For a body, centre of volume is defined as $\frac{{\int {r.dV} }}{{\int {dV} }}$ over complete body, where $dV$ is small volume of body and $\vec r$ is. position vector of that small volume from origin
For a body, centre of volume is defined as $\frac{{\int {r.dV} }}{{\int {dV} }}$ over complete body, where $dV$ is small volume of body and $\vec r$ is. position vector of that small volume from origin
- A
For a body of uniform density center, of volume will be same as center of mass
- B
For a body of uniform density center of volume will be volunie time positionvector of center of mass
- C
For a body of uniform density center of volume will be mass time position vector of center of mass
- D
For a body of uniform density center of volume never be equal to volume time position of center of mass
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