A 0.500 kg mass is attached to a spring of constant 150 N/m. A driving

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A 0.500 kg mass is attached to a spring of constant 150 N/m. A driving force F(t) = (3N)cos⁡(ωt) is applied to the mass, and the damping coefficient b is 6.00 Ns/m. What is the amplitude (in cm) of the steady-state motion if ω is equal to half of the natural frequency ω0 of the system? Enter a number with two digits behind the decimal point.

A 0.500 kg mass is attached to a spring of constant 150 N/m. A driving force F(t) = (3N)cos⁡(ωt) is applied to the mass, and the damping coefficient b is 6.00 Ns/m. What is the amplitude (in cm) of the steady-state motion if ω is equal to half of the natural frequency ω0 of the system? Enter a number with two digits behind the decimal point.

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A 0.500 kg mass is attached to a spring of constant

150 N / m

. A driving force

F (t) = (3 N) \cos (ω t)

is applied to the mass, and the damping coefficient

b

is 6.00

N s / m

. What is the amplitude (in cm ) of the steadystate motion if

ω

is equal to half of the natural frequency

ω_{0}

of the system? Enter a number with two digits behind the decimal point.

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A mass weighing 4 pound is attached to a spring whose spring constant is 2 lb/ft. The medium offers a damping force that is numerically equal to the instantaneous velocity. The mass is initially released from 1 foot above the equilibrium position with a downward velocity of 14 ft/s. Determine the time at which mass passes through the equilibrium position. (Use g = 32 ft/s^2 for acceleration due to gravity.)

Find the time (in s) after mass passes through the equilibrium position at which the mass attains its extreme displacement from the equilibrium position.

What is the position of the mass at this instant?

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