m₂ >m, Calculate the and write the (There is no for u, and the Lagragean for...
Calculate L (Lagrange) for the system and write the Lagrange movement ecuations For m1 use coordinate "x" For m2 use coordinate "y" Write clear as possible m₂ >m, Calcule el L Lagrageano para el sistema y escriba las ecuaciones de movimiento de Lagrange. (No hay friccion) (Hint: utilice para mi la coordenade dex" y para ma la coordenada ay")
The m1 and m2 (m1=m2=m) are attached to the ends of a string of length l. The string is going through a frictionless hole in the middle of a frictionless table. m1 is given certain initial push along the x-y plane and perpendicular to the position vector r. find the Lagrangian L and Lagrange equations of motion for the system. NG >X m2
. 1209%] This is a rigid body kinetic problem. You must solve this problem using the Newton's law in the speciied coordinate system. Consider a uniform ball of mass m and radius r rolling down a stationary s1. semi-circular surface of radius R > r. The ball is released from rest at an angle θ= θ。> O. Assume static friction coefficient μ Answer the following questions. (a) 8/20] Let the angle of rotation of the ball be φ and the...
Write the expression as an algebraic (nontrigonometric) expression in u, u> 0. cos (arctanu) cos (arctan u) = 0 (Simplify your answer, including any radicals. Use integers or fractions for any numbers in the expression. Rationalize all denominators.) The following function approximates the average monthly temperature y (in °F) in a city. Here x represents the month, where x= 1 corresponds to January, x=2 corresponds to February, and so on. Complete parts (a) (b). flx) = 11 sin [«- 49]+50...
Q1. Let us assume that u = H, = 4 4H / m in region 1 where z>0, whereas u = x2 = 7 uH /m in region 2 where z<0. Moreover, let surface current density K = 80 x on the interface z=0. The magnetic field in region 1 is given as B = 2 x-3 y + z ml. Calculate the magnetic field B2 in region2 using boundary conditions. Q2. Calculate the mutual conductance between two coaxial solenoids...
Repeat the flat-plate momentum analysis by replacing the equation u(x, y) ~U ( ) 0<y>$(x) using a trigonometric profile approximation: 5 = sin()
A plane pendulum of length L and mass m is suspended from a block of mass M. The block moves without friction and is constrained to move horizontally only (i.e. along the x axis). You may assume all motion is confined to the xy plane. At t = 0, both masses are at rest, the block is at , and the pendulum has angular deflection with respect to the y axis. a) Using and as generalized coordinates, find the Lagrangian...
A) Write the Lagrangian for a simple pendulum consisting of a point mass m suspended at the end of a massless string of length l. Derive the equation of motion from the Euler-Lagrange equation, and solve for the motion in the small angle approximation. B) Assume the massless string can stretch with a restoring force F = -k (r-r0), where r0 is the unstretched length. Write the new Lagrangian and find the equations of motion. C) Can you re-write the...
Assume an asset price St follows the geometric Brownian motion, dSt = u Stdt+oS+dZt, So =s > 0 where u and o are constants, r is the risk-free rate, and Zt is the Brownian motion. 1. Using the Ito's Lemma find to the stochastic differential equation satisfied by the process X+ = St. 2. Compute E[Xt] and Var[Xt]. 3. Using the Ito's Lemma find the stochastic differential equation satisfied by the process Y1 = Sert'. 4. Compute E[Y] and Var[Y].
4. Consider the process X+ = Vaw (t/a), where a is a positive constant. Calculate Var[X/(t+u) - X+(t)], where u > 0. Is X, a Brownian motion?