Peak Performance: Why Alignment Needs a Sense of Timing
A mechanism-first reading of APEMO, a runtime orchestration layer that treats long-horizon AI alignment as a problem of timing, recovery, and compute placement.
A mechanism-first reading of APEMO, a runtime orchestration layer that treats long-horizon AI alignment as a problem of timing, recovery, and compute placement.
A mechanism-first reading of how topology-preserving maps can reveal hidden age and income structure in supposedly neutral unsupervised embeddings.
A mechanism-first reading of why cross-embodiment offline reinforcement learning can benefit from messy robot data, and why morphology-aware grouping matters when robots start pulling the policy in opposite directions.
A comparison-based guide to when single-agent, two-agent, multi-agent, and dynamic LLM data-science systems actually make business sense.
A clearer look at why model reasoning is moving from longer explanations to internal verification, self-critique, and branch-level self-improvement.
CEDAR shows why useful AI data science systems depend less on magical prompting and more on structured context, local execution, agent routing, and inspectable workflows.
A mechanism-first reading of ShapefileGPT and what it teaches businesses about reliable domain-specific AI agents.
A practical autonomy map for separating ordinary data copilots from supervised workflow agents, proactive data operators, and still-speculative autonomous data scientists.
How the huff Python package turns classic market-area theory into an open, calibratable workflow for retail, healthcare, and spatial service planning.
OpenSage shows why the next bottleneck in business automation may be agent infrastructure: systems that let models create sub-agents, tools, and structured memory at runtime.