rope, m = mass of the rope, a = acceleration.

    But,

    W = mg ... Equation 2

    Where g = acceleration due to gravity

    substitute equation 2 into equation 1

    F-mg = ma

    F = ma+mg

    F = m (a+g) ... Equation 3

    Given: m = 63 kg, a = 1.4 m/s²

    Constant: g = 9.8 m/s²

    Substitute into equation 3

    F = 63 (1.4+9.8)

    F = 63 (11.2)

    F = 705.6 N

    The magnitude of the force exerted on the rope = 705.6 N
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