API Design That Actually Scales
Patterns from production systems, not textbooks.
How we choose technology stacks, integrate external services, and ship applications that hold up under real-world load.
When someone asks "what stack should we use?" - they deserve better than "React and Next.js" followed by a shrug. Technology choices compound. The framework you pick affects hiring, maintenance costs, and what you can build five years from now.
We spend a lot of time staying current on what actually works in production, not just what has momentum on Twitter. And we've developed some strong opinions about when the defaults are wrong.
When a client comes to us with a project, we don't start with "we use React." We start with questions: What does your team know? What's your budget for infrastructure? How important is time-to-market versus long-term flexibility? What's the realistic traffic profile?
These conversations reveal constraints that matter more than framework benchmarks. A Laravel shop building a new product should probably use Laravel with Livewire, not pivot to a JavaScript ecosystem they'll struggle to maintain. A team obsessed with type safety and future flexibility might benefit from newer options that avoid vendor lock-in.
We've watched teams waste six months learning a stack that wasn't right for their constraints. The "modern" choice isn't always the right choice.
The best stack is the one your team can build, deploy, debug at 2am, and hire for. Technical elegance means nothing if you can't ship or sustain it.
We actively track what works in production, including options that challenge conventional wisdom. The "just use Next.js" answer is lazy. Here's when we recommend something else:
Framework popularity is not a proxy for suitability. We evaluate options based on your specific constraints, not industry defaults. The "everyone uses X" argument has cost teams millions in technical debt.
Modern production systems rarely exist in isolation. A typical application we build integrates with AI APIs for content generation, a CRM for customer data, a payment processor, external analytics, and several domain-specific services. Your application becomes an orchestration layer - and that changes everything.
This means your code isn't the whole system. It's the glue between services, each with their own latency profiles, failure modes, and cost structures. When something breaks, it's usually at a boundary you don't control.
Not everything is request-response. When you integrate with services that take seconds or minutes to complete, or when you need to process data in bulk, synchronous patterns break down. And this is where we see the most production bugs.
The async boundary is where most production bugs hide. Race conditions, duplicate processing, lost jobs - they all live here. Invest in observability for your queue infrastructure before you need it.
Infrastructure decisions affect your monthly bill in ways that compound over time. We've seen teams pay ten times more than necessary because nobody thought about cost when choosing architecture. And once you're in production, moving to cheaper infrastructure is technically possible but rarely happens.
We review infrastructure costs as part of architecture design, not as an afterthought when the bill arrives. The time to optimize is before you're locked into a platform.
Shipping a production system involves more than getting features working locally. The last 20% of reliability work often takes 80% of the effort - but it's what separates applications that work from applications that keep working.
Production readiness isn't a checkbox. It's a continuous practice of identifying failure modes and building resilience against them.
Patterns from production systems, not textbooks.
A practical guide to system integration patterns, error handling, and the decisions that determine whether your integrations help or hurt.