import curses
import os
from curses import wrapper



class EndConsole:

    def __init__(self):
        self.generate_dims()
        self.create_records()

        self.set_record(ab(5, 17))
        self.init_params()
        self.init_screen()
        self.create_colors()
        self.last_list_record = None

    def start(self):
        self.start_loop()

    def set_record(self, record):
        self.record = record
        self.cursor = (record[0], record[1])
        self.other_recs = []

    def create_records(self, e_span=(-200,200), n_span=(-100,100), x_lim=(50)):
        self.record_dic = self.create_records_inner(e_span=e_span, n_span=n_span, x_lim=x_lim)

    def create_records_inner(self, e_span=(-200,200), n_span=(-100,100), x_lim=(50)):
        dic = {}
        e_w = e_span[1] - e_span[0]
        for e in range(*e_span):
            if e % (e_w/10) == 0:
                print('.\n')
            for n in range(*n_span):
                for x in range(-x_lim, x_lim):
                    x_test = 2*x + e%2
                    if in_enx(e,n,x_test):
                        rec = enx(e,n,x_test)
                        if e not in dic.keys():
                            dic[e] = {}
                        if n not in dic[e].keys():
                            dic[e][n] = []
                        dic[e][n].append(rec)
        return dic

    def populate_dictionary(self):
        E, N = self.cursor
        ee = (E - self.map_width, E + self.map_width)
        nn = (N - self.map_width, N + self.map_width)
        x_lim = self.list_x_search_depth
        more_recs = self.create_records_inner(ee, nn, x_lim)
        cur_dic = self.record_dic
        for e in more_recs.keys():
            if e not in cur_dic.keys():
                cur_dic[e] = {}
            for n in more_recs[e].keys():
                if n not in cur_dic[e].keys():
                    cur_dic[e][n] = []
                cur_dic[e][n].extend(more_recs[e][n])

    def in_dic(self, e, n):
        return e in self.record_dic.keys() and n in self.record_dic[e].keys()

    #record must be set before calling this
    def init_params(self):
        self.show_pos_d = False
        self.show_neg_d = False
        self.show_pos_x = False
        self.show_neg_x = False
        self.show_pos_a = False
        self.show_neg_a = False
        self.show_pos_b = False
        self.show_neg_b = False
        self.show_all_recs = True
        self.highlight_axis = False
        self.highlight_cursor = True
        self.highlight_first_entry = True
        self.highlight_marked = True
        self.highlight_followed = True
        self.list_x_search_depth = 100
        self.jump_shift = 5
        self.list_jump_shift = 3
        self.other_recs = []
        self.marked_coords = []
        self.cur_indexer = self.record[3]
        self.grids_to_highlight = []
        self.grid_highlight_colors = [15, 16, 13, 12, 14]
        self.show_highlighted_grids = True

    def generate_dims(self):

        #This is designed to work so that if you only
        #modify these two values, it will all workout

        wind = True
        if wind:
            self.max_width = 240
            self.max_height = 60
        else:
            self.max_width = 185
            self.max_height = 50

        #detail view:
        #this is the bottom view panel where you can track records
        self.column_detail_width = 12
        self.detail_strings = ['ID','e','n','d','x','a','b','c','t','f','(d+n)','(x+n)']
        self.detail_ids = ['%','0','1','2','3','4','5','6','7','8','9','Z','Y','W','V','U','T','S','R','Q']
        self.detail_row_height = len(self.detail_strings)

        self.max_detail_row_entries = 160 / self.column_detail_width
        self.detail_total_width = self.max_width
        self.detail_total_height = self.detail_row_height # * self.detail_row_count

        #list view (right side)
        self.list_view_strings = self.detail_strings[1:]
        self.list_cell_width = 6 # num of digits to show in right list
        self.list_cell_max_width = 8
        self.list_view_height = self.max_height - self.detail_total_height
        self.list_view_values = self.detail_strings #likely to change

        # The +1 below is to account for the '|' splitting the cells apart -1 for removing ID
        self.list_view_width = (self.list_cell_max_width + 1) * (len(self.list_view_values)- 1)

        self.map_width = self.max_width - self.list_view_width
        self.map_height = self.list_view_height

    def init_screen(self):
        self.screen = curses.initscr()

        self.map_pad = curses.newpad(self.map_height, self.map_width)
        self.list_pad = curses.newpad(self.list_view_height, self.list_view_width)
        self.detail_pad = curses.newpad(self.detail_total_height, self.detail_total_width)

        self.screen.keypad(True)
        self.screen.immedok(True)
        curses.noecho()
        curses.cbreak()
        curses.resizeterm(self.max_height, self.max_width)


    def parse_words(self):
        curses.echo()
        input_words = self.screen.getstr().split()
        if not input_words:
            return
        try:
            prompt = input_words[0].lower()
            rest = input_words[1:]
            if prompt == 'help':
                if rest:
                    self.do_help(rest[0])
                else:
                    self.do_help('basic')
            elif prompt == 'hl':
                if str(rest[0]).lower() in ('d','x','a','c','f','(d+n)','(x+n)','x+n','d+n','e','n','t'):
                    self.grids_to_highlight.append((rest[0], int(rest[1])))
            else:
                rest = [int(ttt) for ttt in input_words[1:]]
            if prompt == 'ab':
                self.set_record(ab(*[int(x) for x in rest[:2]]))
            elif prompt == 'end' and all([isinstance(x, int) for x in rest[:2]]):
                self.set_record(end(*rest[:3]))
            elif prompt == 'enx' and all([isinstance(x, int) for x in rest[:2]]):
                self.set_record(enx(*rest[:3]))
            elif prompt == 'abd' and all([isinstance(x, int) for x in rest[:2]]):
                self.set_record(abd(*rest[:3]))
            elif prompt == 'ena' and all([isinstance(x, int) for x in rest[:2]]):
                self.set_record(ena(*rest[:3]))
            elif prompt == 'mj':
                neww = rest[0]
                if isinstance(neww, int):
                    self.jump_shift = neww
            elif prompt == 'lj':
                neww = rest[0]
                if isinstance(neww, int):
                    self.list_jump_shift = neww
            elif prompt == 'xm':
                if isinstance(rest[0], int):
                    self.list_x_search_depth = rest[0]
            elif prompt == 'quit':
                self.quit()
            elif prompt == 'en':
                new_curs = [int(mmm) for mmm in rest[:2]]
                self.cursor = new_curs

        except Exception as e:
            print('Something happened. Try again')
            pass
        curses.noecho()


    def in_marked_grids(self, E, N):
        for i in range(len(self.grids_to_highlight)):
            string, val = self.grids_to_highlight[i]
            if self.in_grid_from_things(E, N, string, val):
                return i
        return -1

    def in_grid_from_things(self, e, n, grid_string, value):
        value = int(value)
        grid_string = grid_string.lower()
        if grid_string == 'd':
            return in_end(e, n, value)
        elif grid_string == 'x':
            return in_enx(e, n, value)
        elif grid_string == 'a':
            return in_ena(e, n, value)
        elif grid_string in ('(d+n)', 'd+n'):
            d = value - n
            return in_end(e, n, d)
        elif grid_string in ('(x+n)', 'x+n'):
            x = value - n
            return in_enx(e, n, x)
        elif grid_string == 'e':
            return e == value
        elif grid_string == 'n':
            return n == value
        elif grid_string == 't':
            x = x_from_t(value, e)
            if n==0:
                return x*x + e == 0
            else:
                return in_enx(e, n, x_from_t(value, e))
        elif grid_string == 'f':
            # f = 2d + 1 - e
            # f + e - 1 = 2d
            d2 = value + e - 1
            if not d2 % 2:
                d = d2 / 2
                return in_end(e, n, d)
        elif grid_string == 'c':
            dd = value - e
            if is_square(dd):
                d = int_sqrt(dd)
                return in_end(e, n, d)


    def do_help(self, arg):
        self.map_pad.clear()
        if arg == 'basic':
            lines = ['Type "help" followed by one of these ',
                    'keywords to learn more:', '',
                    'gestalt - basic gestalt',
                    'move - about movement',
                    'detail - about the bottom view',
                    'map - about map settings',
                    'commands - about terminal',
                    'press any button to return',
                    '(tutorial step 1) >> gestalt'
                    ]
        elif arg == 'gestalt':
            lines = ['So I made this because VQC organized the numbers in this grid',
                     'he put them in a grid for a reason and so I wanted to make',
                     'a way to study the grid',
                     ' ',
                     'The area this message is taking up is',
                     'the map view. It shows the records based',
                     'on their e,n coordinates.',
                     ' ',
                     'The area on the right is the list view ',
                     'this shows all of the records in the cell',
                     'that your cursor is on',
                     ' ',
                     'The bottom area is the detail view. Here you',
                     'can select and save records here as you explore the map',
                     ' ',
                     '(tutorial step 2) >> commands'
                    ]
        elif arg == 'commands':
            lines = ["To enter command mode, type '!' ",
                     'once in this mode you can do a number of things:',
                     'abd A B D - will change your current record to the record',
                     '          with those coordinates',
                     'ab A B - similar to A B D',
                     'enx E N X',
                     'end E N D',
                     'ena E N A',
                     'en E N - will move your cursor to that spot',
                     'xm J - will change the max x depth that the program searches',
                     '       for the list view with the pop command',
                     'mj J - changes the jump size to J for shift wasd',
                     'lj J - changes the list jump size to J for shift jk'
                     ' ',
                     ' (tutorial step 3) >> move'
                    ]

        elif arg == 'move':
            lines = ['-Use WASD to navigate the map',
                     "-use JK to navigate the list view",
                     "-If you hold shift while moving with these, it ",
                     '   increases the movement size'
                     "-To change either of these sizes use:",
                     "    'mj' to change the map jump size",
                     "    'lj' to change the list jump size",
                     "-'f' will increase the current d value by one",
                     "  while shift+'f' will decrease it by one",
                     "-'e' will go to e+2n, 'q' to e-2n",
                     "-'H' returns your cursor to the starting record",
                     " (tutorial step 4) >> detail"
                    ]
        elif arg == 'detail':
            lines = [
                    'Your starting record is on the bottom left',
                    'You must have a starting record and it is set by default',
                    'h - sets the starting record to the current record',
                    '    highlighted in the list view',
                    'i - adds the current highlighted record to the detail',
                    '    view. shift + i will delete the last one added',
                    'enx, ena, end, abd, ab - will all change the starting',
                    '        record to whichever is created from these coordinates',
                    ' (tutorial step 5) >> map'
                    ]
        elif arg == 'map':
            lines = [
                    'The view this is taking up is the map',
                    'o - mark a spot',
                    'O - unmark last marked spot. If you want to',
                    '    unmark a different spot, mark it again, then unmark',
                    'm - toggle highlight marked spots',
                    'M - toggle highlight records in detail view',
                    'c - toggle highlight records in map with same ',
                    '     d value as the starting record (C does -d)',
                    'v - toggle highlight records in map with same ',
                    '     a value as the starting record (V does -a)',
                    'x - toggle highlight records on map with same ',
                    '     x value as the starting record (X does -x)',
                    'z - toggle highlight all records',
                    'Z - toggle highlighted grids',
                    't - toggle highlight axis',
                    'T - toggle highlight cursor',
                    'p - refresh the map',
                    'hl X Y - will highlight records with the X value as Y',
                    "         ex: 'hl d 7' would highlight records with the",
                    '         d value equal to 7. Values you can use are:',
                    "          (e, n, d, x, a, b, c, f, t,'(d+n)','(x+n)') ",
                    "'-' - will delete the most recent highlighted grid",
                    ' (tutorial done)'
                    ]

        for i in range(len(lines)):
            self.map_pad.addstr(i+2, 5, lines[i])
        self.map_pad.refresh(0, 0, 0, 0, self.map_height, self.map_width)
        self.screen.getch()


    def create_colors(self):
        curses.start_color()
        #                       0                   1                   2               3
        self.colors = [curses.COLOR_WHITE, curses.COLOR_BLACK, curses.COLOR_RED, curses.COLOR_GREEN,
                        curses.COLOR_BLUE, curses.COLOR_CYAN, curses.COLOR_MAGENTA, curses.COLOR_YELLOW]

        curses.init_pair(1, curses.COLOR_WHITE, curses.COLOR_BLACK) # Basic
        curses.init_pair(10, curses.COLOR_BLACK, curses.COLOR_WHITE) # Invert
        curses.init_pair(31, curses.COLOR_GREEN, curses.COLOR_BLACK) # Green On Black
        curses.init_pair(13, curses.COLOR_BLACK, curses.COLOR_GREEN) # Black on Green
        curses.init_pair(21, curses.COLOR_RED, curses.COLOR_BLACK) # Red on Black
        curses.init_pair(12, curses.COLOR_BLACK, curses.COLOR_RED) #Black on Red
        curses.init_pair(51, curses.COLOR_CYAN, curses.COLOR_BLACK) # Cyan on Black
        curses.init_pair(15, curses.COLOR_BLACK, curses.COLOR_CYAN) # Black on Cyan
        curses.init_pair(71, curses.COLOR_YELLOW, curses.COLOR_BLACK) # Yellow on Black
        curses.init_pair(17, curses.COLOR_BLACK, curses.COLOR_YELLOW) # Black on Yellow
        curses.init_pair(67, curses.COLOR_MAGENTA, curses.COLOR_YELLOW) # Magenta on Yellow
        curses.init_pair(76, curses.COLOR_YELLOW, curses.COLOR_MAGENTA) # Yellow on Magenta
        curses.init_pair(57, curses.COLOR_CYAN, curses.COLOR_YELLOW) # Cyan on Yellow
        curses.init_pair(75, curses.COLOR_YELLOW, curses.COLOR_CYAN) # Yellow on Cyan
        curses.init_pair(61, curses.COLOR_MAGENTA, curses.COLOR_BLACK) # Magenta on Black
        curses.init_pair(16, curses.COLOR_BLACK, curses.COLOR_MAGENTA) # Black on Magenta
        curses.init_pair(41, curses.COLOR_BLUE, curses.COLOR_BLACK)

        self.color_dic = {
                'basic'   : 1,
                'd_grid'  : 31,
                'x_grid'  : 61,
                'a_grid'  : 21,
                'b_grid'  : 51,
                'highlight': 16,
                'list_view_highlight':  16,
                'cursor' : 75,
                'highlight_marked': 17
            }

    def invert_color(self, color):
        modten = color % 10
        tens = (color - modten)/10
        return 10*modten + tens



    def start_loop(self):
        while True:
            c = self.screen.getch()
            if c == ord('w'):
                self.cursor = self.cursor[0], self.cursor[1]-1
            elif c == ord('s'):
                self.cursor = self.cursor[0], self.cursor[1]+1
            elif c == ord('a'):
                self.cursor = self.cursor[0]-1, self.cursor[1]
            elif c == ord('d'):
                self.cursor = self.cursor[0]+1, self.cursor[1]
            elif c == ord('W'):
                self.cursor = self.cursor[0], self.cursor[1]-self.jump_shift
            elif c == ord('S'):
                self.cursor = self.cursor[0], self.cursor[1]+self.jump_shift
            elif c == ord('A'):
                self.cursor = self.cursor[0]-self.jump_shift, self.cursor[1]
            elif c == ord('D'):
                self.cursor = self.cursor[0]+self.jump_shift, self.cursor[1]
            ## GRIDS ##
            elif c == ord('x'):
                self.show_pos_x = not self.show_pos_x
            elif c == ord('X'):
                self.show_neg_x = not self.show_neg_x
            elif c == ord('c'):
                self.show_pos_d = not self.show_pos_d
            elif c == ord('C'):
                self.show_neg_d = not self.show_neg_d
            elif c == ord('v'):
                self.show_pos_a = not self.show_pos_a
            elif c == ord('V'):
                self.show_neg_a = not self.show_neg_a
            ## ## ## ##

            elif c == ord('t'):
                self.highlight_axis = not self.highlight_axis
            elif c == ord('T'):
                self.highlight_cursor = not self.highlight_cursor
            elif c == ord('M'):
                self.highlight_followed = not self.highlight_followed
            elif c == ord('m'):
                self.highlight_marked = not self.highlight_marked
            elif c == ord('o'):
                new_spot = self.cursor
                if self.cursor in self.marked_coords:
                    self.marked_coords.remove(new_spot)
                self.marked_coords.append(self.cursor)
            elif c == ord('O'):
                self.marked_coords = self.marked_coords[:-1]
            elif c == ord('j'):
                self.move_record_in_list(True, 1)
            elif c == ord('k'):
                self.move_record_in_list(False, 1)
            elif c == ord('J'):
                self.move_record_in_list(True, self.list_jump_shift)
            elif c == ord('K'):
                self.move_record_in_list(False, self.list_jump_shift)
            elif c == ord('h'):
                self.set_record_from_list()
            elif c == ord('i'):
                self.add_record_from_list()
            elif c == ord('I'):
                self.other_recs = self.other_recs[:-1]
            elif c == ord('z'):
                self.show_all_recs = not self.show_all_recs
            elif c == ord('Z'):
                self.show_highlighted_grids = not self.show_highlighted_grids
            elif c == ord('H'):
                self.cursor = self.record[:2]
            elif c == ord('-'):
                self.grids_to_highlight = self.grids_to_highlight[:-1]
            elif c == ord('f'):
                N = self.cursor[1]
                record = self.get_current_list_record()
                new_rec = abd(self.record[4], self.record[5], self.record[2]+1)
                self.cursor = new_rec[:2]
                if N != 0:
                    self.cur_indexer += 1
            elif c == ord('F'):
                N = self.cursor[1]
                record = self.get_current_list_record()
                new_rec = abd(record[4], record[5], record[2]+1)
                self.cursor = new_rec[:2]
                if N != 0:
                    self.cur_indexer -= 1
            elif c == ord('e'):
                E, N = self.cursor
                self.cursor = E + 2*N, N
            elif c == ord('q'):
                E,N = cursor
                self.cursor = E - 2*N, N
            elif c == ord('p'):
                self.populate_dictionary()
            elif c == ord('r'):
                self.cursor = -self.cursor[0], self.cursor[1]
            elif c == ord('R'):
                self.cursor = self.cursor[0], - self.cursor[1]
            elif c == ord('!'):
                self.parse_words()
            self.refresh_all()

    def refresh_all(self):
        self.refresh_map()
        self.refresh_list()
        self.refresh_detail()

    def refresh_map(self):
        self.map_pad.clear()
        e_start = self.cursor[0] - self.map_width / 2
        n_start = self.cursor[1] - self.map_height / 2

        marked_indexes = [(rec[0], rec[1]) for rec in self.other_recs]
        marked_spots = self.marked_coords
        for e_s in range(self.map_width):
            e = e_start + e_s
            for n_s in range(self.map_height):
                n = n_start + n_s
                char = False
                if self.highlight_cursor and e == self.cursor[0] and n == self.cursor[1]:
                    col_num = self.color_dic['cursor']
                    character = '@'
                elif self.highlight_first_entry and e == self.record[0] and n == self.record[1]:
                    col_num = self.color_dic['highlight']
                    character = '%'
                elif self.highlight_followed and (e,n) in marked_indexes:
                    col_num = self.color_dic['highlight']
                    idx = marked_indexes.index((e,n))
                    character = self.detail_ids[1:][idx]
                elif self.highlight_marked and (e,n) in marked_spots:
                    col_num = self.color_dic['highlight_marked']
                    character = '#'
                elif self.show_pos_d and in_end(e, n, self.record[2]):
                    col_num = self.color_dic['d_grid']
                    character = 'D'
                elif self.show_neg_d and in_end(e, n, -self.record[2]):
                    col_num = self.color_dic['d_grid']
                    character = 'd'
                elif self.show_pos_a and in_ena(e, n, self.record[4]):
                    col_num = self.color_dic['a_grid']
                    character = 'A'
                elif self.show_neg_a and in_ena(e, n, -self.record[4]):
                    col_num = self.color_dic['a_grid']
                    character = 'a'
                elif self.show_pos_x and in_enx(e, n, self.record[3]):
                    col_num = self.color_dic['x_grid']
                    character = 'X'
                elif self.show_neg_x and in_enx(e, n, -self.record[3]):
                    col_num = self.color_dic['x_grid']
                    character = 'x'
                elif self.show_highlighted_grids and self.in_marked_grids(e,n) != -1:
                    iddd = self.in_marked_grids(e,n)
                    col_num = self.grid_highlight_colors[iddd%len(self.grid_highlight_colors)]
                    character = '='
                elif self.show_all_recs and self.in_dic(e, n):
                    col_num = self.color_dic['basic']
                    character = '+'
                else:
                    col_num = self.color_dic['basic']
                    character = ' '

                if self.highlight_axis and (e == 0 or n == 0):
                    col_num = self.invert_color(col_num)

                try:
                    self.map_pad.addch(n_s, e_s, ord(character), curses.color_pair(col_num))
                except:
                    pass

        self.map_pad.box()
        refresh_args = (0, 0, 0, 0, self.map_height, self.map_width)
        self.map_pad.refresh(*refresh_args)




    def refresh_list(self):
        self.list_pad.clear()
        cells = []
        E, N = self.cursor
        list_strings = self.list_view_strings

        now_in_n0 = is_square(-E) and N==0
        if self.cur_indexer == None:
            self.cur_indexer = self.record[3]

        if now_in_n0:
            check_func = in_ena
            gen_func = ena
            shift_amt = 1
        else:
            check_func = in_enx
            gen_func = enx
            if self.cur_indexer % 2 != E % 2:
                if E%2:
                    self.cur_indexer += 1
                else:
                    self.cur_indexer -= 1
            shift_amt = 2

        search_depth = self.list_x_search_depth
        cells = []
        record_limit = self.list_view_height - 1
        good_index = 0

        doing_pos = True
        doing_neg = True

        i = 1
        good_spot = self.list_view_height / 2
        dracula = 0
        while(good_index != good_spot):
            t_shift_a = i * shift_amt
            if check_func(E, N, self.cur_indexer - t_shift_a):
                cells = [gen_func(E, N, self.cur_indexer - t_shift_a)] + cells
                good_index += 1
            dracula += 1
            i += 1
            if len(cells) == record_limit / 2 or dracula > self.list_x_search_depth:
                break
        dracula = 0
        i = 0
        while(len(cells) != record_limit and dracula < self.list_x_search_depth):
            t_shift_a = i * shift_amt
            if check_func(E, N, self.cur_indexer + t_shift_a):
                cells = cells + [gen_func(E, N, self.cur_indexer + t_shift_a)]
            dracula += 1
            i += 1

        #cells is now all the records we want to show with good_index being the index of the highlighted one

        words = self.lines_from_list(cells)
        for h in range(len(words)):
            try:
                if h == good_index + 1 or h == 0:
                    self.list_pad.addstr(h, 0, str(words[h]), curses.color_pair(13))
                else:
                    self.list_pad.addstr(h, 0, str(words[h]), curses.color_pair(1))
            except:
                pass
        refresh_args = (0, 0, 0, self.map_width, self.map_height, self.max_width)
        self.list_pad.refresh(*refresh_args)


    def lines_from_list(self, entries):
        words = self.list_view_strings
        str_rows = [words]
        for entry in entries:
            try:
                row_strs = self.values_from_record(entry, words)
            except:
                raise Exception(str(words))
            str_rows.append(row_strs)
        #str_rows = [words] + [self.values_from_record(entry, words) for entry in entries]
        def_width = self.list_cell_width
        max_widths = []
        for i in range(len(words)):
            max_w = len(words[i]) if len(words[i]) > def_width else def_width
            for str_row in str_rows:
                len_piece = str_row[i]
                if len(len_piece) > max_w:
                    max_w = len(len_piece)
            max_widths.append(max_w)
        for i in range(len(max_widths)):
            if max_widths[i] > self.list_cell_max_width:
                max_widths[i] = self.list_cell_max_width


        disp_strings = []
        for row in str_rows:
            row_final = ''
            for i in range(len(words)):
                piece = row[i]
                row_final += ' '*(max_widths[i] - len(piece)+1) + piece + '|'
            disp_strings.append(row_final)
        return disp_strings

    def move_record_in_list(self, up=True, big=False):
        if big == 0:
            self.refresh_list()
            return
        E,N = self.cursor
        now_in_n0 = is_square(-E) and N==0
        if big == False:
            big = 1
        if self.cur_indexer == None:
            if now_in_n0:
                self.cur_indexer = self.record[4]
            else:
                self.cur_indexer = self.record[3]
        shifter = self.cur_indexer
        if up:
            mult = 1
        else:
            mult = -1
        if now_in_n0:
            check_func = in_ena
            shift_amt = 1 * mult
        else:
            check_func = in_enx
            if shifter % 2 != E % 2:
                if E%2:
                    shifter += 1
                else:
                    shifter -= 1
            shift_amt = 2 * mult

        shifter += shift_amt
        count = 0
        while(not check_func(E, N, shifter)):
            shifter += shift_amt
            count += 1
            if count > 100:
                return
        self.cur_indexer = shifter
        if big:
            self.move_record_in_list(up=up, big=big-1)



    def get_current_list_record(self):
        E, N = self.cursor
        if  self.cur_indexer:
            if is_square(-E) and N==0:
                return ena(E, N, self.cur_indexer)
            else:
                return enx(E, N, self.cur_indexer)


    def set_record_from_list(self):
        b = self.get_current_list_record()
        if b:
            self.record = b
            self.other_recs = []
        self.refresh_detail()

    def add_record_from_list(self):
        b = self.get_current_list_record()
        if b:
            if len(self.other_recs) == self.max_detail_row_entries:
                return
            self.other_recs.append(b)
        self.refresh_detail()

    def values_from_record(self, record, words):
        try:
            e,n,d,x,a,b = record
        except:
            raise Exception(str(record))
        ret_val = []
        for wordd in words:
            word = wordd.lower()
            if word == 'e':
                ret_val.append(str(e))
            elif word == 'n':
                ret_val.append(str(n))
            elif word == 'd':
                ret_val.append(str(d))
            elif word == 'x':
                ret_val.append(str(x))
            elif word == 'a':
                ret_val.append(str(a))
            elif word == 'b':
                ret_val.append(str(b))
            elif word == 'c':
                ret_val.append(str(a*b))
            elif word == 'f':
                ret_val.append(str(2*d + 1 - e))
            elif word in ('d+n', '(d+n)'):
                ret_val.append(str(d + n))
            elif word in ('x+n', '(x+n)'):
                ret_val.append(str(x + n))
            elif word == 't':
                ret_val.append(str(t_from_x(x)))
            else:
                ret_val.append(word)
        return ret_val


    def refresh_detail(self):
        self.detail_pad.clear()
        cur_rec = self.record
        recs = self.other_recs
        all_recs = [cur_rec] + recs
        ids = self.detail_ids[:len(all_recs)]
        vals_to_calc = self.detail_strings[1:] #cant calculate the id so it just goes off here

        values = []
        for i in range(len(all_recs)):
            rec = all_recs[i]
            strs = [ids[i]] + self.values_from_record(rec, vals_to_calc)
            values.append(strs)

        row_strings = []
        for i in range(len(self.detail_strings)):
            max_width = max([len(x) for x in self.detail_strings])
            ddddd = str(self.detail_strings[i]) + ' '*(max_width + 1 - len(str(self.detail_strings[i])))
            row_strings.append(ddddd)

        for value in values:
            max_width = max([len(x) for x in value])
            if max_width < self.column_detail_width:
                max_width = self.column_detail_width
            for i in range(len(row_strings)):
                row_strings[i] += ' '*(max_width + 1 - len(str(value[i]))) + str(value[i]) + '|'

        for i in range(len(row_strings)):
            try:
                color = 1
                if i == 0:
                    color = 16
                self.detail_pad.addstr(i, 0, row_strings[i], curses.color_pair(color))
            except:
                pass

        refresh_args = (0, 0, self.map_height, 0, self.max_height, self.detail_total_width)
        self.detail_pad.refresh(*refresh_args)



def x_from_t(t, e):
    if e%2==0:
        x = (t - 1) * 2
    else:
        x = t*2 - 1
    return x

def t_from_x(x):
    if x%2:
        return x/2 + 1
    else:
        return (x+1)/2

def int_sqrt(n):
    x = n
    y = (x + 1) // 2
    while y < x:
        x = y
        y = (x + n // x) // 2
    return x

def is_square(n):
    r = int_sqrt(n)
    return n == r*r

#### RECORD CREATION ####

def in_enx(e,n,x):
    if n == 0:
        return e + x*x == 0
    else:
        return (x*x + e) % (2*n) == 0

def enx(e,n,x):
    if n == 0:
        a = 0
    else:
        a = (x*x + e) / (2*n)
    b = a + 2*x + 2*n
    c = a * b
    d = a + x
    return (e,n,d,x,a,b)


def in_end(e,n,d):
    c = d*d + e
    #dn*dn - xn*xn = c
    #dn*dn - c = xn*xn
    xpn_s = (d+n)**2 - c
    root = int_sqrt(xpn_s)
    return root*root == xpn_s

def end(e,n,d):
    c = d*d + e
    x = int_sqrt((d+n)**2 - c) - n
    a = d - x
    b = a + 2*x + 2*n
    return (e,n,d,x,a,b)

def in_ena(e,n,a):
    xx = 2*n*a - e
    root = int_sqrt(xx)
    return xx == root*root

def ena(e,n,a):
    xx = 2*n*a - e
    x = int_sqrt(xx)
    d = a + x
    b = a + 2*x + 2*n
    return (e,n,d,x,a,b)

def abd(a,b,d):
    c = a * b
    e = c - d*d
    x = d - a
    n = (b - a)/2 - x
    return (e,n,d,x,a,b)

def ab(a,b):
    c = a * b
    d = int_sqrt(c)
    e = c - d*d
    n = (b+a)/2 - d
    x = d - a
    return (e,n,d,x,a,b)



'''
SDOFSDFLJKSDF
SDfaSDF
SDFSDf


asdfasdfas

asdfasdfas
a*bsdfasd
failsdf
asdfasdfas


'''



if __name__ == '__main__':
    x = EndConsole()
    wrapper(x.start())
    x = wrapper(EndConsole())