The AI company is not an org chart; it's a graph of loops
Organizations should replace static job-function silos with loop primitives as the unit of design; strategy becomes defining the loop, its metric, and its human bridge rather than assigning people to tasks.
AngleArchitectural reframing for how companies are structured and where ambitious builders should direct engineering effort.
Source video ↗Stop building approval workflows; build plateau escalations
Human-in-the-loop systems fail when humans are treated as checkpoints inside the execution loop; they should be escalations at plateaus where the agent has exhausted its current objective and needs a new hill.
AngleA design pattern critique of current agentic workflow products and reliability engineering.
Source video ↗Frontier-model default is the hidden tax on agentic companies
Agentic companies that route every loop invocation to a frontier model are paying an irrational premium; model choice should be a per-loop infrastructure decision with cost-quality evaluation built into the loop.
AngleEngineering economics and inference infrastructure strategy.
Source video ↗Consumer AI should design for time well spent, not time saved
The winning consumer AI products will be those that create loops people want to return to, not those that optimize task efficiency; measuring product success on happiness and voluntary return is a product design discipline, not an afterthought.
AngleProduct design and consumer AI go-to-market strategy.
Source video ↗LoopPlateau
beyond-evalsAn autonomous coding loop can produce a reliable plateau signal (stagnating PR acceptance, declining self-improvement, or output churn) that triggers a human retargeting event and materially improves outcomes compared with step-by-step human review or random interventions.
Proof of conceptInstrument a bug-fix-to-PR agent loop on a set of synthetic and sample repositories; run three policies: no human until plateau signal, human approval at every step, and random human intervention. At plateau, give the human only a retargeting prompt.
MeasurementNumber of merged PRs, goal attainment per run, cost per merged PR, and precision/recall of the plateau signal against human-labeled plateaus and intervention outcomes.
Source video ↗LoopKit
newA minimal loop abstraction with run, measure, plateau, human-retarget, and compose primitives can express both an engineering coding workflow and a growth testing workflow with less bespoke code and clearer fault boundaries than a conventional agent/DAG framework.
Proof of conceptBuild LoopKit and implement two parallel workflows: a coding loop (bug-fix to PR to human review) and a growth variant-generation-and-testing loop, each with local optimizer and human bridge.
MeasurementLines of code required to express each workflow, time to change an objective, number of human interventions per completed task, and parity of output quality with hand-written orchestration.
Source video ↗DesireLoop
movement-labA consumer AI loop optimized for user-reported enjoyment and felt progress will produce higher voluntary return and retention than an equivalent loop optimized for task speed or output quality.
Proof of conceptBuild a small consumer 'make me happier' loop (e.g., creative generator with reflection) in two variants: one framed around efficiency and task completion, one framed around emotional progress and fun. Run a two-armed study with volunteer users for two weeks.
MeasurementD7 voluntary return rate, session count, self-reported mood shift, perceived progress, and correlation between task efficiency and retention.
Source video ↗LoopModelRouter
gatehouseFor at least three recurring loop archetypes (code modification, growth copy testing, and support drafting), a router that selects between frontier and open-weight models based on per-loop quality bands will reduce inference cost by at least 40% while staying within 5% of frontier-model acceptance quality.
Proof of conceptRun 200 task instances per archetype on frontier and candidate open-weight models, collect proxy quality labels, train a deterministic router on task features, and simulate routing versus all-frontier within end-to-end loop execution.
MeasurementInference cost per task, task quality pass rate, router agreement with best available model, and end-to-end loop ROI.
Source video ↗