R8–3. A 35-kg disk rests on an inclined surface for which Ms 0.2. Determine the maximum vertical force P that may be applied to bar AB without causing the disk to slip at C. Neglect the mass of the bar. P 200 mm 300 mm -600 mm B 200 mm 30° Prob. R8–3

International Edition---engineering Mechanics: Statics, 4th Edition
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Chapter7: Dry Friction
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a 35 kg disk rests on an inclined surface for which m= 0.2 determine the maximum vertical force p that may be applied to bar AB without causing the disk to slip at c, neglect the mass of the bar

| A hollow vessel in the form of a hemi sphere of radius 30 cm. is placed such that the
plane rim is horizontal. A heavy rod is placed inside the vessel. If the centre of gravity
of the rod divides it to two parts of lengths 25 cm. and 20 cm. Prove that the rod in the
equilibrium position inclines to the vertical with an angle 0 where cos 0 =
8
Transcribed Image Text:| A hollow vessel in the form of a hemi sphere of radius 30 cm. is placed such that the plane rim is horizontal. A heavy rod is placed inside the vessel. If the centre of gravity of the rod divides it to two parts of lengths 25 cm. and 20 cm. Prove that the rod in the equilibrium position inclines to the vertical with an angle 0 where cos 0 = 8
R8–3. A 35-kg disk rests on an inclined surface for which
u, = 0.2. Determine the maximum vertical force P that
may be applied to bar AB without causing the disk to slip
at C. Neglect the mass of the bar.
200 mm
300 mm
-600 mm
B
200 mm
30°
Prob. R8–3
Transcribed Image Text:R8–3. A 35-kg disk rests on an inclined surface for which u, = 0.2. Determine the maximum vertical force P that may be applied to bar AB without causing the disk to slip at C. Neglect the mass of the bar. 200 mm 300 mm -600 mm B 200 mm 30° Prob. R8–3
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