Features Utilities Helper Utilities

Helper Utilities Guide

TL;DR — Why Use These

Static helper classes and utilities that solve common programming problems without needing components on GameObjects. Use these for predictive aiming, path utilities, threading, hashing, formatting, and more.

Gameplay Helpers — Predictive aiming, spatial sampling, rotation
GameObject & Component Helpers — Component discovery, hierarchy manipulation
Transform Helpers — Hierarchy traversal
Coroutine Wait Pools — Configure Buffers.GetWaitForSeconds* caching
Threading — Main thread dispatcher
Path & File Helpers — Path resolution, file operations
Scene Helpers — Scene queries and loading
Advanced Utilities — Null checks, hashing, formatting
Environment Detection — CI, batch mode, and runtime environment

Coroutine Wait Pools

Unity allocates a new WaitForSeconds/WaitForSecondsRealtime every time you yield with a literal. Buffers.GetWaitForSeconds(...) and Buffers.GetWaitForSecondsRealTime(...) pool those instructions to reduce coroutine allocations, but each distinct duration used to stick around forever. Large ranges (randomized cooldowns, tweens, etc.) could leak thousands of instances.

New pooling policy knobs (Runtime 2.2.1+):

Setting	Default	Purpose
`Buffers.WaitInstructionMaxDistinctEntries`	`512`	Upper bound on distinct cached durations. Set to `0` to disable the cap, or tighten it for editor/dev builds. When the limit is reached the cache stops growing (or evicts, if LRU is enabled).
`Buffers.WaitInstructionQuantizationStepSeconds`	`0` (off)	Rounds requested durations to the nearest step before caching. Useful when you can tolerate millisecond snapping (e.g., `.005f` → `.01f`).
`Buffers.WaitInstructionUseLruEviction`	`false`	When true, the cache becomes an LRU: it evicts the least recently used duration whenever it hits the max entry count instead of rejecting new ones. Diagnostics expose the eviction count.
`Buffers.TryGetWaitForSecondsPooled(float seconds)` / `TryGetWaitForSecondsRealtimePooled`	n/a	Returns the cached instruction or `null` if the request would exceed the cap. Use this when you want to detect “unsafe” usages and allocate manually instead.
`Buffers.WaitForSecondsCacheDiagnostics` / `.WaitForSecondsRealtimeCacheDiagnostics`	snapshot	Exposes `DistinctEntries`, `MaxDistinctEntries`, `LimitRefusals`, and whether quantization is active so you can surface metrics in your own tooling.

⚙️ Project-wide defaults: Open the Coroutine Wait Instruction Buffers foldout under Project Settings ▸ Wallstop Studios ▸ Unity Helpers to edit these knobs. The settings asset lives at Resources/Wallstop Studios/Unity Helpers/UnityHelpersBufferSettings.asset, ships with your build, and automatically applies on script/domain reload or when a player starts (unless your code overrides the values at runtime). Use Apply Defaults Now to push the current sliders into the active domain or Capture Current Values to snapshot whatever Buffers is using in play mode.

🔒 Persistence Behavior: When you click Apply Defaults Now, the settings are immediately:

Saved to disk — The asset is marked dirty and saved via AssetDatabase.SaveAssets()

Applied to the runtime — Buffers.WaitInstruction* properties are updated immediately

This ensures settings persist across:

Domain reloads (script recompilation, entering/exiting play mode) — Via [InitializeOnLoadMethod]

Editor restarts — The asset is saved to disk and reloads automatically

Standalone builds — The asset ships under Resources/ and auto-applies via [RuntimeInitializeOnLoadMethod]

Toggle Apply On Load to control whether the saved defaults auto-apply when the domain loads. If disabled, the asset serves as a reference and you must call asset.ApplyToBuffers() manually.

// Clamp the cache to 128 distinct waits, quantize to milliseconds, and reuse LRU entries.
Buffers.WaitInstructionMaxDistinctEntries = 128;
Buffers.WaitInstructionQuantizationStepSeconds = 0.001f;
Buffers.WaitInstructionUseLruEviction = true;

IEnumerator WeaponCooldown(Func<float> cooldownSeconds)
{
    float waitSeconds = cooldownSeconds();

    // Prefer pooled waits, but fall back to a fresh instance if the cache refuses it.
    WaitForSeconds pooled = Buffers.TryGetWaitForSecondsPooled(waitSeconds)
        ?? new WaitForSeconds(waitSeconds);

    yield return pooled;
}

void OnGUI()
{
    WaitInstructionCacheDiagnostics stats = Buffers.WaitForSecondsCacheDiagnostics;
    GUILayout.Label(
        $"Wait cache: {stats.DistinctEntries}/{stats.MaxDistinctEntries} (refusals={stats.LimitRefusals}, evictions={stats.Evictions})"
    );
}

⚠️ Limit warnings: In Editor and Development builds the first limit hit (and every 25th after) emits a warning so you can spot misuses quickly. Production builds skip the log to avoid noise.

✅ Deterministic fallback: When the cache refuses a duration, Buffers.GetWaitForSeconds* still returns a valid instruction—it just isn’t cached, so highly variable waits no longer lead to unbounded memory growth.

Gameplay Helpers

Predictive Aiming

What it does: Calculates where to aim when shooting at a moving target, accounting for projectile travel time.

Problem it solves: Shooting a bullet at where an enemy is misses if they're moving. You need to aim at where they will be.

using WallstopStudios.UnityHelpers.Core.Helper;

Vector2 enemyPos = enemy.transform.position;
Vector2 enemyVelocity = enemy.GetComponent<Rigidbody2D>().velocity;
Vector2 turretPos = turret.transform.position;
float bulletSpeed = 20f;

Vector2? aimPosition = Helpers.PredictCurrentTarget(
    enemyPos,
    enemyVelocity,
    turretPos,
    bulletSpeed
);

if (aimPosition.HasValue)
{
    // Aim at aimPosition to hit the moving target
    Vector2 aimDirection = (aimPosition.Value - turretPos).normalized;
    FireProjectile(aimDirection, bulletSpeed);
}
else
{
    // Target is too fast, can't hit
}

When to use:

Turrets shooting at moving enemies
AI aiming at moving players
Predictive targeting systems
Guided missiles

When NOT to use:

Homing projectiles (use steering behaviors)
Instant-hit weapons (use raycasts)
Slow-moving or stationary targets (just aim directly)

Spatial Sampling

Get random points in circles/spheres:

using WallstopStudios.UnityHelpers.Core.Helper;

// Random point inside circle (uniform distribution)
Vector2 spawnPoint = Helpers.GetRandomPointInCircle(center, radius);

// Random point inside sphere (uniform distribution)
Vector3 explosionPoint = Helpers.GetRandomPointInSphere(center, radius);

Use for:

Spawn points (enemies, pickups, particles)
Explosion damage distribution
Random movement destinations
Scatter patterns

Smooth Rotation Helpers

Get rotation speed for smooth turning:

using WallstopStudios.UnityHelpers.Core.Helper;

// Calculate how much to rotate this frame toward target
float currentAngle = transform.eulerAngles.z;
float targetAngle = GetTargetAngle();
float maxDegreesPerSecond = 180f;

float newAngle = Helpers.GetAngleWithSpeed(
    currentAngle,
    targetAngle,
    maxDegreesPerSecond,
    Time.deltaTime
);

transform.eulerAngles = new Vector3(0, 0, newAngle);

Handles:

Frame-rate independence
Shortest rotation path (doesn't spin 270° when 90° is shorter)
Angle wrapping (0-360°)

Delayed Execution

Execute code after delay or next frame:

using WallstopStudios.UnityHelpers.Core.Helper;

// Execute after 2 seconds
Helpers.ExecuteFunctionAfterDelay(
    monoBehaviour,
    () => Debug.Log("Delayed!"),
    delayInSeconds: 2f
);

// Execute next frame
Helpers.ExecuteFunctionNextFrame(
    monoBehaviour,
    () => Debug.Log("Next frame!")
);

Uses coroutines under the hood.

Repeating Execution with Jitter

Run function repeatedly with random timing variance:

using WallstopStudios.UnityHelpers.Core.Helper;

// Spawn enemy every 5-8 seconds
Helpers.StartFunctionAsCoroutine(
    gameManager,
    SpawnEnemy,
    baseInterval: 5f,
    intervalJitter: 3f  // Random ±3 seconds
);

void SpawnEnemy()
{
    Instantiate(enemyPrefab, spawnPoint.position, Quaternion.identity);
}

Use for:

Enemy spawning with variability
Random event triggers
Staggered updates to spread CPU load
Natural-feeling timing

Layer & Label Queries

using WallstopStudios.UnityHelpers.Core.Helper;

// Get all layer names (cached after first call)
string[] allLayers = Helpers.GetAllLayerNames();

// Get all sprite label names (editor only, cached)
string[] labels = Helpers.GetAllSpriteLabelNames();

Use for:

Populating dropdowns in editor tools
Runtime layer/label validation
Configuration systems

Collider Syncing

Update PolygonCollider2D to match sprite:

using WallstopStudios.UnityHelpers.Core.Helper;

SpriteRenderer renderer = GetComponent<SpriteRenderer>();
PolygonCollider2D collider = GetComponent<PolygonCollider2D>();

Helpers.UpdateShapeToSprite(renderer, collider);
// Collider now matches sprite's physics shape

GameObject & Component Helpers

Cached Component Lookup

Tag-based component finding with caching:

using WallstopStudios.UnityHelpers.Core.Helper;

// First call searches scene, subsequent calls use cache
Player player = Helpers.Find<Player>("Player");

// Clear cache manually if needed
Helpers.ClearInstance<Player>();

// Set cache manually (for dependency injection scenarios)
Helpers.SetInstance(playerInstance);

Performance: First call searches the scene using GameObject.FindWithTag; subsequent calls use a cached O(1) dictionary lookup. The cache persists until manually cleared.

Component Existence Checks

using WallstopStudios.UnityHelpers.Core.Helper;

// Check if component exists without allocating
bool hasRigidbody = Helpers.HasComponent<Rigidbody2D>(gameObject);

// Better than:
bool hasRigidbody = GetComponent<Rigidbody2D>() != null; // Allocates

Get-or-Add Pattern

using WallstopStudios.UnityHelpers.Core.Helper;

// Get existing component or add if missing
Rigidbody2D rb = Helpers.GetOrAddComponent<Rigidbody2D>(gameObject);

Hierarchical Enable/Disable

Recursively enable/disable components:

using WallstopStudios.UnityHelpers.Core.Helper;

// Enable all Collider2D components in children
Helpers.EnableRecursively<Collider2D>(rootObject, enable: true);

// Disable all renderers in hierarchy
Helpers.EnableRendererRecursively<SpriteRenderer>(rootObject, enable: false);

Use for:

Toggling collision for entire character rigs
Hiding/showing complex prefabs
Debug visualization toggles

Bulk Child Destruction

using WallstopStudios.UnityHelpers.Core.Helper;

// Destroy all children (useful for clearing containers)
Helpers.DestroyAllChildrenGameObjects(parentTransform);

Use for:

Clearing inventory UI
Resetting spawn containers
Cleanup before repopulating

Smart Destruction

Editor/runtime aware destruction:

using WallstopStudios.UnityHelpers.Core.Helper;

// Uses DestroyImmediate in editor, Destroy in play mode
Helpers.SmartDestroy(gameObject);

// Also handles assets correctly (won't destroy project assets)

Use in editor tools to avoid "Destroying assets is not permitted" errors.

Prefab Utilities

using WallstopStudios.UnityHelpers.Core.Helper;

// Check if GameObject is a prefab asset or instance
bool isPrefab = Helpers.IsPrefab(gameObject);

// Safely modify prefab (editor only)
#if UNITY_EDITOR
Helpers.ModifyAndSavePrefab(prefabAssetPath, prefab =>
{
    // Modify prefab here
    var component = prefab.AddComponent<MyComponent>();
    component.value = 42;
    // Changes saved automatically
});
#endif

Transform Helpers

Hierarchy Traversal (Depth-First)

Visit all children recursively:

using WallstopStudios.UnityHelpers.Core.Helper;

// Depth-first traversal (visits deepest children first)
Helpers.IterateOverAllChildrenRecursively<SpriteRenderer>(rootTransform, renderer =>
{
    renderer.color = Color.red;
});

// Buffered version (reduces allocations)
using (var buffer = Buffers<Transform>.List.Get())
{
    Helpers.IterateOverAllChildrenRecursively(rootTransform, buffer.Value);
    foreach (Transform child in buffer.Value)
    {
        // Process children
    }
}

Hierarchy Traversal (Breadth-First)

Visit by depth level:

using WallstopStudios.UnityHelpers.Core.Helper;

// Breadth-first traversal with depth limit
Helpers.IterateOverAllChildrenRecursivelyBreadthFirst(
    rootTransform,
    transform => Debug.Log(transform.name),
    maxDepth: 3  // Only visit 3 levels deep
);

Use for:

Finding immediate area (not entire tree)
Level-based operations
Performance-sensitive searches

Parent Traversal

Walk up the hierarchy:

using WallstopStudios.UnityHelpers.Core.Helper;

// Find component in parents
Helpers.IterateOverAllParentComponentsRecursively<Canvas>(transform, canvas =>
{
    Debug.Log($"Found canvas: {canvas.name}");
});

// Get all parents (no component filter)
using (var buffer = Buffers<Transform>.List.Get())
{
    Helpers.IterateOverAllParents(transform, buffer.Value);
    // buffer contains all parent transforms up to root
}

Use for:

Finding UI Canvas parents
Inheritance checking (is this under X?)
Walking to root of hierarchy

Direct Children/Parents

using WallstopStudios.UnityHelpers.Core.Helper;

// Get immediate children (non-recursive)
using (var buffer = Buffers<Transform>.List.Get())
{
    Helpers.IterateOverAllChildren(transform, buffer.Value);
    // Only direct children, no grandchildren
}

Threading

UnityMainThreadDispatcher

Execute code on Unity's main thread from background threads:

Problem it solves: Unity APIs can only be called from the main thread. Background Tasks/threads can't directly manipulate GameObjects. This marshals callbacks back to the main thread.

See the dedicated Unity Main Thread Dispatcher guide for details about auto-creation, queue limits, the AutoCreationScope helper, and the CreateTestScope(...) convenience method that packages can use in their own test fixtures.

using WallstopStudios.UnityHelpers.Core.Helper;
using System.Threading.Tasks;

async Task LoadDataInBackground()
{
    // Background thread work
    await Task.Run(() =>
    {
        // Expensive computation
        var data = LoadFromDatabase();

        // Need to update UI - marshal back to main thread
        UnityMainThreadDispatcher.Instance.RunOnMainThread(() =>
        {
            // Safe to call Unity APIs here
            uiText.text = data.ToString();
        });
    });
}

Async version with result:

async Task<string> GetTextFromMainThread()
{
    // Called from background thread, executes on main thread
    string text = await UnityMainThreadDispatcher.Instance.Post(() =>
    {
        return uiText.text; // Safe to access Unity objects
    });

    return text;
}

Logging

Use the Logging Extensions guide for:

Rich text tags applied directly inside interpolated strings ($"{value:b,color=red}")
Thread-aware logging helpers (this.Log, this.LogWarn, this.LogError, this.LogDebug)
Tips for registering custom decorations and gating logs per-object or globally

These helpers rely on the same dispatcher utilities above, so logging from jobs/background threads stays safe.

Fire-and-forget on main thread:

// From background thread
UnityMainThreadDispatcher.Instance.RunOnMainThread(() =>
{
    Instantiate(prefab, position, rotation);
});

When to use:

Async file loading callbacks
Network request callbacks
Database query results
Background computation results that update UI

Important:

Works in both edit mode and play mode
Actions queued during edit mode execute in next editor update
Don't block the main thread with long operations

Path & File Helpers

Path Sanitization

Normalize path separators:

using WallstopStudios.UnityHelpers.Core.Helper;

string windowsPath = @"Assets\Sprites\Player.png";
string unityPath = PathHelper.Sanitize(windowsPath);
// Result: "Assets/Sprites/Player.png"

Unity prefers forward slashes. Use this for cross-platform paths.

Directory Utilities

Create directories safely:

using WallstopStudios.UnityHelpers.Core.Helper;

#if UNITY_EDITOR
// Creates directory and updates AssetDatabase
DirectoryHelper.EnsureDirectoryExists("Assets/Generated/Data");
#endif

Find package root:

// Walk hierarchy to find package.json
string packageRoot = DirectoryHelper.FindPackageRootPath();
// Returns path to package containing calling script

Use for:

Editor tools generating assets
Finding package-relative paths
Build scripts creating folders

Path Conversion

Convert between absolute and Unity-relative paths:

using WallstopStudios.UnityHelpers.Core.Helper;

string absolute = "C:/Projects/MyGame/Assets/Textures/player.png";
string relative = DirectoryHelper.AbsoluteToUnityRelativePath(absolute);
// Result: "Assets/Textures/player.png"

Get calling script's directory:

// Uses [CallerFilePath] magic
string scriptDir = DirectoryHelper.GetCallerScriptDirectory();
// Returns directory containing the calling .cs file

File Operations

Initialize file if missing:

using WallstopStudios.UnityHelpers.Core.Helper;

// Create config.json with default contents if it doesn't exist
FileHelper.InitializePath(
    "Assets/config.json",
    "{ \"version\": 1 }"
);

Async file copy:

using System.Threading;

CancellationTokenSource cts = new CancellationTokenSource();

await FileHelper.CopyFileAsync(
    "source.txt",
    "destination.txt",
    bufferSize: 81920,  // 80KB buffer
    cts.Token
);

Use for:

Large file operations without blocking
Cancellable copy operations
Streaming file operations

Scene Helpers

Scene Queries

Check if scene is loaded:

using WallstopStudios.UnityHelpers.Core.Helper;

bool loaded = SceneHelper.IsSceneLoaded("GameLevel");
// Checks by scene name or path

Get all scene paths (editor):

#if UNITY_EDITOR
string[] allScenes = SceneHelper.GetAllScenePaths();
// Returns all .unity files in project

string[] buildScenes = SceneHelper.GetScenesInBuild();
// Returns only scenes in Build Settings
#endif

Temporary Scene Loading

Load scene, extract data, auto-unload:

using WallstopStudios.UnityHelpers.Core.Helper;

// RAII pattern - scene unloaded when disposed
using (var scope = SceneHelper.GetObjectOfTypeInScene<LevelConfig>("Scenes/LevelData"))
{
    if (scope.HasObject)
    {
        LevelConfig config = scope.Object;
        // Use config data
    }
    // Scene automatically unloaded here
}

Use for:

Extracting data from data-only scenes
Editor tools reading scene contents
Validation scripts
Testing scene contents

Advanced Utilities

Unity-Aware Null Checks

The problem: Unity's == operator overload can be slow, and destroyed UnityEngine.Objects return true for == null but false for is null.

using WallstopStudios.UnityHelpers.Core.Helper;

GameObject obj = GetMaybeDestroyedObject();

// Proper Unity null check
bool isNull = Objects.Null(obj);
bool notNull = Objects.NotNull(obj);

Handles:

Destroyed UnityEngine.Objects
Actual null references
Optimized checks for non-Unity types

Deterministic Hashing

Combine hash codes correctly:

using WallstopStudios.UnityHelpers.Core.Helper;

public class CompositeKey
{
    public string Name;
    public int Level;
    public Vector2 Position;

    public override int GetHashCode()
    {
        // FNV-1a based hash combination
        return Objects.HashCode(Name, Level, Position);
    }
}

Supports up to 11 parameters. Uses FNV-1a algorithm for good distribution.

Hash entire collections:

List<int> numbers = new List<int> { 1, 2, 3, 4, 5 };
int hash = Objects.EnumerableHashCode(numbers);

Use for:

Custom GetHashCode implementations
Dictionary keys with multiple fields
Networking determinism
Save file hashing

Formatting

Human-readable byte counts:

using WallstopStudios.UnityHelpers.Core.Helper;

long bytes = 1536000;
string formatted = FormattingHelpers.FormatBytes(bytes);
// Result: "1.46 MB"

Auto-scales to B, KB, MB, GB, TB.

Use for:

File size displays
Memory usage UI
Profiling output
Download progress

Multi-Dimensional Array Iteration

Enumerate 2D/3D array indices:

using WallstopStudios.UnityHelpers.Core.Helper;

int[,] grid = new int[10, 10];

// Get all indices as tuples
foreach (var (x, y) in IterationHelpers.IndexOver(grid))
{
    grid[x, y] = x + y;
}

// Buffered (reduces allocations)
using (var buffer = Buffers<(int, int)>.List.Get())
{
    IterationHelpers.IndexOver(grid, buffer.Value);
    foreach (var (x, y) in buffer.Value)
    {
        // Process
    }
}

Also supports 3D arrays with (int, int, int) tuples.

Binary Array Conversion

Marshalling between int[] and byte[]:

using WallstopStudios.UnityHelpers.Core.Helper;

int[] ints = { 1, 2, 3, 4, 5 };

// Convert to bytes (uses Buffer.BlockCopy)
byte[] bytes = ArrayConverter.IntArrayToByteArrayBlockCopy(ints);

// Convert back
int[] restored = ArrayConverter.ByteArrayToIntArrayBlockCopy(bytes);

Use for:

Network serialization
Binary file formats
Save game data
High-performance data conversion

Performance: Uses native memory copy (Buffer.BlockCopy) which is faster than element-by-element loops due to optimized native implementation, though both are O(n).

Custom Comparers

Create IComparer from lambda:

using WallstopStudios.UnityHelpers.Core.Helper;

var enemies = new List<Enemy>();

// Sort by health descending
enemies.Sort(new FuncBasedComparer<Enemy>((a, b) =>
    b.health.CompareTo(a.health) // Descending
));

Reverse any comparer:

var comparer = Comparer<int>.Default;
var reversed = new ReverseComparer<int>(comparer);

// Now sorts descending
list.Sort(reversed);

Environment Detection

CI/CD Detection

Detect if running in a CI environment:

using WallstopStudios.UnityHelpers.Core.Helper;

if (Helpers.IsRunningInContinuousIntegration)
{
    // Skip interactive dialogs, use defaults
}

if (Helpers.IsRunningInBatchMode)
{
    // Running headless (no graphics device)
}

Supported CI systems (checked via environment variables):

CI System	Environment Variable
Generic CI	`CI`
GitHub Actions	`GITHUB_ACTIONS`
GitLab CI	`GITLAB_CI`
Jenkins	`JENKINS_URL`
Travis CI	`TRAVIS`
CircleCI	`CIRCLECI`
Azure Pipelines	`TF_BUILD`
TeamCity	`TEAMCITY_VERSION`
Buildkite	`BUILDKITE`
AWS CodeBuild	`CODEBUILD_BUILD_ID`
Bitbucket Pipelines	`BITBUCKET_BUILD_NUMBER`
AppVeyor	`APPVEYOR`
Drone CI	`DRONE`
Unity CI	`UNITY_CI`
Unity Tests	`UNITY_TESTS`

Check specific environment variables:

using WallstopStudios.UnityHelpers.Core.Helper;

// Check if a specific environment variable is set (non-empty, non-whitespace)
bool onGitHub = Helpers.IsEnvironmentVariableSet(
    Helpers.CiEnvironmentVariables.GitHubActions
);

bool onJenkins = Helpers.IsEnvironmentVariableSet(
    Helpers.CiEnvironmentVariables.JenkinsUrl
);

// Access all known CI variable names
foreach (string varName in Helpers.CiEnvironmentVariables.All)
{
    if (Helpers.IsEnvironmentVariableSet(varName))
    {
        Debug.Log($"CI detected via: {varName}");
    }
}

Use for:

Skipping interactive dialogs in CI
Disabling expensive editor visualizations
Conditional test behavior
Build automation scripts
Asset processors that shouldn't run headless

Best Practices

Performance

Cache lookups: Helpers.Find<T>() caches, but don't call every frame anyway
Use buffered variants: IterateOverAllChildrenRecursively with buffers for hot paths
Main thread dispatch: Don't send hundreds of tiny tasks, batch work
Hierarchy traversal: Use breadth-first with depth limits for large hierarchies

Threading

Main thread rule: Only Unity APIs need main thread, pure C# can stay on background threads
Avoid blocking: Don't wait for main thread results in tight loops
CancellationToken: Support cancellation for long operations

Architecture

Component vs Helper: Components (MonoBehaviours) for per-object state, Helpers for stateless operations
Static method smell: If you need instance state, use a component instead
Editor/Runtime split: Use #if UNITY_EDITOR guards for editor-only helpers

Code Organization

Namespace imports: Use using WallstopStudios.UnityHelpers.Core.Helper; at top of file
Don't extend helpers: These are sealed utility classes, not inheritance hierarchies
Prefer composition: Use helpers from components, don't try to combine them

Features Utilities Helper Utilities

Helper Utilities Guide

TL;DR — Why Use These

Contents

Coroutine Wait Pools

Gameplay Helpers

Predictive Aiming

Spatial Sampling

Smooth Rotation Helpers

Delayed Execution

Repeating Execution with Jitter

Layer & Label Queries

Collider Syncing

GameObject & Component Helpers

Cached Component Lookup

Component Existence Checks

Get-or-Add Pattern

Hierarchical Enable/Disable

Bulk Child Destruction

Smart Destruction

Prefab Utilities

Transform Helpers

Hierarchy Traversal (Depth-First)

Hierarchy Traversal (Breadth-First)

Parent Traversal

Direct Children/Parents

Threading

UnityMainThreadDispatcher

Logging

Path & File Helpers

Path Sanitization

Directory Utilities

Path Conversion

File Operations

Scene Helpers

Scene Queries

Temporary Scene Loading

Advanced Utilities

Unity-Aware Null Checks

Deterministic Hashing

Formatting

Multi-Dimensional Array Iteration

Binary Array Conversion

Custom Comparers

Environment Detection

CI/CD Detection

Best Practices

Performance

Threading

Architecture

Code Organization

Related Documentation

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