Coordination SystemsResearch

All Intelligence is Collective Intelligence

An open book showing a spread about collective intelligence

Collective intelligence is the coordinated accumulation of judgments and capabilities across people, models, programs and memories. No participant contains the whole; each contributes experience, computation or context that the others can use. The intelligence of the system depends on how those contributions are attributed, routed, evaluated and retained over time. Coordination therefore determines what a group can notice, which arrangements it can try, and whether a useful result becomes available for the next attempt.

Our three research programs describe one open-ended ecology at successive points in that process: how communities assign attention, trust and dissent to signals, how specialist models, programs, memories and evaluators become working runtime graphs, and how lessons from those graphs travel while raw experience and authority stay local. None of the three assumes the ecology converges on one model, one memory or one canonical account of the world. All three are tested on work somebody paid for, because the evaluations this research runs on come from client deadlines rather than from benchmarks we wrote ourselves.

Cultural Intelligence

Human knowledge compounds when groups evaluate signals, retain the context of their judgments and pass them on. Cultural Intelligence studies how taste, trust and dissent shape what travels.

Culture begins with signals that people notice, interpret and contest. Taste points shared attention toward what might matter, while valence marks the pull, fit, novelty, belonging or refusal a signal carries for a particular community. Trust compresses a history of situated validation so nobody has to verify everything alone. Together they shape which experiences enter collective consideration, who is prepared to act on them, and what context must remain attached for that judgment to remain intelligible later.

Consensus coordinates action, but it does not turn agreement into truth. Every act of normalisation preserves some distinctions and erases others, and network topology influences the result: who observes whom, whose judgment travels, which relationships confer trust, and where dissent remains legible. A coordination system must therefore represent both convergence and the structure around it. Otherwise a dominant signal can appear universal when it reflects only the position from which the group was measured.

We treat Cultural Intelligence as cumulative social learning. The causal link to the larger thesis is evaluation: compositional systems need signals about whether an arrangement served its participants, and open epistemic networks need reasons to propagate one learning event over another. We gather those signals where judgment is already professional, from panels of credentialed practitioners scoring work blind and from the reviewers a client engagement has to satisfy before anything ships. The research challenge is to make taste, trust and disagreement inspectable without flattening them into a single score or treating engagement as a substitute for judgment.

Research lineage

  1. Herrmann et al. · 2007Humans Have Evolved Specialized Skills of Social Cognition: The Cultural Intelligence HypothesisLocates human cognitive advantage in social knowledge exchange rather than general problem solving alone.
  2. Mesoudi & Thornton · 2018What Is Cumulative Cultural Evolution?Names the loop culture compounds through: innovate, transmit, improve, repeat.
  3. Muthukrishna et al. · 2018The Cultural Brain Hypothesis: How culture drives brain expansion, sociality, and life historyModels the feedback between social learning and how much cognitive capacity a group can sustain.
  4. Golub & Jackson · 2010Naïve Learning in Social Networks and the Wisdom of CrowdsShows how influence and network topology determine whether distributed belief formation approaches truth.

Compositional Intelligence

A model is a component rather than the boundary of a system. Compositional Intelligence studies how models, programs, tools, memories and people form task-specific runtime graphs.

At runtime, one model can call other models, symbolic programs, tools, stored memories and a person. The graph also decides when each component acts, what context it receives and where its output goes. No single part contains the resulting capability, because the useful behaviour depends on an arrangement that crosses their boundaries. This is the software form of collective intelligence: a temporary coalition of specialists whose coordination can be inspected, altered and evaluated as a whole.

The search space is therefore the whole graph: routing, control flow, memory, evaluators and the models themselves. We vary each element, run the resulting assembly, and evaluate its outcome and trace against the evidence a real task produces rather than an intuition about architecture. The assemblies worth comparing are the ones client work generates: a brief that has to ship, composed from local models, rented specialists and human review. Evaluation supplies the causal bridge between experimentation and learning. It makes different arrangements comparable, shows where coordination failed, and gives a meta-orchestrator the material from which to revise future decisions without pretending that one topology will be best for every context.

When an assembly works, it can become a reusable artifact that another machine or community inherits instead of rediscovering. Some of its behaviour may also be fused back into model weights where that is useful. In either form, the arrangement preserves a record of how capability was produced. The open problem is to keep that cycle adaptable without losing provenance or overfitting it to a fixed benchmark.

Research lineage

  1. Hu, Lu & Clune · 2025Automated Design of Agentic SystemsTreats agents as code and searches over prompts, tools, workflows, and their combinations.
  2. Akiba et al. · 2025Evolutionary Optimization of Model Merging RecipesDemonstrates evolutionary discovery across both parameter and data-flow composition spaces.
  3. Romera-Paredes et al. · 2024Mathematical Discoveries from Program Search with Large Language ModelsPairs language-model variation with evaluators to evolve interpretable programs.
  4. Wang et al. · 2024Mixture-of-Agents Enhances Large Language Model CapabilitiesShows that heterogeneous model outputs can be coordinated into stronger runtime performance.
  5. Zhang et al. · 2026Darwin Gödel Machine: Open-Ended Evolution of Self-Improving AgentsUses empirical evaluation and an archive of discoveries for open-ended agent evolution.

Open Epistemic Intelligence

Learning that stays local and still compounds.

Learning begins on a machine somebody owns, under the judgment of the person who lived the experience. Open Epistemic Intelligence asks how the lesson can compound while raw experience and authority stay local.

The person inside a local loop is the oracle for that experience. They judge the result, decide what is worth keeping, and can interpret files, preferences and consequences that a remote system cannot fully see. The architecture is designed to leave those materials on hardware they own rather than requiring collection in a central corpus. Local authority matters causally: it gives a learning event an accountable source, preserves context that would be lost in aggregation, and lets participation occur without making surveillance the price of coordination.

A node can emit a signed learning event while keeping the raw experience that produced it. A valid signature binds the event to a key, making its integrity and key-based origin verifiable; it does not establish human authorship by itself. Provenance carries the claimed source and context, while accrued trust and network position help recipients decide whether the event should travel and how much weight to give it. When shared, the event is a claim others can test, contest or compose with.

What compounds is knowledge that carries its claimed source, context and the judgment under which it was recorded. Plural subjective memories can overlap, disagree and change without being merged into a canonical state. This creates an open-ended ecology in which communities coordinate through provenance, trust and evaluated consequences while retaining distinct views. The test is commercial as much as technical: a company puts its archive into a loop only when it owns the loop, and lets anything leave only as a signed claim. The challenge is to make enough of that learning interoperable for the network to accumulate capability without appointing a central memory, oracle or authority to decide what the whole system knows.

Research lineage

  1. McMahan et al. · 2017Communication-Efficient Learning of Deep Networks from Decentralized DataEstablishes shared learning from locally computed updates without centralizing raw data.
  2. Hegedűs, Danner & Jelasity · 2021Decentralized Learning WorksDemonstrates viable peer-to-peer learning without a central aggregation server.
  3. Kleppmann et al. · 2019Local-First Software: You Own Your Data, in Spite of the CloudTies collaboration to local operation and durable ownership.
  4. Tarr et al. · 2019Secure Scuttlebutt: An Identity-Centric Protocol for Subjective and Decentralized ApplicationsThe lineage for signed, append-only histories that replicate subjectively.
  5. Wang et al. · 2024Voyager: An Open-Ended Embodied Agent with Large Language ModelsShows cumulative agent learning through a reusable library of executable skill artifacts.
  6. Packer et al. · 2023MemGPT: Towards LLMs as Operating SystemsTreats agent memory as managed tiers past the context window.