Part 1: Go System Design — CAP, PACELC & Clean Architecture Primer

Series Hub: System Design Masterclass | Next Chapter: Part 2: L4/L7 Load Balancing, API Gateways & eBPF Routing → Prerequisite: This is Part 1 of the System Design Masterclass series. Familiarity with basic distributed systems concepts and Go syntax is assumed. Answer-first: System design in Go balances CAP and PACELC trade-offs across consistency, availability, and latency. Clean Architecture isolates core business logic behind strict Go interfaces, while dependency injection decouples domain entities from database and transport protocols. Deploying this pattern guarantees sub-50ms P99 latency bounds, zero-allocation memory pooling, and resilient microservice state synchronization. ...

Part 3: Go + Kratos v2 Framework Deep Dive: Microservice Anatomy

← Previous Chapter: Part 2: Rush Monorepo | Series Hub | Next Chapter: Part 4: gRPC Internal + REST Gateway → Answer-first: Go-Kratos v2 provides a battle-tested microservice foundation combining Clean Architecture layers (Server, Service, Biz, Data), Google Wire compile-time dependency injection, and dual gRPC/HTTP protocol handlers. When building 21 microservices, consistency across codebases is paramount. If each service adopts a different folder structure, error handling paradigm, or logging format, developer onboarding becomes a nightmare. ...

Tech Radar: Kratos v2.9 & Dapr 1.15: Virtual Actors, Distributed Workflows & Resilience Patterns for High-Throughput Microservices in Go 1.25

Tech Radar: Kratos v2.9 & Dapr 1.15: Virtual Actors, Distributed Workflows & Resilience Patterns for High-Throughput Microservices in Go 1.25 Answer-First: Building high-throughput microservices capable of exceeding 150K RPS requires decoupling business domain logic from distributed infrastructure complexity. Go 1.25 combined with Kratos v2.9 establishes strict Clean Architecture boundaries with zero database leakage, while Dapr 1.15 offloads virtual actor concurrency, durable workflow sagas, and state resilience to high-performance localhost sidecars, reducing distributed coordination latency by 68% and eliminating manual mutex deadlocks. ...