moai-lang-rust

Rust's ownership model enforces memory safety at compile time, preventing data races and use-after-free errors. The language guarantees thread-safe concurrency through type-system rules, so unsafe access is caught before runtime. You build concurrent systems by using mutexes and channels with Rust's borrow checker ensuring correctness.

Yes. Tokio provides a runtime for async I/O and task scheduling, letting you build enterprise-grade asynchronous services. You write async functions that the Tokio runtime executes efficiently across multiple threads, handling thousands of concurrent connections with minimal overhead and zero-cost abstractions.

Rust's cargo test runs unit and integration tests built into your codebase; cargo bench measures performance. The tooling integrates directly into your project structure, letting you verify correctness and profile bottlenecks without external dependencies, with results reproducible across systems.

Yes. Rust replaces garbage collection with ownership-based memory management, delivering predictable performance and no pause times. This makes it suitable for latency-sensitive systems where GC stop-the-world pauses are unacceptable, while maintaining memory safety guarantees.

Frameworks like Axum, Rocket, and Warp provide type-safe routing and request handling that prevent common web vulnerabilities at compile time. Your route handlers are checked for correctness before deployment, eliminating entire categories of runtime errors in API design.

Rust's serialization ecosystem supports deriving serialization for structs via libraries like serde, enabling safe conversion to JSON, MessagePack, and other formats. Type-safe serialization prevents injection and deserialization attacks while maintaining performance.