A developer launched Médula, a free MIT-licensed tool that asks a fast decision model before every write whether a change collides with another agent's work. His experiment found that six agents on separate branches each passed their own tests while the merged app broke in all 5 runs, while agents sharing one working directory passed in all 10 runs. The finding matters to anyone running multi-agent coding workflows: text merges hide semantic conflicts, and letting agents see or message each other fixes them.
A developer released Médula, an MIT-licensed kernel that coordinates multiple Claude Code agents (Sonnet 5, effort high) working on one repo. In tests with a room-booking API and 37 acceptance tests, a shared working directory scored 37/37 in all 10 runs versus 31/37 with git branches. Unprompted agent-to-agent messaging also emerged as a possible alternative coordination mechanism.
A developer released Médula, an MIT-licensed kernel that coordinates multiple Claude Code agents (Sonnet 5, effort high) working on one repo. In tests with a room-booking API and 37 acceptance tests, a shared working directory scored 37/37 in all 10 runs versus 31/37 with git branches. Unprompted agent-to-agent messaging also emerged as a possible alternative coordination mechanism.
Médula is an open-source lab and kernel that lets multiple Claude Code agents work on the same repo in parallel, using a cheap decision model to arbitrate conflicts. It ships as a pluggable-decider experiment with a small API, acceptance tests, and fully public run data (sessions, diffs, SQLite decision logs). It targets developers running multi-agent coding setups who need agents to avoid breaking each other's changes.
Médula is an open-source lab and kernel that lets multiple Claude Code agents work on the same repo in parallel, using a cheap decision model to arbitrate conflicts. It ships as a pluggable-decider experiment with a small API, acceptance tests, and fully public run data (sessions, diffs, SQLite decision logs). It targets developers running multi-agent coding setups who need agents to avoid breaking each other's changes.
Médula is an MIT-licensed lab plus kernel that lets multiple Claude Code agents work on one repo concurrently. A PreToolUse hook sends each write/edit/command intent to a fast LLM decider (Jev) that returns a collision probability, gating whether agents proceed or wait. It targets developers running parallel coding agents on a shared codebase.
Médula is an MIT-licensed lab plus kernel that lets multiple Claude Code agents work on one repo concurrently. A PreToolUse hook sends each write/edit/command intent to a fast LLM decider (Jev) that returns a collision probability, gating whether agents proceed or wait. It targets developers running parallel coding agents on a shared codebase.
A developer running a Claude Code-based multi-agent system built on beads issue tracking open-sourced beadsort, an MIT-licensed tool that uses the newly released Jev model to batch-label and triage beads. It replaces manual agent-driven labelling, which was slow and token-expensive.
A developer running a Claude Code-based multi-agent system built on beads issue tracking open-sourced beadsort, an MIT-licensed tool that uses the newly released Jev model to batch-label and triage beads. It replaces manual agent-driven labelling, which was slow and token-expensive.
An arXiv paper studies coordination failures among concurrent AI coding agents through a property-scoped verification contract and MERGEGYM, a three-track benchmark covering scope forecasting, replay-conditioned conflict resolution, and scheduling. It shows nearly half of textual merge conflicts occur despite disjoint authored file sets, and trains cheap lineage models that predict conflicts with AUROC up to 0.902. The authors stress their guarantees are limited to textual mergeability and that exact replay is already cheap enough to verify everything.
An arXiv paper studies coordination failures among concurrent AI coding agents through a property-scoped verification contract and MERGEGYM, a three-track benchmark covering scope forecasting, replay-conditioned conflict resolution, and scheduling. It shows nearly half of textual merge conflicts occur despite disjoint authored file sets, and trains cheap lineage models that predict conflicts with AUROC up to 0.902. The authors stress their guarantees are limited to textual mergeability and that exact replay is already cheap enough to verify everything.