Consider the system shown in the following figure, which is pivoted at point O. Suppose the system is moving in a horizontal plane. Assume that a = 0.4 m, b = 1m, M = 2 kg.the mass of the bar m = 1 kg, k = 104 N/m, c = 59 kg/s and F(t) = F 6 (t) N where F = 3 N.s. Assume zero initial conditions and the moment of inertia of the bar aboutpoint O to be m.Determine the maximum tip response amplitude in mm.Rigid barF(t)114.53 mm19.09 mm27.27 mm12.27 mm84.54 mmO000O

Givena=0.4mb=1mM=2kgm=1kgK=106N/mc=59kg/sF=3N

Consider the system shown in the following figure, which is plvoted at point O. Suppose the system is moving in a horizontal plane. Assume that a = 0.4 m, b= 1m, M = 2 kg the mass of the bar m = 1 kg, k = 10' N/m, e = 59 kg/s and F(t) = F6 (t) N where Ê = 3 N.s. Assume zero Initlal conditions and the moment of Inertia of the bar about point O to be . Determine the maximum tip response amplitude in mm. Rigid bar 114.53 mm 19.09 mm 27.27 mm 12.27 mm 84 S4 mm 00000

Consider the system shown in the following figure, which is plvoted at point O. Suppose the system is moving in a horizontal plane. Assume that a = 0.4 m, b= 1m, M = 2 kg the mass of the bar m = 1 kg, k = 10' N/m, e = 59 kg/s and F(t) = F6 (t) N where Ê = 3 N.s. Assume zero Initlal conditions and the moment of Inertia of the bar about point O to be . Determine the maximum tip response amplitude in mm. Rigid bar 114.53 mm 19.09 mm 27.27 mm 12.27 mm 84 S4 mm 00000

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Similar questions

The force F required to hold the plug in its position ( from given figure)
m 이 D Pi D h
Consider the jet-powered drag car shown in (Figure 1) with mass m = 900 kg and a center of mass at G. At the start, the jet turbine exerts a horizontal thrust of P = 25 kN on the dragster. Neglect the friction force in the following calculations. Figure ZAY A Front wheel center line 2.8 m 1.3 m B! Rear wheel center line 0.8 m P 1 of 1 > 1.2 m Part A Determine the acceleration of the jet-powered drag car. Express your answer to three significant figures and include the appropriate units a = Submit Part B NA = Value Submit Part C μA NB = Request Answer Determine the vertical reactions at the front wheels A. Express your answer to three significant figures and include the appropriate units HÅ Value Request Answer Units μᾶ www Value Units Determine the vertical reaction at the rear wheels B. Express your answer to three significant figures and include the appropriate units ? Units wwwww ? ?
SELECT ALL THAT APPLY
A uniform infinitely rigid beam of mass m and length 5/ is receiving a time-varying force P(t), at its end (point D), as shown in the figure. The beam is supported by a pin at point B, two springs of stiffness k, one at point A and one at point C, and a linear viscous damper with constant c at point A. Prepare a discrete analysis model of a degree of freedom, present the free body and kinetic diagrams. Clearly indicate the degree of freedom and its direction on the diagrams. Use as the mass moment of inertia, Io, of the beam with respect to its centerDetermine the equation of motion (for vibrations) with respect to the static equilibrium position
Find the point of contraflexure solid mechanics solve the figure.
4.120 A rocket sled accelerates from rest on a level track with negligible air and rolling resistances. The initial mass of the sled is M, = 600 kk. The rocket initially contains 150 kk of fuel. The rocket motor kg burns fuel at constant rate m : 15 Exhaust gases leave the rocket nozzle uniformly and axially at S m Va = 2900 relative to the nozzle, and the pressure is atmospheric. Find the maximum speed reached S by the rocket sled. Calculate the maximum acceleration of the sled during the run.
i need quickly please please please
9
Can u solve the whole question for me
Fluid Mechanics I
Q4: Consider the system shown in the figure. k = 250kN / m M c = 6000 N.s / m m =1000 kg m =2 kg e = 40 cm N=180 rpm a) Caleulate the force transmitted to the ground ( F, ) due to the rotating unbalance.