01
Foundation
Ecosystem, compute, runtime and adaptation foundations; explore programming foundations in POL and experiment with GEX, TFL and ADP.
AI Learning System
Explore how AI systems work through research, applications, and hands-on experiments. Follow five connected layers from compute and models to agents, deployment, and physical AI. Connect ideas, test what you learn, and use it to build your next project.
Scroll down to explore the five layers →
01
Ecosystem, compute, runtime and adaptation foundations; explore programming foundations in POL and experiment with GEX, TFL and ADP.
02
Study how agents reason, use context, tools and computer environments; turn research into open-source runtimes and reusable components.
hnsHarness Engineering Observatory opens in a new tabarlARL — Agent Runtime LaboratorySub-application of HNS. opens in a new tabdplDPL — Decision Plane LaboratorySystem One ↔ System TwoSub-application of HNS. opens in a new tabculCUL — Computer Use LaboratorySub-application of HNS. opens in a new tabaosAgent Operating SystemOpen-source agent runtimeSub-application of HNS. opens in a new tabctxContext & Knowledge Engineering opens in a new tab03
Security and evaluation contracts for bounded, reviewable behavior.
04
Study local and cloud options in LCL and CLD; test workload, memory, privacy and cost assumptions in DCL.
05
World models and swarm research meet WML and ANT / BEE experiments, PDT pump twins, digital triplets, and humanoid exploration.
Indented applications belong to the application above them.
AI Learning System · connected paths
Each application explores a different part of building AI. The diagram connects them into a learning loop: understand compute and models, build agent systems, and test how they behave. Compare local and cloud deployment, then explore world models, swarm intelligence, and colony experiments. These paths inform digital twins and the longer-term goal of open humanoid engineering. Each experiment brings new questions and lessons back to the starting point.
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From research to hands-on learning
Follow each research application into its companion learning experience. These links describe learning relationships; each application runs independently.
GPU → POLLive · English only
English-only comparisons of the same tasks across programming languages: types, memory, paradigms and concurrency. Programming foundations that support GPU learning, but are not limited to GPU. Executed examples and hand-reviewed examples remain distinct.
Research · GPU ↗ opens in a new tab Explore · POL ↗ opens in a new tabGPU → GEXLive
Trace GPU anatomy, kernel launches, warp masks, memory access, and matrix tiles through six interactive lessons. Results come from an educational execution model, not profiler measurements.
Research · GPU ↗ opens in a new tab Explore · GEX ↗ opens in a new tabLLM → TFLLive
Follow a simulated request through queueing, prefill, KV cache, decode and token delivery. Compare scheduling and batching trade-offs; timings and outputs are illustrative, not measured inference.
Research · LLM ↗ opens in a new tab Explore · TFL ↗ opens in a new tabHNS → ARLLive
Inspect a deterministic agent run through harness, context, security and evaluation lenses. Explore tool use, evidence and one-use approval; all actions remain inside the simulation.
Research · HNS ↗ opens in a new tab Explore · ARL ↗ opens in a new tabUSL → ADPLive
Explore Full FT, LoRA and QLoRA through parameter counts, memory estimates, data preparation and synthetic training/evaluation experiments. USL provides the adaptation foundation; no real model is trained.
Research · USL ↗ opens in a new tab Explore · ADP ↗ opens in a new tabWFM → WMLLive
Explore observation, belief, prediction, planning, and counterfactual branches in WFM’s experiment laboratory. Compare three hand-coded predictors against a simulated world; these are not trained foundation models.
Research · WFM ↗ opens in a new tab Explore · WML ↗ opens in a new tabITL → PDTLive
Inspect a centrifugal pump, its components, and condition scenarios as an Industrial Twin Lab teaching exhibit. Geometry is simplified and all condition signals are synthetic.
Research · ITL ↗ opens in a new tab Explore · PDT ↗ opens in a new tabENG → HEXLive
Explore humanoid structure, joints, actuation, sensors, and power/data paths through ENG’s interactive 3D learning object. Movements are kinematic teaching aids, with no asserted dynamics or hardware performance.
Research · ENG ↗ opens in a new tab Explore · HEX ↗ opens in a new tabCLD + LCL → DCLLive
The shared laboratory of CLD and LCL. Compare local hardware, cloud GPUs, managed inference and token APIs against workload, memory, privacy and cost assumptions. Hard constraints and educational estimates explain conditional choices; no live pricing or universal winner is claimed.
Research · CLD ↗ opens in a new tab Research · LCL ↗ opens in a new tab Explore · DCL ↗ opens in a new tab