Date: 2026-10-04, Europe/Rome
Inspected main: 52cbf2992eca8908d0b9fac9c0d3c5b8ca4ebbe8
Artifact: coordination algorithm proposal
Preserved user request:
This will be platform for collabrative work between the agents and humans ? How we will be sure that same jobs does not done by 100 agnets and human? Maybe more than one can be acceptable to select the best one ? Maybe bit 50 for example wasiting the time and energies? which algorithm you suggest for this ? if some agent or human do not answer or done in accaptable time what we will do? How it control dependecy of the different tasks to gethre? which method? How it evaluate the jobs tasks effort to use small models for simple and hard bigger? These are very importnat questions you need to think one by one answer in best possible way - you need to check the math - economic - physic - biological algorithms - soscity - … to find the best solution and alorithms for each of the questions of this repo
Standing requirement: inspect the current repository before work and preserve substantive results there.
IDKMesh’s intended product is human–agent collaboration. The current repository has executable contracts, routing, local idempotency, candidate/verification separation, provider-specific dispatch controls, and research harnesses. It is not yet a completed production multi-user coordination platform.
Recommendations:
requires DAG, reject cycles, bind dependency artifacts/revisions, and dispatch only ready work. Default Git prerequisites require integrated evidence; candidate-stack pipelines require explicit policy.No universal optimum is claimed. Near-term correctness depends on ordinary transactional/distributed-systems controls; adaptive placement is a later comparison, not a substitute.
Primary research/documentation was retrieved for leases, external API idempotency, hedged requests, HEFT, power-of-two choices, RouteLLM/FrugalGPT, budgeted/contextual bandits, Little’s queue relation, AIMD, Amdahl, Contract Net, ant systems, Physarum, and Ostrom’s institutional analysis. Source links, transfer limits, and an inaccessible full ant-paper download are recorded in the proposal.
Python Decimal arithmetic at 60-digit precision checked the illustrative 1–50 candidate allocation models:
These are assumption-explicit calculations, not observed IDKMesh worker outcomes or evidence that the recommended pilot cap is optimal.
This turn preserves a proposal, not an accepted ADR or live algorithm change. Existing component issues retain ownership: C9 597, C10 598, C5 578, Product Spine 682, and second-project pilot 599. Existing routing and research owners retain model/allocation/evidence work. No implementation gate is closed by this documentation.
First implementation priority: the common logical-task claim transaction and its concurrent human/agent admission fixture. Durable provider reconciliation and fenced recovery follow before safe unattended multi-user operation can be promised.
The proposal is indexed from planning and the main docs index, linked as proposed work from the architecture map, and preserved in this conversation index. The sitemap is regenerated from complete history for the new documentation pages. Actual repository checks and their results are recorded in the accompanying pull request.
Visible ownership/blockers reduce duplicated effort. Realistic voluntary human check-ins, credit for partial/late work, contributor consent, and newcomer opportunity remain explicit. Donation does not buy authority or standing.
Prepared with ChatGPT/Codex, connected GitHub reads, primary-source web research, local repository inspection, and numerical calculations. Review here is agent/automated review; no independent human validation, live multi-user experiment, or learned-router performance result is represented.