tslater2006

    class Rope
    {
        public HashSet<Point> VisitedPoints = new HashSet<Point>();
        Point[] knots;

        public Rope(int knotCount)
        {
            knots = new Point[knotCount];
            for(var x = 0; x < knotCount; x++)
            {

tslater2006

using System.Text;

static byte[] UnicodeCodepointToUtf8(int codepoint)
{
    if (codepoint >= 0 && codepoint <= 127)
    {
        return new byte[] { (byte)codepoint };
    }
    else if (codepoint >= 128 && codepoint <= 2047)
    {

tslater2006

import cv2
import pytesseract
from pytesseract import Output
import numpy as np
import re
import json

# Create a JSON object with a JSON array
palette = {
    "name": "Vallejo Panzer Aces",

tslater2006

# Function to parse the game data from the input text
def parse_game_data(game_data):
    games = {}
    for line in game_data.strip().split('\n'):
        if not line.startswith('Game'):
            continue
        game_id_str, *game_reveals_list = line.replace(':', ';').split(';')
        game_id = int(game_id_str.split()[1])
        game_reveals = []
        for reveal in game_reveals_list:

tslater2006

"""
This script simulates a game where numbers are drawn randomly between 1 and 1000 and placed into 20 slots. 
The goal is to place the numbers in the slots in the most optimal way to win the game. 
Numbers cannot be rearranged after placement and must be strictly in ascending order.
The script keeps track of the number of games played and the minimum, maximum, and average number of games required to win.

To see a visual representation of the game, uncomment the replay_game function call and set number of games to 1.
In my testing it takes on average it takes around ~160,000 games to win one.
"""