Rust is safe. Rust is fast. Rust is powerful. And Rust is… sometimes completely unreadable.

I genuinely can’t understand how anybody could look at the mess that’s Rust’s async and think that it was a good design for a language that already had the reputation of being very complicated to write.

Async Rust is powerful. And it can be a pain to work with (and learn). Async Rust can be a pleasure to work with, though, if we can do it without `Send + Sync + 'static`.

In a wide-ranging conversation with Verizon open-source officer Dirk Hohndel, 'plodding engineer' Linus Torvalds discussed where Linux is today and where it may go tomorrow.

This book by Mara Bos explores Rust programming language's concurrency features, including atomics, locks, and memory ordering. Readers will gain a practical understanding of low-level concurrency in Rust, covering topics like mutexes and condition variables. The book provides insights on implementing correct concurrency code and building custom locking and synchronization mechanisms.

The Rust compiler processes and transforms your code for compilation. It uses different stages like lexing, parsing, and abstract syntax tree lowering. The compiler aims for correctness, performance, and supporting incremental compilation.

The text discusses limitations of the Rust borrow checker and proposes solutions for creating references that borrow from specific subsets of a type. Two approaches, "View types" and "Reference views," are explored to address these limitations and provide more flexibility in borrowing subsets of fields with different lifetimes and mutability. The discussion includes examples, subtyping implications, monomorphization considerations, and the need to update Rust's aliasing model to accommodate view references accessing discontiguous memory regions.

An article criticized Rust's gamedev hype, but its popularity stems from meeting modern programming needs like speed and safety. Efforts are underway to enhance Rust's capabilities for various industries and improve compile times significantly. Proposed enhancements include incremental linking, parallel frontend, and macro expansion caching to make Rust more efficient for developers.

Zig is simpler than Rust and offers similar features through compile-time execution. Rust provides strong type safety guarantees for generic functions, while Zig lacks automatic type constraint documentation and may face challenges with IDE support. Zig excels in custom allocators and handling out-of-memory errors, while Rust excels in preventing memory leaks and resource management.

The author shares experiences with Rust, praising cargo and crates.io for easy code distribution. They highlight the need for improved library discovery on crates.io and discuss the potential for better IDE support in Rust projects. Despite challenges like type inference, Rust's design enables advanced IDE features that can enhance coding efficiency.

The Rustonomicon is a book for understanding Unsafe Rust programming details. It complements The Rust Programming Language by delving into combining language pieces and potential issues. The book covers topics like (un)safety, creating safe abstractions with unsafe primitives, and working with memory, but does not provide exhaustive API details.

The text discusses improvements to Rust's borrow checker to align better with its core design ethos of mutation xor sharing. These changes aim to make Rust code patterns feel more intuitive and work seamlessly with the borrow checker's rules. The proposed enhancements include features like conditional return references, view types, and addressing phased initialization issues.

The author preferred certain design choices in early Rust over the current state, such as the treatment of certain language features and performance considerations. They express a desire for a simpler, less performance-focused language with different priorities than those commonly held in the Rust community. The author reflects on their preferences for language design and the trade-offs they would have made for a more straightforward and expressive programming experience.

This blog series provides tutorials on creating a small operating system in the Rust programming language. Each post includes all the necessary code and is accompanied by a corresponding GitHub repository. The series covers topics such as creating a Rust executable without linking the standard library, building a bootable disk image, implementing VGA text mode, performing unit and integration testing, handling CPU exceptions, setting up the interrupt descriptor table, implementing paging and heap allocation, and exploring cooperative multitasking and the async/await feature of Rust. The posts also include status updates and information on supporting the author.