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https://erlang.org redirected to https//www.erlang.org during the time we crawled it. Erlang is a programming language designed for building scalable, fault-tolerant, distributed systems. It was developed by Ericsson and is known for its concurrency and reliability features. Erlang is particularly popular in telecommunications, financial services, and other industries where high availability and fault tolerance are critical. The language is open-source and has a strong community of developers and users. Key Features of Erlang: Concurrency: Erlang is designed for concurrent, real-time applications. It uses lightweight processes (not to be confused with operating system processes) that are managed by the Erlang runtime. These processes are isolated from each other and communicate through message passing. Fault Tolerance: Erlang has built-in support for fault tolerance. If a process fails, it can be restarted without affecting the overall system. This is achieved through supervision trees and the "let it crash" philosophy, where failures are isolated and handled at the process level. Distribution: Erlang is designed for distributed computing. It has features for transparently communicating between nodes in a network, allowing for the creation of distributed systems. Soft Real-Time: Erlang is suitable for soft real-time applications, where timely responses are important but not critical to the system's operation. Hot Code Swapping: Erlang supports hot code swapping, which means that code can be updated in a running system without stopping it. This is useful for systems that need to be continuously available. Functional Programming: Erlang is a functional programming language, which means that it emphasizes the use of immutable data and pure functions. This can lead to more predictable and maintainable code. OTP (Open Telecom Platform): OTP is a set of libraries and design principles for building Erlang applications. It provides standard patterns for building fault-tolerant, scalable, and maintainable systems. Pattern Matching: Erlang has powerful pattern matching capabilities, which are used extensively in the language for tasks like message handling and data manipulation. Erlang is often used in combination with other technologies, such as the BEAM virtual machine (which runs Erlang code), the Elixir programming language (which runs on the BEAM and is compatible with Erlang), and various Erlang-based frameworks and tools. Erlang's design and features make it well-suited for building systems that require high availability, fault tolerance, and scalability. It has been used in a wide range of applications, from telecommunications infrastructure to web services and financial systems. The language continues to evolve, with ongoing development and support from the community. In summary, Erlang is a programming language known for its concurrency, fault tolerance, and distributed computing capabilities. It is used in a variety of industries, particularly those with high demands for reliability and scalability. The language's design and features make it well-suited for building soft real-time, fault-tolerant systems, and it has a strong community and ecosystem of related technologies."

• Erlang is a programming language designed for building scalable, fault-tolerant, distributed systems. It was developed by Ericsson and is known for its concurrency and reliability features. Erlang is particularly popular in telecommunications, financial services, and other industries where high availability and fault tolerance are critical. The language is open-source and has a strong community of developers and users. Key Features of Erlang: Concurrency: Erlang is designed for concurrent, real-time applications. It uses lightweight processes (not to be confused with operating system processes) that are managed by the Erlang runtime. These processes are isolated from each other and communicate through message passing. Fault Tolerance: Erlang has built-in support for fault tolerance. If a process fails, it can be restarted without affecting the overall system. This is achieved through supervision trees and the "let it crash" philosophy, where failures are isolated and handled at the process level. Distribution: Erlang is designed for distributed computing. It has features for transparently communicating between nodes in a network, allowing for the creation of distributed systems. Soft Real-Time: Erlang is suitable for soft real-time applications, where timely responses are important but not critical to the system's operation. Hot Code Swapping: Erlang supports hot code swapping, which means that code can be updated in a running system without stopping it. This is useful for systems that need to be continuously available. Functional Programming: Erlang is a functional programming language, which means that it emphasizes the use of immutable data and pure functions. This can lead to more predictable and maintainable code. OTP (Open Telecom Platform): OTP is a set of libraries and design principles for building Erlang applications. It provides standard patterns for building fault-tolerant, scalable, and maintainable systems. Pattern Matching: Erlang has powerful pattern matching capabilities, which are used extensively in the language for tasks like message handling and data manipulation. Erlang is often used in combination with other technologies, such as the BEAM virtual machine (which runs Erlang code), the Elixir programming language (which runs on the BEAM and is compatible with Erlang), and various Erlang-based frameworks and tools. Erlang's design and features make it well-suited for building systems that require high availability, fault tolerance, and scalability. It has been used in a wide range of applications, from telecommunications infrastructure to web services and financial systems. The language continues to evolve, with ongoing development and support from the community. In summary, Erlang is a programming language known for its concurrency, fault tolerance, and distributed computing capabilities. It is used in a variety of industries, particularly those with high demands for reliability and scalability. The language's design and features make it well-suited for building soft real-time, fault-tolerant systems, and it has a strong community and ecosystem of related technologies.