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Rust - Recent advances in performance, safety and ecosystem development

Rust is a programming language that has grown in popularity since its release in 2010 due to its ability to provide secure, powerful, and concurrent programming. In this article, we will discuss recent advances in Rust, including significant improvements in performance, security, and development environment. We will accompany each chapter with a code example to illustrate the concepts.

Icon of Rust on a rusty background

Table of Content

Progress in performance

Rust has made significant advances in performance in recent years, particularly in terms of runtime and compile time. Rust's performance is often on par with or even better than other system programming languages such as C++ and C. One of the main reasons for this is the ownership model, which enforces unique and valid references to memory, allowing the language to avoid many types of errors and improve cache locality. The following code example shows how Rust's ownership model can be used to improve performance:

In the code above, Rust uses the borrow operator & to create a reference to the record vector that allows the program to access the data without having ownership over it. This improves performance by avoiding unnecessary data copies and reducing cache invalidations.

In addition, Rust uses LLVM as a backend compiler, which enables the generation of highly optimized machine code. Furthermore, the introduction of incremental compilation in Rust improves developer productivity by reducing the time required for recompilation.

Progress in safety and security

Another area where Rust has made remarkable progress is security. Rust was designed from the ground up to enable safe and concurrent programming. The language achieves this through a rich type system and an ownership model that prevents data races and other concurrency problems. The following code example shows how Rust's Lifetime Annotation safety feature works:

The add_one function takes a mutable reference of type i32, which ensures that the reference is not used outside the scope in which it was created to avoid potential data races.

Rust also has a number of built-in security features such as lifetime annotations and the Borrow Checker, which ensure that memory remains valid during runtime. Rust's Borrow Checker system ensures that memory is safely released when it is no longer needed, preventing memory leaks and segmentation faults.

In addition, Rust's macro system enables metaprogramming, which allows the development of safe and repeatable code, as shown in the following example:

In this example, a custom macro rule is created that provides a new vector syntax. The macro rule allows developers to quickly create vectors without having to deal with the syntax of Vec::new() and push(). This can lead to safer code as vectors are initialized correctly and the risk of errors is minimized.

Progress in development and the community

Rust has a strong and growing community that has developed a variety of tools and resources to facilitate development in Rust. The community has also contributed to the development of third-party libraries and frameworks that enable developers to quickly and efficiently create security-oriented code. The following example shows the use of the "rand" library, which is commonly used to generate random numbers:

In this example, the "rand" library is used to generate a random number between 1 and 10. The library was developed by the Rust community to facilitate commonly used functions such as random number generation.

The Rust community also has a strong commitment to code security and quality. The Rust RFC process allows the community to influence language development and contribute to language improvement. In addition, Rust has a strong system of package repositories and build tools to increase code reusability and portability of Rust programs.


Rust has made significant progress in recent years and is now a powerful and promising programming language that offers both security and performance. The features of the language, including its ownership model and type system, are important factors in improving Rust's performance and security. The active and growing community has also helped expand the Rust ecosystem by developing tools and libraries to facilitate development in Rust and improve code reusability. The programming language is ideal for systems programming, game development, and machine learning. Rust is an excellent choice for developers looking for a reliable, efficient, and secure programming language suitable for the needs of modern applications.



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