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Graph/c4938700-b9de-4538-af97-c686276b251a

Domain

Game Development

c4938700-b9de-4538-af97-c686276b251a

Game Development

Node Details

Public graph metadata

Updated5/1/2026

PageRank0.0014

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50 linked nodes

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SoundPointComponent

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s&box Game Development

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there is no built-in singleton pattern for Components — In s&box. Tension: without using Scene.GetAllComponents every frame.

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s&box Game Development

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SoundscapeTrigger

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SkinnedModelRenderer

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facepunch sandbox

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It's not terribly laggy or anything but I can definitely see some subtle stuttering every now often. — I recently started developing a game using LibGDX. Tension: I thought I could expect better rendering performances.

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try looking at the DesktopLauncher.java and see if there's a config parameter that might affect the framerate - such as vsync. — DesktopLauncher.java. Tension: some subtle stuttering every now often. Outcome: try removing any fps cap to see how it performs unrestricted.

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Short summary Game developers prefer C++ for engines and performance-sensitive subsystems primarily because it gives maximal control over performance, memory layout, and platform integration while keeping runtime overhead minimal. 1) Technical reasons - Performance and determinism: no managed GC pauses, no hidden runtime costs; fine-grained control over inlining, allocation, and object lifetime. - Memory control & layout: explicit control over object layout and cache-friendly data structures (important for SIMD, streaming, and cache locality). - Low-level access: direct OS, driver, and platform APIs (graphics, audio, input, memory mapping) and inline assembly / intrinsics when needed. - Latency/real-time constraints: engines need tight frame-time budgets (e.g., 60/120 fps). C++ lets teams avoid unpredictable pauses and tune worst-case latency. 2) Tooling & ecosystem - Mature toolchain: cross-platform compilers (Clang, MSVC), profilers (Nsight, VTune), sanitizers (ASan/TSan), and debuggers. - Established middleware & engines: Unreal Engine, many rendering/physics/audio libraries are C++ first; large third-party ecosystems and plugins. - ABI/interop: stable C++ ABI on many platforms simplifies native plugin ecosystems. 3) Historical & organizational reasons - Legacy: decades of code and engines are written in C++; rewriting is costly. - Talent pool: many systems programmers trained in C/C++; hiring pipelines and internal expertise favor it. - Portability: C++ compiles to native code on consoles, PC, and embedded targets without a managed runtime. 4) Trade-offs & modern alternatives - Trade-offs: greater risk of memory-safety bugs, manual memory management, longer iteration cycles compared to managed languages. - Alternatives: - Rust: offers memory safety without GC and growing game-ecosystem interest; adoption is increasing but ecosystem/tools are less mature in AAA game dev. - C#: (Unity) good for productivity and tooling, but GC introduces pause/latency concerns for tight engine loops (though many teams isolate GC-heavy work to non-critical paths). - Managed runtimes: faster iteration for gameplay code, used frequently for scripting or tools while core engine remains native. 5) Practical examples - C++ typically used for: renderer, core engine loop, memory allocators, physics, networking, platform abstraction, resource loaders. - Higher-level gameplay often in scripting/managed languages (Lua, C#, Python) or hot-reloadable modules for iteration speed. Further reading - Unreal Engine: https://www.unrealengine.com - Unity (C#) tradeoffs: https://unity.com - Rust game development overview: https://arewegameyet.rs If you want, I can draft a short comparison table (C++ vs Rust vs C#) targeted at a lead engineer deciding an engine rewrite.

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s&box: Detecting when a Rigidbody has settled after physics using IScenePhysicsEvents

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s&box: Singleton Component pattern using static Instance with OnAwake/OnDestroy guard

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s&box: Raycasting and physics queries with Scene.Trace fluent builder

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s&box: Reading player input with Input.Down/Pressed/Released and AnalogMove/AnalogLook

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s&box: Spawning prefabs and cloning GameObjects with GameObject.Clone()

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s&box: Applying forces and impulses to Rigidbody — ApplyForce, ApplyImpulse, velocity

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s&box: Collision and trigger detection with ICollisionListener and ITriggerListener

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s&box: Scene-lifetime global systems with GameObjectSystem — no GameObject required

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s&box: Driving character animations with SkinnedModelRenderer — Set parameters, IK, bone transforms, events

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s&box: Console variables and commands with [ConVar] attribute — Saved, Replicated, Cheat flags

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s&box: GameObject tag system — Tags.Add/Has/Remove and using tags in Scene.Trace filtering

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s&box: Custom asset types with GameResource — editor-editable data files (weapon defs, item configs)

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s&box: Clean timer management with TimeSince and TimeUntil — cooldowns, countdowns, elapsed time

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s&box: Component lifecycle order — OnAwake, OnStart, OnEnabled, OnUpdate, OnFixedUpdate, OnDestroy

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s&box: Spawning decals at runtime with DecalRenderer — bullet holes, surface marks, orientation from trace normal

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s&box: Finding GameObjects and components — FindAllWithTag, Directory.FindByName, GetInDescendants

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s&box: Auto-destroying effect GameObjects with TemporaryEffect — waits for particles and sounds to finish

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s&box: Hotloading — what survives code reload, hotload-safe patterns, [Property] vs plain fields

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s&box: Correct damage pipeline order — pre-event, armour, health, OnDeath, then Kill()

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s&box: Two-tier player event system — Local.IPlayerEvents (hierarchy-scoped) vs Global.IPlayerEvents (scene-wide)

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s&box: Scene cleanup without player disconnect — capture baseline on load, diff and restore on cleanup command

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s&box per-player spawn limits: track by SteamId dict, lazy-prune on count, expose as replicated ConVars

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s&box NPC AnimationLayer: sync move/look state, compute move_direction as atan2, broadcast attack triggers

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s&box shared ammo pool: NetDictionary keyed by resource path, [Sync(FromHost)], optimistic client returns

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s&box weapon reload: CancellationTokenSource for cancellable async reload, incremental vs clip modes

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s&box fall damage: OnLand fires on client, Rpc.Broadcast with host guard applies damage, Rpc.Owner for sound

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