You are an expert competitive programmer. You will be given a problem statement, test case constraints and example test inputs and outputs. Please reason step by step about the solution (that must respect memory and time limits), then provide a complete implementation in python3.

Your solution must read input from standard input (cin), write output to standard output (cout).
Do not include any debug prints or additional output.

Put your final solution within a single code block:
```python
<your code here>
```

Execution time limit: 2.0 seconds
Memory limit: 512.0 MB

# Problem
There are $$$n$$$ cards numbered $$$1, \ldots, n$$$. The card $$$i$$$ has a red digit $$$r_i$$$ and a blue digit $$$b_i$$$ written on it.

We arrange all $$$n$$$ cards in random order from left to right, with all permutations of $$$1, \ldots, n$$$ having the same probability. We then read all red digits on the cards from left to right, and obtain an integer $$$R$$$. In the same way, we read all blue digits and obtain an integer $$$B$$$. When reading a number, leading zeros can be ignored. If all digits in a number are zeros, then the number is equal to $$$0$$$. Below is an illustration of a possible rearrangement of three cards, and how $$$R$$$ and $$$B$$$ can be found.

Two players, Red and Blue, are involved in a bet. Red bets that after the shuffle $$$R > B$$$, and Blue bets that $$$R < B$$$. If in the end $$$R = B$$$, the bet results in a draw, and neither player wins.

Determine, which of the two players is more likely (has higher probability) to win the bet, or that their chances are equal. Refer to the Note section for a formal discussion of comparing probabilities.

## Input Format
The first line contains a single integer $$$T$$$ ($$$1 \leq T \leq 100$$$) — the number of test cases.

Descriptions of $$$T$$$ test cases follow. Each test case description starts with a line containing a single integer $$$n$$$ ($$$1 \leq n \leq 1000$$$) — the number of cards.

The following line contains a string of $$$n$$$ digits $$$r_1, \ldots, r_n$$$ — red digits on cards $$$1, \ldots, n$$$ respectively.

The following line contains a string of $$$n$$$ digits $$$b_1, \ldots, b_n$$$ — blue digits on cards $$$1, \ldots, n$$$ respectively.

Note that digits in the same line are not separated with any delimiters.

## Output Format
Print $$$T$$$ answers for the test cases in order, one per line.

If Red has a strictly higher change to win, print "RED".

If Blue has a strictly higher change to win, print "BLUE".

If both players are equally likely to win, print "EQUAL".

Note that all answers are case-sensitive.

## Examples
```input
3
3
777
111
3
314
159
5
09281
09281
```
```output
RED
BLUE
EQUAL
```

## Note
Formally, let $$$n_R$$$ be the number of permutations of cards $$$1, \ldots, n$$$ such that the resulting numbers $$$R$$$ and $$$B$$$ satisfy $$$R > B$$$. Similarly, let $$$n_B$$$ be the number of permutations such that $$$R < B$$$. If $$$n_R > n_B$$$, you should print "RED". If $$$n_R < n_B$$$, you should print "BLUE". If $$$n_R = n_B$$$, print "EQUAL".

In the first sample case, $$$R = 777$$$ and $$$B = 111$$$ regardless of the card order, thus Red always wins.

In the second sample case, there are two card orders when Red wins, and four card orders when Blue wins:

- order $$$1, 2, 3$$$: $$$314 > 159$$$;
- order $$$1, 3, 2$$$: $$$341 > 195$$$;
- order $$$2, 1, 3$$$: $$$134 < 519$$$;
- order $$$2, 3, 1$$$: $$$143 < 591$$$;
- order $$$3, 1, 2$$$: $$$431 < 915$$$;
- order $$$3, 2, 1$$$: $$$413 < 951$$$.

Since $$$R < B$$$ is more frequent, the answer is "BLUE".

In the third sample case, $$$R = B$$$ regardless of the card order, thus the bet is always a draw, and both Red and Blue have zero chance to win.

Now solve the problem and return the code.