← All projectsGitHub
Robot societies among people

How much cheaper must an urgency cue be for the urgent before a door robot can rely on it?

research/society-cheapcue

How much cheaper must an urgency cue be for the urgent before a door robot can rely on it? Urgent people must pay at most about half what normal people do; the crowd is worse off than under yield-all in every cell.

6 tests

What it found

society-fakeurgency gave everyone the same signalling cost and found no gain for urgent people. Here the urgent pay a share rho of what normal people pay. With 30% robots, 20% urgent people, collision cost 3 and dithering cost 1, rho = 0.5 gives urgent people +0.14 per encounter over yield-all at a normal cost of 0.6, rho = 0.25 gives +0.29 and rho = 0 gives +0.44 (perfect reading gives +0.45); at rho ≥ 0.75 there is no gain. A 10% misreading rate cuts the usable rho to 0.75 or below at the edge and 20% to 0.4. The crowd, robots included, is worse off than under yield-all in all 35 cells (+0.045 to +0.28), as it is even with perfect reading (+0.045): the fleet transfers cost from urgent people to normal people and robots. Mean field from society-fakeurgency, which was checked by simulation. Assumed, not sourced: rho and the signal costs (swept), round-figure door costs, logit sharpness, no robot learning, random pairing.

A figure from its own output

Figure produced by research/society-cheapcue: cost_vs_rho
society-cheapcue/experiments/cost_vs_rho.svg, written by the project's own experiment code.

Paper, code and results

More in Robot societies among people

All 31 Robot societies among people projects →

Other research topics

Proper scoring & elicitation28Effort & peer prediction9Verification games & slashing19Detection & tolerances14Markets as routers13Prediction-market design9Paying contributors8Decentralised training systems23Digital twins & sim-to-real164LLM chip design loops40Robot manufacturing loops53Ambient AI assistant46Self-replicating manufacturing34Simulation-first design64Engineered clothing45Task-specific AI accelerators40Algorithmic chip-design loops42Open-source purpose-built robots44The software-engineering loop43Adversarial human imitation41Open-source residential construction41Autonomous multi-angle capture34Sensing, imaging and 3D31Energy supply and dense energy storage39Robot societies among people31Agentic co-design of low-cost robots27Laundry-hanging robots25Machine learning on qualitative data23Robots on the building site27Civilizations & group psychology1History & human sciences1

Produced with AI assistance (Claude). Results are from the code in this repository and are simulated or stylised unless the abstract says otherwise; nothing here implies affiliation with or endorsement by any lab, researcher or company cited. MIT licensed.