139838 A physical quantity \(X=\frac{A^{2} B}{C^{1 / 3} \sqrt{D}}\) is calculated by using measured quantities \(A, B C\) and \(B\). If errors in the measurement of \(A, B, C\), and \(D\) are \(1 \%, 2 \%, 3 \%\) and \(4 \%\) respectively, then the percentage of error in the measurement of \(X\) will be
139839 In a simple pendulum, experiment for determination of acceleration due to gravity (g), time taken for 20 oscillations is measured by using a watch of 1 second least count. The mean value of time taken comes out to be \(30 \mathrm{~s}\). The length of pendulum is measured by using a meter scale of least count \(1 \mathrm{~mm}\) and the value obtained \(55.0 \mathrm{~cm}\). The percentage error in the determination of \(\mathbf{g}\) is close to
139838 A physical quantity \(X=\frac{A^{2} B}{C^{1 / 3} \sqrt{D}}\) is calculated by using measured quantities \(A, B C\) and \(B\). If errors in the measurement of \(A, B, C\), and \(D\) are \(1 \%, 2 \%, 3 \%\) and \(4 \%\) respectively, then the percentage of error in the measurement of \(X\) will be
139839 In a simple pendulum, experiment for determination of acceleration due to gravity (g), time taken for 20 oscillations is measured by using a watch of 1 second least count. The mean value of time taken comes out to be \(30 \mathrm{~s}\). The length of pendulum is measured by using a meter scale of least count \(1 \mathrm{~mm}\) and the value obtained \(55.0 \mathrm{~cm}\). The percentage error in the determination of \(\mathbf{g}\) is close to
139838 A physical quantity \(X=\frac{A^{2} B}{C^{1 / 3} \sqrt{D}}\) is calculated by using measured quantities \(A, B C\) and \(B\). If errors in the measurement of \(A, B, C\), and \(D\) are \(1 \%, 2 \%, 3 \%\) and \(4 \%\) respectively, then the percentage of error in the measurement of \(X\) will be
139839 In a simple pendulum, experiment for determination of acceleration due to gravity (g), time taken for 20 oscillations is measured by using a watch of 1 second least count. The mean value of time taken comes out to be \(30 \mathrm{~s}\). The length of pendulum is measured by using a meter scale of least count \(1 \mathrm{~mm}\) and the value obtained \(55.0 \mathrm{~cm}\). The percentage error in the determination of \(\mathbf{g}\) is close to
139838 A physical quantity \(X=\frac{A^{2} B}{C^{1 / 3} \sqrt{D}}\) is calculated by using measured quantities \(A, B C\) and \(B\). If errors in the measurement of \(A, B, C\), and \(D\) are \(1 \%, 2 \%, 3 \%\) and \(4 \%\) respectively, then the percentage of error in the measurement of \(X\) will be
139839 In a simple pendulum, experiment for determination of acceleration due to gravity (g), time taken for 20 oscillations is measured by using a watch of 1 second least count. The mean value of time taken comes out to be \(30 \mathrm{~s}\). The length of pendulum is measured by using a meter scale of least count \(1 \mathrm{~mm}\) and the value obtained \(55.0 \mathrm{~cm}\). The percentage error in the determination of \(\mathbf{g}\) is close to
139838 A physical quantity \(X=\frac{A^{2} B}{C^{1 / 3} \sqrt{D}}\) is calculated by using measured quantities \(A, B C\) and \(B\). If errors in the measurement of \(A, B, C\), and \(D\) are \(1 \%, 2 \%, 3 \%\) and \(4 \%\) respectively, then the percentage of error in the measurement of \(X\) will be
139839 In a simple pendulum, experiment for determination of acceleration due to gravity (g), time taken for 20 oscillations is measured by using a watch of 1 second least count. The mean value of time taken comes out to be \(30 \mathrm{~s}\). The length of pendulum is measured by using a meter scale of least count \(1 \mathrm{~mm}\) and the value obtained \(55.0 \mathrm{~cm}\). The percentage error in the determination of \(\mathbf{g}\) is close to