A block is attached to a ceiling by a spring of force constant k. When pulled...
A block is attached to a ceiling by a spring of force constant k. When pulled down and released, the block und motion. The motion of the block is shown in the time plot on the right. Which of the following describes the amplitude A and frequency fof the motion of the block? yt0 simple harmonic 2 8 16 24m32 O A 4;f 1/(16m) Hz Which of the following equations of motion best describes the motion of the block? (Scroll...
A block is attachod to a ceiling by a spring of force constant kWhen palled down and released, the block undergoes simple harmonic motion. The motion of the block is shown in the time plot 0(cm) Which of the choices describes the amplitude A and 16r 24r 32 frequency fof the motion of the block? O4-2 Cm t O4-2 cm f 16r Hz O4-4m H Which of the equations of motion best descrihes the motion of the block? y 2co...
Consider a spring hung vertically from the ceiling. (a) When a 0.25kg block is attached to the spring, the spring is stretched 0.05m. What is the force constant of the spring? (b) What is the angular frequency for the simple harmonic motion of the block if you pull it down 5cm and release it? How does this compare to the angular frequency if you pull it down 10cm? (c) Taking upward to be positive, and the equilibrium position to be...
A spring with spring constant k and equilibrium length rho degree hangs from the ceiling. A block of mass m is attached to the spring and released from rest at a distance of rho degree from the ceiling (i.e. the equilibrium length of the spring), as shown in figure on right. The block then undergoes simple harmonic motion. Sketch the vertical position of the block as a function of time, including three full oscillation periods. hat is the maximum sped...
5. A mass of 225 g is suspended from a vertical spring. It is then pulled down 15 cm and released. The mass completes 10 oscillations in a time of 32 seconds. What is the force constant for the spring? 6. A block of unknown mass is attached to a spring with a force constant of 6.50 N/m and undergoes simple harmonic motion with an amplitude of 10.0 cm. When the block is halfway between its equilibrium position and the...
Can you please answer both questions, Y=0
Problem3 A (2+0.1y) kg block attached to a spring undergoes simple harmonic motion described by x (30 cm) cos[(6.28 rad/s)t + /4) Determine (a) the amplitude, (b) the spring constant, (c) the frequency, (d) the maximum speed (e) maximum acceleration of the block, and (e) the total energy of the spring-block. of the block Problem 4 A block attached to a spring, undergoes simple harmonic motion with a period of 1.5 + y)...
A block of mass 1.20 kg is attached to a horizontal spring that has force constant k = 300 N/m. The block moves on a horizontal frictionless surface. The maximum speed of the block during its motion is 5 m/s. What is the amplitude A of the simple harmonic motion of the block?
2.0 kg block on a horizontal frictionless surface is attached to a spring whose force constant is 590 N/m. The block is pulled from its equilibrium position at x = 0 m to a displacement x = +0.080 m and is released from rest. The block then executes simple harmonic motion along a horizontal x-axis. What is the period (in s) of the resulting motion?
z waqod A 2- kg block attached to a spring undergoes simple harmonic motion described by = (30 cm) cos[(6.28 rad/s)t + /4]. Determine (a) the amplitude, (b) the spring constant, (c) the frequency, (d) the maximum speed of the block, (e) maximum acceleration of the block, and (e) the total energy of the spring-block. Problem 3 A block attached to a spring, undergoes simple harmonic motion with a period of 1.5 s, and amplitude of 20 cm. The mechanical...
Periodic Motion A block of mass M is attached to a horizontal spring with force constant k. It is moving with simple harmonic motion of amplitude A. Calculate how much of the energy of the motion is kinetic at x= ¼ A. If one adds a mass smoothly in a vertical drop at x=A, calculate what happens to A, T, and w.