Alternative Equation Formats

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MathML

S ( r ) ( β , l , t ) = A w h i j y h i j ( t ) { 1 l 1 d ( t ) δ h i j ( t ) }  exp ( β Z h i j ( t ) ) Z h i j r ( t ) Z ¯ ( β , l , t ) = S ( 1 ) ( β , l , t ) S ( 0 ) ( β , l , t ) d Λ 0 ( β , l , t ) = A w h i j d n h i j ( t ) S ( 0 ) ( β , l , t ) d M h i j ( β , l , t ) = d n h i j ( t ) y h i j ( t ) ( 1 δ h i j ( t ) l 1 d ( t ) )  exp ( β Z h i j ( t ) ) d Λ 0 ( β , l , t )

Math Rendered as SVG

Math as LaTeX Source

\begin{eqnarray*} S^{(r)}(\bbeta , l, t) & =& \sum _{A} w_{hij} y_{hij}(t) \biggl \{ 1- \frac{l-1}{d(t)} \delta _{hij}(t) \biggr \} \mbox{ exp} \left( \bbeta '\bZ _{hij}(t) \right) \bZ _{hij}^{\bigotimes r}(t)\\ \bar{\bZ }(\bbeta ,l,t) & =& \frac{ S^{(1)}(\bbeta ,l,t) }{ S^{(0)}(\bbeta ,l,t) } \\ d\Lambda _0(\bbeta ,l,t) & = & \sum _{A} \frac{w_{hij} dn_{hij}(t)}{S^{(0)}(\bbeta ,l,t)} \\ dM_{hij}(\bbeta ,l,t) & = & dn_{hij}(t) - y_{hij}(t) \biggl ( 1- \delta _{hij}(t) \frac{l-1}{d(t)} \biggr ) \mbox{ exp} \left(\bbeta ' \bZ _{hij}(t) \right) d\Lambda _0(\bbeta ,l,t) \end{eqnarray*}