Prof. Pang has a rooted tree that is rooted at vertex $1$ and has $n$ nodes. These $n$ nodes are numbered from $1$ to $n$.
Now he wants to start the depth-first search at the root. He wonders for each node $v$, how many ways it can appear in the $j$-th position of $\textbf{depth-first search order}$. The depth-first search order is the order of nodes visited during the depth-first search. A node appears in the $j$-th ($1\le j\le n$) position in this order means it is visited after $j-1$ other nodes. Because sons of a node can be iterated in arbitrary order, multiple possible depth-first orders exist.
Prof. Pang wants to know for each node $v$, how many different $\textbf{depth-first search order}$s such that $v$ appears in the $j$-th position. For each $v, j~(1 \le v, j \le n)$, compute the answer. Because the answer can be very large, output it modulo $998244353$.
Following is a pseudo-code for the depth-first search on a rooted tree. After calling $\textbf{main}$(), $\texttt{dfs\_order}$ is the depth-first search order.
## Input
The first line contains one integer $n~(1\le n \le 500)$, the number of vertices in the tree.
Each of the next $n-1$ lines describes an edge of the tree. Edge $i$ is denoted by two integers $u_i$ and $v_i$, the labels of vertices it connects $(1\le u_i,v_i\le n, u_i\neq v_i)$.
It is guaranteed that the given edges form a tree.
## Output
For each vertex $v$ from $1$ to $n$, output one line containing $n$ integers modulo $998244353$. The $j$-th integer in the $v$-th line should be the number of different depth-first search orders such that $v$ appears in the $j$-th position.
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