To solve the given problem, we start by analyzing the given inequality $x+m\ln x+\frac{1}{e^{x}}\geq x^{m}$ for $x\in (1,+\infty)$. We can rearrange this inequality to better understand its components:

$$x+\frac{1}{e^{x}}\geq x^{m}-m\ln x=x^{m}-\ln x^{m}$$

This rearrangement allows us to compare the left side of the inequality, which is a sum of $x$ and a decreasing function $\frac{1}{e^{x}}$, with the right side, which is a transformation of $x^{m}$.

Next, we introduce a function $f(x)=x-\ln x$ and find its derivative to understand its behavior:

$$f'(x)=1-\frac{1}{x}=\frac{x-1}{x}$$

The derivative shows that $f(x)$ is increasing for $x>1$ and decreasing for $x1$, $f(e^{-x})\geq f(x^{m})$ because $01$. When $m=0$, $x^{m}=1$, and it's clear that $f(e^{-x})\geq f(x^{m})$ holds.

To find the minimum value of $m$, we consider the case when $m1$, which implies $e^{-x}\leq x^{m}$. Taking the natural logarithm of both sides gives us $-x\leq m\ln x$, leading to $-m\leq \frac{x}{\ln x}$ for $x>1$.

We then analyze the function $h(x)=\frac{x}{\ln x}$ to find its behavior:

$$h'(x)=\frac{\ln x-1}{(\ln x)^{2}}$$

This derivative shows that $h(x)$ is increasing for $x>e$ and decreasing for $1<x<e$, with a local minimum at $x=e$. The value of $h(x)$ at this minimum is $e$, which implies $-m\leq e$.

Therefore, we conclude that the minimum value of $m$ is $-e$, encapsulating this final answer as:

$$\boxed{-e}$$