A mass weighing 20 N stretches a spring 6 m. The mass is initially released from...
differential equation
01 /8 points l Previous Answers 11 5.1.005 stretches a spring 6 inches. The mass is initially released from rest from a point 9 inches below the equilibrium position 2 s. (Use g 32 ft/s' for the acceleration due to gravity.) (a) Find the position x of the mass at the times t π/12, m/8, π/6, π/4, and 9m/3 x(n/12) x(T/8) ft ft x(T/4) x(9m/32)- (b) What is the velocity of the mass when t3/16 s? ft ft/s...
A mass weighing 12 pounds stretches a spring 2 feet. The mass is initially released from a point 1 foot below the equilibrium position with an upward velocity of 4 ft/s. (Use g 32 ft/s for the acceleration due to gravity.) (a) Find the equation of motion x(t) (b) what are the amplitude, period, and frequency of the simple harmonic motion? amplitude1.118 ft period frequency cycles/s (c) At what times does the mass return to the point 1 foot below...
6. 2/8 polnts 1 Previous Answers My Notes Ask Your Teach A mass weighing 12 pounds stretches a spring 6 inches. The mass is initally released from rest from a point 2 nches below the equilibrium position. g 32 ft/s for the acceleration due to gravity.) below the equilibrium position. (Use (a) Find the position of the mass at the times t-π/12, t/8, π/6, T/4, and 9,32 s. 12 t s ft ft 5 ft 97I ft (b) What is...
Suppose a mass weighing 32 lb stretches a spring 2 ft. If the mass is released from rest at the equilibrium position, find the equation of motion x(t) if an impressed force f (t) - sin t acts on the system for 0 t 2π and is then removed
Suppose a mass weighing 32 lb stretches a spring 2 ft. If the mass is released from rest at the equilibrium position, find the equation of motion x(t) if an impressed...
Suppose a mass weighing 32 lb stretches a spring 2 ft. If the mass is released from sin t acts on rest at the equilibrium position, find the equation of motion x(t) if an impressed force f(t) the system for 0 5 t < 2t and is then removed.
Suppose a mass weighing 32 lb stretches a spring 2 ft. If the mass is released from sin t acts on rest at the equilibrium position, find the equation of motion...
21. A mass weighing 122.5 g stretches a spring by 7- F(f)-0.2e-2 N. The spring is set in motion from its equilibrium position with a downward velocity of I m/s. Find an equation for the position of the spring at any time t. A cm. The damping constant is c 0.4. External vibrations create a force of 32
21. A mass weighing 122.5 g stretches a spring by 7- F(f)-0.2e-2 N. The spring is set in motion from its equilibrium...
(7 points) 13. A mass weighing 10 pounds stretches a spring 3 inches. The mass is removed and replaced with a mass weighing 51.2 pounds, which is initially released from a point 4 inches above the equilibrium position with an downward velocity of ft/s. Find the equation of motion, ä(t). (g = 32 ft/s2) (7 points) 14. A mass weighing 4 pounds stretches a spring 2 feet. The system is submerged in a medium which offers a damping force that...
A mass weighing 11 lb stretches a spring 8 in. The mass is attached to a viscous damper with damping constant 3 lb-s/ft. The mass is pushed upward, contracting the spring a distance of 2 in, and then set into motion with a downward velocity of 6 in/s. Determine the position u of the mass at any time t. Use 32 ft/s as the acceleration due to gravity. Pay close attention to the units. u(t) =
A mass weighing 8 lb stretches a spring 3 in. The mass is attached to a viscous damper with a damping constant of 2 lb-s/it. If the mass is set in motion from its equilibrium position with a downward velocity of 2 in /s, find its position at any time 1. Assume the acceleration of gravity g = 32 ft/s? e sin4/7 245 'sini 1 1 "costri 1 1 1 24 vi cos7+ 24/7 sin 45 "cosa + V7 sin...
< Pre A mass weighing 18 lb stretches a spring 6 in. The mass is attached to a viscous damper with damping constant 4lb-s/ft. The mass is pushed upward, contracting the spring a distance of 4 in, and then set into motion with a downward velocity of 5 in/s. Determine the position u of the mass at any time t. Use 32 ft/s” as the acceleration due to gravity. Pay close attention to the units. u(t) = in