Bob is now so rich that he can sustain a respectable quality of life from his competition winnings (aka not rich at all). As Bob was resting between his competitions his mind wandered off to doing other things … with all of his money! Suddenly, he remembers his grandfather showing him the ins and outs of the stock market and decides to try "playing" for himself.

After some ~~illegal insider trading business~~ time passes, Bob has observed enough stock market fluctuations *per second* to draw up the function as seen below, where is the current value of the stock, and is the next value it will take.

— | |||
---|---|---|---|

… | |||

**Note:** denotes , defined as the largest integer not greater than itself.

In other words, the next value is the sum of every digit of the number raised to the power of the number of digits in .

There are only two possible outcomes for an investment in the stock market: **equilibrium** and **instability**. Equilibrium is achieved when , that is the current value of the stock market will remain unchanged until the end of time. Instability means the value will continue to cycle through values in succession indefinitely.

Given some of Bob's initial investments, determine the amount of time it would take to reach equilibrium, or state the length of the cycle through which the value of the stock will loop.

#### Input Specification

The first line of the input contains a single integer denoting the number test cases to follow .

The next lines each contain a single integer , the amount of money Bob invests in the stock market .

It is guaranteed that Bob's money, and all amounts the may be worth until the end of time will fit into a signed -bit integer.

#### Output Specification

Your program should output lines, with each line containing one of two strings:

If is successful in reaching equilibrium, output `Equilibrium: Bob's investment becomes $D after E second(s)!`

, where is the value of the stock at equilibrium and is the time elapsed to reach this value.

Otherwise, output `Instability: Loop of length L encountered after M second(s)!`

, where is the length of the cycle and is the time elapsed to reach the beginning of the cycle *for the* **first** *time*.

#### Sample Input

```
3
288
730
876
```

#### Sample Output

```
Equilibrium: Bob's investment becomes $370 after 6 second(s)!
Equilibrium: Bob's investment becomes $370 after 1 second(s)!
Instability: Loop of length 2 encountered after 14 second(s)!
```

#### Explanation

The first case is really an extension of the second case, as shown after applying the function times:

The second case is reduced from to as shown from the bottom two rows of the chart above.

The third case eventually ends at a cycle of length two: (cycle)

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