Explicit thumbs-up ratings are a lie. Edit rates, retry patterns, and session abandonment reveal far more about AI quality — and you can turn them into eval datasets without an annotation budget.
Frontier models score impressively on standard benchmarks, but contamination — where test data leaks into pretraining — inflates those numbers significantly. Here's what the gap actually looks like and how to design evaluations that give honest signals.
The 'fix the prompt' reflex is displacing real root cause analysis in AI incident postmortems. Here's why it happens and how to apply blameless SRE culture to non-deterministic systems.
Most AI governance writing targets MLOps teams. But five strategic decisions can only be made at the board level — and the regulatory exposure for getting them wrong is growing fast.
Browser and computer-use AI agents break in ways that neither benchmarks nor demos reveal. Here's what actually causes failures in production and the architectural patterns that keep them running.
AI inference workloads respond to traffic spikes differently than conventional APIs — cold KV caches, minutes-long cold starts, and memory-bounded concurrency make reactive autoscaling fail. Here's the capacity planning math, pre-warming strategies, and graceful degradation modes that actually work.
When you upgrade to a newer frontier model, specific capabilities your product depends on can silently regress. Here's why safety training causes this, how to detect it, and techniques to recover suppressed behaviors without fine-tuning.
Traditional provisioning models fail for LLM workloads. Here's the forecasting methodology that accounts for token burstiness, KV cache pressure, and why GPU utilization is a misleading signal.
Real-time AI suggestions paradoxically increase cognitive load by shifting work from generation to verification. Here's the research and the design patterns that actually help.
Context compaction silently drops the failure records and constraint information that prevent agents from re-attempting operations they already know won't work. Here's how to design around it.
Composing retrievers, rerankers, code interpreters, classifiers, and LLMs into pipelines that reliably outperform any single component — and the emergent failure modes that appear when you don't engineer the seams.
Teams routinely pack codebases, histories, and documents into context and absorb the cost and quality degradation without measuring it. Here's why LLM context deserves the same explicit management as CPU registers — and how to build eviction policies that make it work.