A lightweight, dependency-free library for binding Lua to C++.
LuaBridge is a lightweight, dependency-free library that facilitates bidirectional communication between C++ and Lua. It allows developers to expose C++ data, functions, and classes to Lua scripts and vice versa, enabling Lua to be used as an embedded scripting language within C++ applications. This solves the problem of integrating flexible scripting capabilities into performance-critical C++ codebases.
C++ developers who need to embed Lua scripting into their applications, particularly in domains like game development, tools, or applications requiring runtime extensibility. It's also suitable for projects seeking a minimal, no-dependency binding solution.
Developers choose LuaBridge for its simplicity, headers-only design, and lack of external dependencies. Unlike heavier alternatives, it offers a straightforward, type-safe API without requiring complex build systems or additional libraries, making it easy to integrate and maintain.
A lightweight, dependency-free library for binding Lua to C++
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Just include header files without any compilation or build system changes, as highlighted in the README, making integration straightforward and build-system agnostic.
Does not require external libraries like Boost, reducing project complexity and potential dependency conflicts, which is a core philosophy stated in the README.
Provides convenient and safe manipulation of the Lua stack, minimizing runtime type errors and simplifying interoperability between C++ and Lua.
Automatically handles function parameter type conversion between C++ and Lua, reducing boilerplate code when exposing APIs, as noted in the features list.
Requires explicit code to expose each C++ class or function to Lua, which can be tedious and time-consuming for large or complex codebases.
Focuses on core functionality without built-in support for advanced interoperability like serialization, multi-language bindings, or automated reflection.
Binding sophisticated C++ features such as templates or multiple inheritance may require additional boilerplate code compared to more automated solutions.