149763
Two blocks of equals mass are released on two smooth sides of a double inclined plane with a fixed base as shown in the figure. If each angle of inclination is \(45^{\circ}\), the acceleration of the centre of mass of the system of the two blocks is (Acceleration due to gravity \(=10 \mathbf{~ m s}^{-2}\) )
149764
Match the following
| List A | List B |
| :--- | :--- |
| (i) Position of centre mass | (v) is zero |
| (ii) The algebraic sum of moments of all the masses about CM | (vi) is non-uniform gravitational field|
| (iii) CM and centre of gravity coincide |(vii) is in dependent of frame of reference|
| (iv) CM and centre of gravity do not coincide|(viii) in uniformgravitational field |
The correct match is
149765 Four particles, each of mass \(1 \mathrm{~kg}\) are placed at the corners of a square \(O A B C\) of side \(1 \mathrm{~m}\). ' \(O\) ' is at the origin the co-ordinate system. \(\mathrm{OA}\) and \(O C\) are aligned along positive \(X\)-axis and positive \(\mathrm{Y}\)-axis respectively. The position vector of the centre of mass is (in ' \(m\) '):
149763
Two blocks of equals mass are released on two smooth sides of a double inclined plane with a fixed base as shown in the figure. If each angle of inclination is \(45^{\circ}\), the acceleration of the centre of mass of the system of the two blocks is (Acceleration due to gravity \(=10 \mathbf{~ m s}^{-2}\) )
149764
Match the following
| List A | List B |
| :--- | :--- |
| (i) Position of centre mass | (v) is zero |
| (ii) The algebraic sum of moments of all the masses about CM | (vi) is non-uniform gravitational field|
| (iii) CM and centre of gravity coincide |(vii) is in dependent of frame of reference|
| (iv) CM and centre of gravity do not coincide|(viii) in uniformgravitational field |
The correct match is
149765 Four particles, each of mass \(1 \mathrm{~kg}\) are placed at the corners of a square \(O A B C\) of side \(1 \mathrm{~m}\). ' \(O\) ' is at the origin the co-ordinate system. \(\mathrm{OA}\) and \(O C\) are aligned along positive \(X\)-axis and positive \(\mathrm{Y}\)-axis respectively. The position vector of the centre of mass is (in ' \(m\) '):
149763
Two blocks of equals mass are released on two smooth sides of a double inclined plane with a fixed base as shown in the figure. If each angle of inclination is \(45^{\circ}\), the acceleration of the centre of mass of the system of the two blocks is (Acceleration due to gravity \(=10 \mathbf{~ m s}^{-2}\) )
149764
Match the following
| List A | List B |
| :--- | :--- |
| (i) Position of centre mass | (v) is zero |
| (ii) The algebraic sum of moments of all the masses about CM | (vi) is non-uniform gravitational field|
| (iii) CM and centre of gravity coincide |(vii) is in dependent of frame of reference|
| (iv) CM and centre of gravity do not coincide|(viii) in uniformgravitational field |
The correct match is
149765 Four particles, each of mass \(1 \mathrm{~kg}\) are placed at the corners of a square \(O A B C\) of side \(1 \mathrm{~m}\). ' \(O\) ' is at the origin the co-ordinate system. \(\mathrm{OA}\) and \(O C\) are aligned along positive \(X\)-axis and positive \(\mathrm{Y}\)-axis respectively. The position vector of the centre of mass is (in ' \(m\) '):
149763
Two blocks of equals mass are released on two smooth sides of a double inclined plane with a fixed base as shown in the figure. If each angle of inclination is \(45^{\circ}\), the acceleration of the centre of mass of the system of the two blocks is (Acceleration due to gravity \(=10 \mathbf{~ m s}^{-2}\) )
149764
Match the following
| List A | List B |
| :--- | :--- |
| (i) Position of centre mass | (v) is zero |
| (ii) The algebraic sum of moments of all the masses about CM | (vi) is non-uniform gravitational field|
| (iii) CM and centre of gravity coincide |(vii) is in dependent of frame of reference|
| (iv) CM and centre of gravity do not coincide|(viii) in uniformgravitational field |
The correct match is
149765 Four particles, each of mass \(1 \mathrm{~kg}\) are placed at the corners of a square \(O A B C\) of side \(1 \mathrm{~m}\). ' \(O\) ' is at the origin the co-ordinate system. \(\mathrm{OA}\) and \(O C\) are aligned along positive \(X\)-axis and positive \(\mathrm{Y}\)-axis respectively. The position vector of the centre of mass is (in ' \(m\) '):