To balance the given redox reaction: The oxidation number of I in IO$_3^-$ is +5, while in I$_2$, it is 0. The n-factor for IO$_3^-$ is 5 because each IO$_3^-$ gains 5 electrons to become I$_2$. \item I$^-$ is oxidized to I$_2$, so its n-factor is 1. \end{itemize} To determine the value of $x$, we use the molar ratio of IO$_3^-$ to I$^-$, which is 1:5: \[ \text{IO}_3^- + 6\text{H}^+ + 5\text{I}^- \to 3\text{I}_2 + 3\text{H}_2\text{O} \] To obtain 6 moles of I$_2$, the equation is multiplied by 2: \[ 2\text{IO}_3^- + 12\text{H}^+ + 10\text{I}^- \to 6\text{I}_2 + 6\text{H}_2\text{O} \] Thus, $x = 10$.
Calculate the potential for half-cell containing 0.01 M K\(_2\)Cr\(_2\)O\(_7\)(aq), 0.01 M Cr\(^{3+}\)(aq), and 1.0 x 10\(^{-4}\) M H\(^+\)(aq).

Which one of the following graphs accurately represents the plot of partial pressure of CS₂ vs its mole fraction in a mixture of acetone and CS₂ at constant temperature?

Let \( \alpha = \dfrac{-1 + i\sqrt{3}}{2} \) and \( \beta = \dfrac{-1 - i\sqrt{3}}{2} \), where \( i = \sqrt{-1} \). If
\[ (7 - 7\alpha + 9\beta)^{20} + (9 + 7\alpha - 7\beta)^{20} + (-7 + 9\alpha + 7\beta)^{20} + (14 + 7\alpha + 7\beta)^{20} = m^{10}, \] then the value of \( m \) is ___________.