
The AI-First Engineering Team — 30-Day Blog
A 30-day series on what changes when an engineering team — not just an individual engineer — adopts AI as a first-class part of how they work. From culture and workflows to governance and the human side.

A 30-day series on what changes when an engineering team — not just an individual engineer — adopts AI as a first-class part of how they work. From culture and workflows to governance and the human side.

A structured 30-day blog roadmap covering Claude Code, GitHub Copilot, Microsoft Copilot Studio, agentic AI, coding agents, and AI in SDLC — from a Lead AI Engineer with 11 years of experience.
The EU AI Act's general provisions have applied since August 2026 — here's what the law actually requires of engineering teams building AI-powered products, separated from compliance theatre.
Prompts are production code — they change system behavior, they break in production, and they need version control, approval workflows, and rollback capability just like software deployments.
A production LLM gateway is the single ingress for all LLM calls in your organization — handling routing, fallback, semantic caching, spend limits, and audit logging without teams managing provider credentials directly.
An internal AI platform is the shared infrastructure AI-augmented product teams build on — here's what components it needs, what to build vs buy, and how to avoid the platform team trap.
Multi-agent systems are harder to test than single-agent systems — non-determinism, agent interdependencies, and emergent behavior require testing strategies that go beyond unit tests and assertion-based checks.
Without a registry, multi-agent systems become a discovery problem — engineers build agents nobody knows about, orchestrators hardcode specialist URLs, and governance is impossible; a registry fixes all three.
Multi-agent systems fail in more ways than single-agent systems — specialist timeouts, partial results, cascading failures, and context overflow each need different handling patterns.
Orchestration gives you control and observability at the cost of a central bottleneck; choreography gives you scale and resilience at the cost of debuggability — both are right for different problems.