Go Concurrency Patterns(Rate Limiting Pattern)

The Rate Limiting pattern regulates operation frequency to prevent system overload and ensure fair usage. It includes Fixed Rate Limiting, using time.Ticker, and Token Bucket Rate Limiting for burst requests. Both methods enhance system stability, protect resources, and can be implemented efficiently, supporting diverse API and security needs. Continue reading →

Go Concurrency Patterns(Timeouts and Cancellation Pattern)

The Timeouts and Cancellation pattern in Go utilizes context and channels to manage concurrent operations effectively. It prevents indefinite goroutine execution, facilitates resource cleanup, and maintains application responsiveness. Key techniques include context-based timeouts, channel timeouts, and manual cancellation, each demonstrated through practical examples in the code. Continue reading →

Go Concurrency Patterns(Publish-Subscribe (Pub/Sub) Pattern)

Overview The Publish-Subscribe (Pub/Sub) pattern decouples message producers (publishers) from consumers (subscribers). Publishers send messages to a topic or channel, and all subscribers to that topic receive the messages. This pattern is essential for event-driven architectures, broadcasting messages to multiple consumers, and decoupling senders and receivers. NOTE: For other posts on concurrency patterns, check out... Continue reading →

Go Concurrency Patterns(Supervisor/Restart Pattern)

The Supervisor/Restart pattern features a supervisor goroutine that monitors worker goroutines, restarting them if they fail. The implementation includes components for monitoring, managing failures, and ensuring continuous operation, employing channels for synchronization and atomic counters for tracking restarts. This model supports building resilient and fault-tolerant systems. Continue reading →

Go Concurrency Patterns(Producer-Consumer Pattern)

The Producer-Consumer pattern separates data production from consumption through a shared buffer, allowing multiple producers to create data and multiple consumers to process it. This implementation enables handling of varying work rates and bursts efficiently, improves load balancing, and allows for graceful shutdowns, preventing resource leaks. Continue reading →