BoneLib: The Foundational Modding Core
For BONELAB Script Creators & Players
Welcome to the dedicated community portal for BoneLib. This open-source C# class library serves as the structural backbone for advanced game modifications, introducing the universal BoneMenu user interface system and enabling robust data access across both PCVR and standalone Meta Quest environments.
Compliance Notice & Disclaimer: This web platform (bonelib.com) functions exclusively as an independent, third-party informational reference index and resource archive. We are not the original creators or authors of this modification, nor are we officially associated with, sponsored by, or endorsed by yowchap, the community contributors, or Stress Level Zero. All credits, intellectual property rights, and original source materials belong entirely to their respective developers.
Core Architecture & Technical Features
BoneLib acts as an intermediate proxy layer built to streamline data tracking and UI rendering. Instead of executing direct cosmetic enhancements, it exposes vital game mechanics to secondary script assemblies.
Unified BoneMenu System
Provides secondary modifications with an integrated menu dashboard. It supports custom text string fields, confirmation prompt triggers, slider metrics, and dynamic background dialog box color adjustments that refresh instantly while the overlay interface stays active.
Safe Internal Data Access
Exposes crucial runtime tracking hooks related to the physics engine environment. Developers can query localized object nodes, player positioning arrays, active physical controller inputs, current held tools, or the specific active character avatar model.
Advanced Event Hooking
Intercepts fundamental state alterations throughout active simulation loops. It processes dedicated code triggers monitoring player damage updates, character deaths, player resurrection cycles, active gun firing routines, item grabbing hooks, and NPC lifecycles.
Extension & Utility Helpers
Packages specialized error-handling methods designed to invoke functions using nullable parameters that would otherwise trigger fatal application runtime crashes. It features custom utilities for modifying firearm fire rates (RPM), executing target damage parameters, and indexing clean object identities.
Functional Scope Note: Because BoneLib acts purely as a development class infrastructure, it must run concurrently inside a supported mod loader interface. It does not carry pre-packaged direct cosmetic file structures or assets natively.
The Scripted Modification Ecosystem
BoneLib operates as a mandatory prerequisite framework for the community’s most popular code modifications and multiplayer networks.
Dependent Code Modifications
Because advanced tools require synchronized data maps and cross-platform hooks, the system log console will return fatal missing assembly reference errors unless the core library is verified inside the working mod directory. Prominent community projects built on this baseline layer include:
BONELAB Fusion (Multiplayer Multiplayer)
The universal network integration layer introducing real-time multiplayer lobbies to the physics simulation. It relies extensively on BoneLib code calls to initialize customized user setup panels, trigger networking status text fields, and hook into live position arrays.
SpiderLab (Grappling Physics Framework)
A structural movement mechanic script adding advanced physics-driven swinging and rope grappling components. It channels raw hand controller tracking queries through the library proxy methods to prevent runtime exceptions.
Custom Firearm Mechanics & Real-time Avatar Editors
Scripted inventory modifications manipulating ammunition layers, weapon cycling rates (RPM), custom impact damage scales, or interface wheels for swift character swaps utilize the core library’s event subscription methods to listen for engine activities.
Ecosystem Notice: If your startup console window reports an assembly loading error or trace reference crash while executing secondary mods, confirm that the dependency layer is actively initialized before lower-priority scripts load.
User Configuration & System Initialization
Following the initial system launch loop, the framework creates a localized configuration document to manage low-level initialization variables.
MelonPreferences.cfg Parameters
Users can open the generated configuration text script inside their main platform directory using standard text editing utilities. Modifying these Boolean settings alters internal system behavior parameters immediately upon execution:
| Variable Entry | Default Value | Functional Definition |
|---|---|---|
| SkipIntro | false |
When changed to true, the proxy loop bypasses the introductory developer credit splash sequences to achieve shortened loading workflows.
|
| LoggingMode | false | Enables localized console warning printouts. Enabling this allows tracking detailed background exception sequences, variable data updates, and dependency mappings inside the modding console. |
Configuration Rules: Do not add custom trailing text format patterns or extra line spaces inside the configuration strings. If file file execution anomalies occur due to syntax structural corruption, deleting the configuration entry entirely will force the active assembly framework to safely rebuild a clean default file on the subsequent launch cycle.
Developer Integration & Assembly Referencing
For mod authors creating upstream scripts or visual menus, proper integration requires linking specific class assemblies within your C# compilation setup.
C# Development & Environment Setup
To call the universal menu controls or subscribe to physics event hooks, downstream software projects must establish a direct local reference link to the underlying binary assembly file. Adhere to these architectural implementation standards:
- Namespace Declaration: Include the designated proxy namespace blocks at the header layer of your source code file to clear reference tracking boundaries.
- Compiler Target Mapping: Map your development framework dependencies to coordinate directly with the active runtime execution model utilized by the host environment.
- Safe Exception Mitigation: Wrap dynamic custom script routines inside isolated conditional checks to prevent premature assembly execution if references are temporarily missing inside the user environment.
using BoneLib;
using BoneLib.BoneMenu;
Source Code Transparency: All foundational classes, property access methods, and dynamic interface handlers conform strictly to open-source repository conditions. Modifications looking to extend the base code library must structure adjustments cleanly via safe internal hooks to retain full cross-platform compatibility.
Open-Source Compliance & Architecture Evolution
As a transparent community-driven framework, the library functions under strict distribution protocols ensuring code modifications remain globally accessible.
GPL-3.0 Licensing Model
The software package is fundamentally categorized under the GNU General Public License v3.0. This framework guarantees that any derivative modules, extended menu tools, or downstream script alterations interacting with the core engine wrappers must remain entirely free, cooperative, and un-obfuscated.
Independent Maintenance
Maintained by an active constellation of independent modding experts and C# repository contributors, the codebase undergoes iterative validation sweeps. This communal pipeline ensures that pointer addresses, object layers, and runtime events update systematically following major game version transitions.
Engine Event Lifecycle & Execution Flow
The underlying library executes complex code-level tracking tasks by neatly aligning its script proxies with the host engine’s native execution cycles.
Understanding the chronological sequence of background operations helps downstream creators build more predictable modifications. The internal execution mapping coordinates structural checks across distinct lifecycle phases:
Phase 1: Bootstrapping & Preferences Read
As the application main process memory space mounts, the mod loader initializes the proxy assembly. The framework immediately opens the configuration paths to fetch custom user parameters, determining whether to suppress introduction graphics sequence pointers.
Phase 2: Scene Transition & Vector Verification
Whenever a virtual level partition load command finishes executing, the framework runs defensive reference sweeps. It maps active item placement nodes and locates the new position arrays belonging to the player’s interactable limb targets.
Phase 3: Operational Loop Hooking
During the repeating evaluation intervals, the library passes runtime data events—such as damage changes, health drops, and tool usage metrics—down into active community script listeners, maintaining fluid data continuity without stalling physics rendering steps.
By utilizing this structured sequence instead of unmanaged background threads, execution risks are minimized.
Cross-Architecture Hardware Considerations
The core assembly layout implements comprehensive abstraction systems to manage operational disparities between major silicon compute microarchitectures.
x86-64 Desktop Environments
When deployed on standard Windows desktop setups running high-fidelity PCVR equipment, the proxy code references typical unmanaged pointer execution rules. This pathway utilizes the extensive processing overhead provided by multi-core workstation units to manage large data maps and intensive vector calculation arrays smoothly.
ARM64 Standalone Chipsets
For Android-based independent headsets like the Meta Quest 2, 3, or Pro, the framework runs inside a strictly optimized mobile environment layer. Because mobile processing hardware relies on streamlined reduced-instruction pipelines, the library enforces precise structural garbage collection rules to keep runtime memory clean and steady.
Compilation Transparency: Even though the compiled assembly operates as a single cross-platform entity, ensure your host loader program corresponds perfectly to your hardware platform. Incorrect injection techniques on either architecture will result in immediate module rejection signatures inside the log diagnostics.
Technical Capabilities: Native SDK vs. Code Injection
Understanding the structural boundaries between standard asset implementations and baseline assembly code hook modifications.
While the official creation utilities provide stable pipelines for compiling asset files, texture packs, and static mesh shapes, they enforce strict limitations on script executions. Utilizing a runtime proxy framework like BoneLib unlocks deep code-injection capabilities:
| Capability Layer | Standard Native SDK Bounds | Extended Code Hook Methods (BoneLib) |
|---|---|---|
| User Interface | Limited to native spawnable radial wheels and pre-baked interactive physics dashboards. | Generates dynamic BoneMenu overlays containing real-time values, string selectors, and color toggles. |
| Data Interception | Restricted to standard entity tracking and localized event trigger box coordinates. | Hooks directly into active memory streams to intercept player positioning arrays and dynamic physics variables. |
| Weapon Controls | Relies entirely on fixed simulation properties assigned inside the editor package. | Enables direct modifications of cycling parameters (RPM), velocity constants, and direct damage calculations. |
| Network Logic | No native implementation for managing unauthenticated cross-play multiplayer syncs. | Serves as the mandatory prerequisite bridge to handle system state calls for external networking frameworks. |
Architectural Synergy: These frameworks do not operate in opposition. Advanced custom script projects frequently use official utilities to compile physical asset models, while simultaneously deploying proxy code structures to oversee data flow and control engine mechanics.
Structural Troubleshooting & FAQ
Review these documented diagnostic resolutions regarding execution crashes, missing menu arrays, configuration anomalies, or cross-platform loader framework initialization failures.
❓ Why is the custom BoneMenu interface failing to appear during gameplay?
This behavior primarily indicates a blocked initial generation cycle. The assembly must complete one full application launch sequence to establish internal data directories and configurations. If the interface remains absent after a complete environment restart, confirm your root loader framework (such as MelonLoader on PC or LemonLoader on Android Standalone) is functioning cleanly without trace dependency loop errors or permission blocks.
❓ My console logs display fatal NullReferenceException crashes. What causes this?
These specific pointer crash loops occur when obsolete legacy versions of the library attempt to locate missing physics terrain hooks or character reference vectors within the runtime memory. Utilizing outdated binary code layers against modern game application patches causes direct namespace execution conflicts. Upgrading the core binary to the current v3.2.1 stable compilation reliably resolves these nullable parameter mapping failures.
❓ How can I verify if the library assembly has successfully initialized at startup?
You can confirm full initialization via two metrics. First, check the diagnostic console terminal output during the application boot phase; a successful initialization will log a clean assembly loading confirmation line. Second, verify if the localized configuration document has generated automatically within your preference folders. If these entries exist, the proxy class framework is active in the background.
❓ Are the binary files identical for both SteamVR and Standalone Meta Quest headsets?
Yes, the underlying compiled binary structure contains unified internal conditional execution parameters to handle multi-platform calls dynamically. However, your deployment destinations and target directory mappings will differ vastly. Desktop systems require a standard plugins folder approach, whereas standalone Android files must be positioned inside specialized application package paths.
❓ Will installing this proxy class framework degrade overall simulation framerates?
No. The infrastructure acts entirely as a lightweight event gateway layer. By precise architectural design, the class extension rules enforce strict optimization paradigms to prevent heavy code polling loops within the main engine tick cycle. Unless a poorly written secondary mod constantly triggers intensive data fetching tasks through the API vectors, running this framework will not impact game stability or frame processing times.
All original C# repositories, namespace logic, project files, and GPL-3.0 open-source distribution protocols belong entirely to the respective community development team and original author.
Ready to Configure Your Assembly Environment?
Advance to the dedicated distribution area to map your cross-platform file directories, verify stable binary version historical updates, and read the structured implementation manuals.