xepherys

# UNLOCKS_ORDER is a static dictionary where the key is the order in which the unlocks should occur. This is subject
#   to change with testing and verification. Unlock is what Unlock should be executed. Level is what level of the
#   unlock should be queued. Requirements set is the list of requirements needed to unlock that level.
#
#				 Order	Unlock					Level		Requirements Set
#				 -----	------					-----		----------------
UNLOCKS_ORDER = {0: 	[Unlocks.Speed,			1,			UNLOCKS_DATA[Unlocks.Speed]			[0]],
				 1: 	[Unlocks.Expand,		1,			UNLOCKS_DATA[Unlocks.Expand]		[0]],
				 2: 	[Unlocks.Plant,			1,			UNLOCKS_DATA[Unlocks.Plant]			[0]],
				 3:		[Unlocks.Expand,		2,			UNLOCKS_DATA[Unlocks.Expand]		[1]],		#SKIP

xepherys

# UNLOCKS_DATA is valid currently as of February 2026, but is subject to change as the game progresses
# UNLOCKS_DATA is a static dictionary where the key is the Unlocks type and the value is a collection of requirements
#   for each level.
# The commented columns exist to help folk who are learning, or just for visualizing data at a quick glance. The 'Index'
#   is the index value of the requirements list, e.g. UNLOCKS_DATA[Unlocks.Cactus][2] is the second (2nd) index, which is
#   the requirements that need to be met to unlock the third (3rd) 'Level' of Unlocks.Cactus.
#
# The 'ResIdx' the index value of the resource for that given level.  NOTE: When a level unlock requires more than
#   one resource, you can't index it because it's a dictionary - this is for visualization only.  You'll need to iterate
#   over each using something like: 'for key in dict:'

xepherys

using System;
					
public class Program
{
	public static void Main()
	{
		int myInt = 5;
		
		TestValue<float> testValue = new TestValue<float>();
		

xepherys

class MyElement : VisualElement
{
    static readonly CustomStyleProperty<int> k_CellSizeProperty = new CustomStyleProperty<int>("--cell-size");
    static readonly CustomStyleProperty<Color> k_OddCellColorProperty = new CustomStyleProperty<Color>("--odd-cell-color");
    static readonly CustomStyleProperty<Color> k_EvenCellColorProperty = new CustomStyleProperty<Color>("--even-cell-color");
 
    int m_CellSize;
    Color m_OddCellColor;
    Color m_EvenCellColor;
 

xepherys

using UnityEngine;
using UnityEditor;
using UnityEditor.SceneManagement;

// Adds a "Edit Prefab" option in the Assets menu (or right clicking an asset in the project browser).
// This opens an empty scene with your prefab where you can edit it.
// Put this script in your project as Assets/Editor/EditPrefab.cs

public class EditPrefab {
	static Object getPrefab(Object selection) {

xepherys

using UnityEngine;
using UnityEditor;
using UnityEditor.SceneManagement;
using UnityEngine.SceneManagement;

// From https://gist.github.com/JohannesDeml/5802473b569718c9c86de906b7039aec
// Original https://gist.github.com/ulrikdamm/338392c3b0900de225ec6dd10864cab4
// Adds a "Edit Prefab" option in the Assets menu (or right clicking an asset in the project browser).
// This opens an empty scene with your prefab where you can edit it.
// Put this script in your project as Assets/Editor/EditPrefab.cs

xepherys

using System;
using System.Collections.Generic;
using System.Linq;
using System.Reflection;

public static class ReflectiveEnumerator
{
    /// <summary>
    /// Original class from StackExchange post
    /// https://stackoverflow.com/questions/5411694/get-all-inherited-classes-of-an-abstract-class/6944605#6944605

xepherys

public class RollingList<T> : List<T>
    {
        private int indexer = 0;
        private int maxIndexer;

        public RollingList() : base()
        {
            maxIndexer = this.Count;
        }

xepherys

using System;
using System.Collections.Generic;
using System.ComponentModel;
using System.Linq;
using System.Runtime.InteropServices;
using System.Runtime.Serialization;
using System.Security.Permissions;
using System.Windows.Forms;

namespace Xeph.Windows.Forms.ExtendedControls

xepherys

using System;
using UnityEngine;

/// <summary>
/// The MainCameraEllipticalMWE class provides motion of the camera in an ellipse (or a circle)
/// given sizeX and sizeZ where one is the major axis and the other the minor axis.  Which is
/// which isn't important, and they can be equal (x == z) if the camera is to track in a circle.
///
/// The size values assume a 2D surface where x=0, z=0 is at the bottom left and built in both x+
/// and z+ directions.