Red

Author
Nenad Rakočević
License
modified BSD and Boost
Active since
2011-01-01
Platforms
Linux, FreeBSD, macOS, Windows, MS-DOS

Introduction to Red

Red is a programming language designed for versatility, efficiency, and simplicity, aiming to be a full-stack language that can handle tasks from low-level systems programming to high-level scripting and application development. Created by Nenad Rakocevic and released in 2011, Red's development was inspired by the Rebol programming language, seeking to overcome some of its limitations while retaining its strengths. One of Red's distinctive features is its ability to compile to native code, allowing it to run directly on various hardware platforms without the need for a virtual machine or interpreter, which makes it suitable for performance-critical applications.

The Red language consists of two main components: Red/System and Red. Red/System is a low-level dialect similar to C, designed for system programming tasks like OS kernel development, device drivers, and other performance-sensitive software. This part of Red is close to the hardware and allows precise control over memory and CPU resources. On the other hand, the high-level Red language is more abstract and easy to use, focusing on productivity and simplicity, which makes it ideal for rapid application development, scripting, and prototyping.

Red also emphasizes cross-platform compatibility, offering the ability to write code that runs on multiple operating systems without modification. It supports a wide range of platforms, including Windows, macOS, Linux, FreeBSD, Android, and MS-DOS. Red's comprehensive standard library, dynamic data types, and highly readable syntax make it accessible to beginners while powerful enough for experienced programmers.

Main usages of Red

The Red programming language is primarily used for developing cross-platform applications, leveraging its ability to compile directly to native code for various operating systems and hardware architectures. This capability makes Red an attractive choice for creating desktop applications, mobile apps, and even embedded systems software. Developers can write their code once and deploy it across different platforms with minimal changes, significantly reducing development time and effort.

In addition to application development, Red is well-suited for scripting and automation tasks. Its concise and expressive syntax allows developers to write scripts that automate repetitive tasks, manage system operations, or manipulate data efficiently. Red’s ease of use and readability make it accessible for writing quick scripts and tools, which can range from simple file manipulation scripts to more complex data processing pipelines.

Another significant usage of Red is in the field of systems programming. Through its low-level dialect, Red/System, developers have the capability to write performance-critical code for operating system kernels, device drivers, and real-time applications. This makes Red suitable for embedded systems development, where efficient resource management and low-level hardware access are crucial.

Authors of Red

The primary author behind the Red programming language is Nenad Rakocevic. With a background in computer science and extensive experience in software development, Nenad set out to create Red as a language that could overcome the limitations he perceived in existing languages, particularly those in the lineage of Rebol. His goal was to design a language that offered both high-level abstraction for rapid development and low-level capabilities for systems programming.

Nenad’s journey with Red began in 2011, drawing from his insights and experiences with Rebol, another language known for its expressive and flexible syntax. He recognized the need for a language that could compile to native code and run efficiently on various platforms without relying on heavy runtimes or virtual machines. Under his leadership, the Red project has grown from a concept into a fully-fledged programming language, gaining a dedicated community of developers who contribute to its evolution.

Current developers of Red

The development process of Red is highly community-driven, with contributions coming from a diverse group of programmers who bring a wide range of expertise and perspectives. These contributors include experienced systems programmers, application developers, and enthusiasts who are passionate about Red's potential. They actively participate in discussions, propose new features, and submit patches and improvements through platforms like GitHub.

Package management systems used in Red

There are no popular package management systems available online for the Red programming language.

Frameworks used in Red

One of the notable frameworks in the Red ecosystem is Red/System, which is more of a subsystem than a framework but plays a crucial role similar to one. Red/System allows developers to write low-level code, providing a C-like syntax and semantics that enable fine-grained control over hardware and system resources. This framework is essential for developing performance-critical applications, such as operating system components, device drivers, and embedded systems, ensuring that Red can be used for a wide range of programming tasks from high-level scripting to low-level systems programming.

Static and dynamic analysis tools used in Red

There are no popular static and dynamic analysis tools available online for the Red programming language.

Testing tools used in Red

Red Quick Test (RQT) is a lightweight and user-friendly testing framework specifically designed for the Red programming language. RQT aims to streamline the testing process by offering an intuitive and minimalistic interface that allows developers to write and execute tests quickly. The framework is built into the Red toolchain, making it readily accessible to developers without the need for additional installations or configurations. With its straightforward syntax and ease of use, RQT enables developers to incorporate testing into their workflows effortlessly, fostering a culture of continuous testing and quality assurance.