Problem:
Score : 300 points

Problem Statement

You have N bamboos. The lengths (in centimeters) of these are l_1, l_2, ..., l_N, respectively.

Your objective is to use some of these bamboos (possibly all) to obtain three bamboos of length A, B, C. For that, you can use the following three kinds of magics any number:

Extension Magic: Consumes 1 MP (magic point). Choose one bamboo and increase its length by 1.

Shortening Magic: Consumes 1 MP. Choose one bamboo of length at least 2 and decrease its length by 1.

Composition Magic: Consumes 10 MP. Choose two bamboos and combine them into one bamboo. The length of this new bamboo is equal to the sum of the lengths of the two bamboos combined. (Afterwards, further magics can be used on this bamboo.)

At least how much MP is needed to achieve the objective?

Constraints

3 \leq N \leq 8

1 \leq C < B < A \leq 1000

1 \leq l_i \leq 1000

All values in input are integers.

Input

Input is given from Standard Input in the following format:

N A B C
l_1
l_2
:
l_N

Output

Print the minimum amount of MP needed to achieve the objective.

Sample Input 1

5 100 90 80
98
40
30
21
80

Sample Output 1

23

We are obtaining three bamboos of lengths 100, 90, 80 from five bamboos 98, 40, 30, 21, 80. We already have a bamboo of length 80, and we can obtain bamboos of lengths 100, 90 by using the magics as follows at the total cost of 23 MP, which is optimal.

Use Extension Magic twice on the bamboo of length 98 to obtain a bamboo of length 100. (MP consumed: 2)

Use Composition Magic on the bamboos of lengths 40, 30 to obtain a bamboo of length 70. (MP consumed: 10)

Use Shortening Magic once on the bamboo of length 21 to obtain a bamboo of length 20. (MP consumed: 1)

Use Composition Magic on the bamboo of length 70 obtained in step 2 and the bamboo of length 20 obtained in step 3 to obtain a bamboo of length 90. (MP consumed: 10)

Sample Input 2

8 100 90 80
100
100
90
90
90
80
80
80

Sample Output 2

0

If we already have all bamboos of the desired lengths, the amount of MP needed is 0. As seen here, we do not necessarily need to use all the bamboos.

Sample Input 3

8 1000 800 100
300
333
400
444
500
555
600
666

Sample Output 3

243

Solution in Common Lisp (SBCL 2.0.3) (judge verdict: Accepted)

#+swank (declaim (optimize (speed 0) (safety 3) (debug 3)))
#-swank (declaim (optimize (speed 3) (safety 0) (debug 0)))

(defconstant +mod+ 1000000007)



(declaim (inline println))
(defun println (obj &optional (stream *standard-output*))
  (let ((*read-default-float-format* 'double-float))
    (prog1
        (write obj :stream stream)
      (fresh-line stream))))

(declaim (inline fast-sort))
(defmethod fast-sort ((sequence list) &key (test #'<))
  (declare (inline sort)
           (inline sb-impl::stable-sort-list))
  (sort sequence (lambda (x y)
                   (funcall test x y))))

(declaim (inline quick-sort))
(defmethod quick-sort ((sequence array))
  (labels ((swap (arr x y)
             (rotatef (aref arr x)
                      (aref arr y)))
           (qsort-sub (arr left right)
             (let ((l left)
                   (r right)
                   (pivot (aref arr (+ left
                                       (random (- right left))))))
               (loop while (<= l r) do
                    (loop while (< (aref arr l) pivot) do
                         (incf l))
                    (loop while (> (aref arr r) pivot) do
                         (decf r))
                    (when (<= l r)
                      (swap arr l r)
                      (incf l)
                      (decf r)))
               (when (< left r)
                 (qsort-sub arr left r))
               (when (< l right)
                 (qsort-sub arr l right)))))
    (qsort-sub sequence 0 (1- (length sequence)))
    sequence))


(defmacro read-numbers-to-list (size)
  `(loop repeat ,size collect (read)))



(defmacro read-numbers-to-array (size)
  `(progn
     (when (not (integerp ,size))
       (error "Size must be integer."))
     (when (< ,size 0)
       (error "Size must be plus or zero."))
     (make-array ,size :initial-contents (read-numbers-to-list ,size))))

(defmacro read-numbers-to-board (row-size column-size)
  (let ((board (gensym))
        (r (gensym))
        (c (gensym)))
    `(let ((,board (make-array '(,row-size ,column-size))))
       (dotimes (,r ,row-size)
         (dotimes (,c ,column-size)
           (setf (aref ,board ,r ,c) (read))))
       ,board)))


(defun princ-for-each-line (list)
  (format t "~{~a~&~}" list))

(defun unwrap (list)
  (format nil "~{~a~^ ~}" list))



(defmacro with-buffered-stdout (&body body)
  (let ((out (gensym)))
    `(let ((,out (make-string-output-stream :element-type 'base-char)))
       (let ((*standard-output* ,out))
         ,@body)
       (write-string (get-output-stream-string ,out)))))




;;; Write code here

;; from library

(defun product (xs &optional (repeat 1))
  (let ((res nil))
    (labels ((product-sub (xs &optional (acc nil) (cnt 0))
               (if (= cnt repeat)
                   (push (reverse acc) res)
                   (loop for x in xs do
                        (product-sub xs (cons x acc) (1+ cnt))))))
      (product-sub xs)
      (reverse res))))

(defparameter *inf* 10000000)


(defun calc-cost (la lb lc a b c)
  (declare (list la lb lc)
           (fixnum a b c))
  (labels ((calc-sub (lx x &optional (res 0) (len 0))
             (declare (list lx)
                      (fixnum res x len))
             (incf len (reduce #'+ lx))
             (incf res (* (1- (length lx)) 10))
             (incf res (abs (- len x)))
             res))
    (+ (calc-sub la a)
       (calc-sub lb b)
       (calc-sub lc c))))

(defun solve (n a b c l)
  (let ((cand-lst (remove-if-not (lambda (lst)
                                   (and (plusp (count 1 lst))
                                        (plusp (count 2 lst))
                                        (plusp (count 3 lst))))
                                 (product '(1 2 3 x) n))))
    (let ((ans *inf*))
      (loop for lst of-type list in cand-lst do
           (let ((la nil)
                 (lb nil)
                 (lc nil))
             (loop for i below n do
                  (case (first lst)
                    (1 (push (nth i l) la))
                    (2 (push (nth i l) lb))
                    (3 (push (nth i l) lc)))
                  (pop lst))
             (setf ans (min ans
                            (calc-cost la lb lc a b c))))
         finally
           (return ans)))))


(defun main ()
  (let* ((n (read))
         (a (read))
         (b (read))
         (c (read))
         (l (loop repeat n collect (read))))
    (format t "~a~&" (solve n a b c l))))

#-swank (main)