There are $$$n$$$ benches in the Berland Central park. It is known that $$$a_i$$$ people are currently sitting on the $$$i$$$-th bench. Another $$$m$$$ people are coming to the park and each of them is going to have a seat on some bench out of $$$n$$$ available.

Let $$$k$$$ be the maximum number of people sitting on one bench after additional $$$m$$$ people came to the park. Calculate the minimum possible $$$k$$$ and the maximum possible $$$k$$$.

Nobody leaves the taken seat during the whole process.

Input

The first line contains a single integer $$$n$$$ $$$(1 \le n \le 100)$$$ — the number of benches in the park.

The second line contains a single integer $$$m$$$ $$$(1 \le m \le 10\,000)$$$ — the number of people additionally coming to the park.

Each of the next $$$n$$$ lines contains a single integer $$$a_i$$$ $$$(1 \le a_i \le 100)$$$ — the initial number of people on the $$$i$$$-th bench.

Output

Print the minimum possible $$$k$$$ and the maximum possible $$$k$$$, where $$$k$$$ is the maximum number of people sitting on one bench after additional $$$m$$$ people came to the park.

Note

In the first example, each of four benches is occupied by a single person. The minimum $$$k$$$ is $$$3$$$. For example, it is possible to achieve if two newcomers occupy the first bench, one occupies the second bench, one occupies the third bench, and two remaining — the fourth bench. The maximum $$$k$$$ is $$$7$$$. That requires all six new people to occupy the same bench.

The second example has its minimum $$$k$$$ equal to $$$15$$$ and maximum $$$k$$$ equal to $$$15$$$, as there is just a single bench in the park and all $$$10$$$ people will occupy it.

Benches

Examples