Diagnosing Memory Corruption with ARM64 Memory Tagging Extension (MTE)
Learn how to use ARM64 Memory Tagging Extension (MTE) to detect heap buffer overflows and use-after-free errors with hardware-accelerated precision.
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Learn how to use ARM64 Memory Tagging Extension (MTE) to detect heap buffer overflows and use-after-free errors with hardware-accelerated precision.
Learn how ARM64's Memory Tagging Extension (MTE) turns hardware tags into immediate exceptions for out‑of‑bounds accesses, and how to enable and verify it in Linux.
Learn how to diagnose and fix ownership and borrowing errors in Jule. This guide covers use-after-move scenarios, lifetime mismatches, and bounds-checking failures.
Learn how to implement ARM64 Memory Tagging Extension (MTE) to detect buffer overflows and use-after-free errors using hardware-level tag validation.
Learn how Rust achieves memory safety without a garbage collector through its ownership, borrowing, and lifetime systems, and how to avoid common borrow checker pitfalls.
Carbon aims to provide a bidirectional bridge with C++ while maintaining a memory safety model through its default 'safe' dialect. This model restricts pointer arithmetic and unchecked memory access to prevent common vulnerabilities found in manual memory management. When integrating Carbon with legacy C++ code, the language must reconcile its strict type sy
In C (ISO/IEC 9899), pointer arithmetic is permitted within the bounds of an array, including one element past the end. However, dereferencing a pointer that has moved beyond this boundary triggers Undefined Behavior (UB). A specific concern arises when compiler optimizations (such as -O2 or -O3 ) are applied. Because the compiler assumes UB never occurs, it
Context I am evaluating Carbon (the experimental C++ successor language) for a gradual migration of an existing C++ codebase. The design goal under review is how Carbon's memory-safety model interacts with its bidirectional C++ interoperability, specifically when ownership of an object crosses the language boundary. Uncertainty Carbon aims to reduce classic
Transitioning to Native Async Traits The stabilization of async fn in traits (AFIT) in Rust 1.75 allows developers to define asynchronous methods directly within traits without relying on the #[async_trait] macro. This change moves the implementation from a boxing-based approach to a compiler-generated state machine. While native support reduces dependency o