Alternative Equation Formats

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MathML

d^{*} ({\bar{x}}_{K}, {\bar{x}}_{L}) = {\begin{array}{lcl} \frac{{(W_{K} + W_{L} + \frac{1}{4} (N_{K} + N_{L}) d^{2} ({\bar{x}}_{K}, {\bar{x}}_{L}))}^{\frac{v}{2}}}{(N_{K} + N_{L})^{1 + \frac{v}{2}}} & if C_{K} and C_{L} are adjacent \\ \infty & otherwise \end{array}

MathML rendered with MathJax

d^{*} ({\bar{x}}_{K}, {\bar{x}}_{L}) = {\begin{array}{lcl} \frac{{(W_{K} + W_{L} + \frac{1}{4} (N_{K} + N_{L}) d^{2} ({\bar{x}}_{K}, {\bar{x}}_{L}))}^{\frac{v}{2}}}{(N_{K} + N_{L})^{1 + \frac{v}{2}}} & if C_{K} and C_{L} are adjacent \\ \infty & otherwise \end{array}

Math as LaTeX Source

\[ d^* (\mb{{\bar{x}}}_ K , \mb{{\bar{x}}}_ L ) = \left\{ \begin{array}{lcl} \frac{\left(W_ K + W_ L + \frac{1}{4}(N_ K + N_ L) d^2(\mb{{\bar{x}}}_ K , \mb{{\bar{x}}}_ L) \right)^{\frac{v}{2}}}{(N_ K + N_ L)^{1 + \frac{v}{2}}} & & \mbox{if $C_ K$ and $C_ L$ are adjacent} \\[0.10in] \infty & & \mbox{otherwise} \\ \end{array} \right. \]