solve show all ateps and solutiion To carry out dynamic force analysis of the four-bar mechanism shown in thefigure. It is required to find the inertial radius of the links.Where 2 = 20rad /s (cw), a2 = 160 rad/s2 (cw)OA= 250mm, OG2= 110mm, AB=300mm, AG3=150mm, BC=300mm, CG4=140mm,OC=550mm, ZAOC = 60°The masses & mass moment of inertia of the various members are:LinkMMI (IG, Kgm2)2WN34Mass, m20.7kg9.66kg23.47kgFit00₂3F31G3VAα30.018720.011050.02771(a) Scale: 1 cm = 10 cmsFABA83YABAABAccelerationpolygonScale1 cm = 20 m/sec²Note: The listed scales are not perfectly correct, Consider the following values tofind out the correct scale of acceleration polygon.V₁ = 250×20; 5m/s, VR 4 m/s, VRA = 4.75 m/sa = 250×20²; 100m/s², a' = 250x160; 40m/s²

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To carry out dynamic force analysis of the four-bar mechanism shown in figure. It is required to find the inertial radius of the links. Where 002 = 20rad /s (cw), a2 = 160 rad/s2 (cw) OA= 250mm, OG2= 110mm, AB=300mm, AG3=150mm, BC=300mm, CG4-140 OC=550mm, ZAOC = 60° The masses & mass moment of inertia of the various members are: Link MMI (IG, Kgm2) 0.01872 0.01105 2 3 Mass, m 20.7kg 9.66kg

To carry out dynamic force analysis of the four-bar mechanism shown in figure. It is required to find the inertial radius of the links. Where 002 = 20rad /s (cw), a2 = 160 rad/s2 (cw) OA= 250mm, OG2= 110mm, AB=300mm, AG3=150mm, BC=300mm, CG4-140 OC=550mm, ZAOC = 60° The masses & mass moment of inertia of the various members are: Link MMI (IG, Kgm2) 0.01872 0.01105 2 3 Mass, m 20.7kg 9.66kg

International Edition---engineering Mechanics: Statics, 4th Edition

4th Edition

ISBN:9781305501607

Author:Andrew Pytel And Jaan Kiusalaas

Publisher:Andrew Pytel And Jaan Kiusalaas

Chapter7: Dry Friction

Section: Chapter Questions

Problem 7.70P: Solve Sample Problem 7.16 if the contact pressure under the polisher varies parabolically from p0 at...

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