Dynamics and Vector Calculus (PHYS08043) Section A: Answer ALL Questions A.1 Spring Oscillators a. A mass m is attached

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Dynamics and Vector Calculus (PHYS08043) Section A: Answer ALL Questions A.1 Spring Oscillators a. A mass m is attached

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Dynamics And Vector Calculus Phys08043 Section A Answer All Questions A 1 Spring Oscillators A A Mass M Is Attached 1
Dynamics And Vector Calculus Phys08043 Section A Answer All Questions A 1 Spring Oscillators A A Mass M Is Attached 1 (195.89 KiB) Viewed 17 times
Dynamics and Vector Calculus (PHYS08043) Section A: Answer ALL Questions A.1 Spring Oscillators a. A mass m is attached via a spring with spring constant k to a wall, with the mass allowed to move along a horizontal surface. The surface provides a resistive force proportional to the velocity Fx = -2myuz. Using N2, write down a differential equation describing the displacement of the mass from its equilibrium position, x(t), then determine the solution for æ(t) in the most general form possible by assuming a trial solution x = ett. b. Rewrite the solution from part (a) in amplitude-phase form (you don't need to derive this, just state it). Under the assumption that y is very small so you can ignore additive terms of order y or higher, prove that the total energy in the system goes down with time as E(t) = kaze -2yt c. For the remaining parts, assume the surface is frictionless. A second mass m is attached to the first mass with another spring also having a spring constant k. The second mass is not connected to anything else. Determine a system of coupled differential equations describing the displacements of the two masses xi(t) and x2(t). Express these coupled equations in matrix form as in X 1 M d x dt2 = -Kx where x= ( 22 i.e. determine the matrices M and K for this system.
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