Related Questions

The coriolis component of acceleration acts
A along the sliding surface
B perpendicular to the sliding surface
C at 450 to the sliding surface
D parallel to the sliding surface
The coriolis component of acceleration is taken into account for
A slider crank mechanism
B four bar chain mechanism
C quick return motion mechanism
D all of the mentioned
The coriolis component of acceleration depends upon
A velocity of slider
B angular velocity of the link
C all of the mentioned
D none of the mentioned
The coriolis component of acceleration leads the sliding velocity by
A 450
B 900
C 1350
D 1800
The coriolis component of acceleration exists whenever a point moves along a path that has
A linear displacement
B rotational motion
C gravitational acceleration
D tangential acceleration
The direction of Coriolis component of acceleration is the direction
A Of relative velocity vector for the two coincident points rotated by 90° in the direction of the angular velocity of the rotation of the link
B Along the centripetal acceleration
C Along tangential acceleration
D Along perpendicular to angular velocity
In a shaper mechanism, the Coriolis component of acceleration will
A Not exist
B Exist
C Depend on position of crank
D None of the above
A slider moves at a velocity $${\text{v}}$$ on a link revolving at $$\omega $$ rad/s. The coriolis component of acceleration is
A $$\omega {\text{v}}$$
B $$2\omega {\text{v}}$$
C $${\omega ^2}{\text{v}}$$
D $$2\omega {{\text{v}}^2}$$
Coriolis component is encountered in
A Quick return mechanism of shaper
B Four bar chain mechanism
C Slider crank mechanism
D Both (A) and (C) above
The sense of Coriolis component is such that it
A Leads the sliding velocity vector by 90°
B Lags the sliding velocity vector by 90°
C Is along the sliding velocity vector
D Leads the sliding velocity vector by 180°

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