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Let $\omega_0,\dots,\omega_M$ be complex numbers. If $H_0,\dots,H_M$ arepolynomials of degree at most $\rho_0,\dots,\rho_M$, and $G(z)=\sum_{m=0} ^MH_m(z) (1-z)^{\omega_m}$ has a zero at $z=0$ of maximal order (for the given$\omega_m,\rho_m$), we say that $H_0,\dots,H_M$ are a \emph{multidimensionalPad\'e approximation of binomial functions}, and call $G$ the Pad\'e remainder.We collect here with proof all of the known expressions for $G$ and $H_m$,including a new one: the Taylor series of $G$. We also give a new criterion forsystems of Pad\'e approximations of binomial functions to be perfect (aspecific sort of independence used in applications).

Multidimensional Pad\'e approximation of binomial functions: Equalities