cot-quilt graph viewer — run 20261001T190939Z-4bb8f5f5
prompt: Design a minimal local algorithm that decides which cell of a cellular graph receives the next unit of computation budget, given per-cell potential and resistance values. The rule must use only a cell and its direct neig
seeds: 52840 / 25780 / 24417mothquantum 16-bit × 33 CoT samples6 clusters4 divergent routes5 critique cells7 cluster edges (p=mean typesafe dependency)
6/10v4-pro self-judged thoroughness The graph captures the high-level components but omits the key aging, tie-breaking, and proof mechanisms, so it is only moderately thorough.
Global-maximum impossibility: a one-step local rule cannot compute the unique global maximum, so the design must use a token or local propagation instead of global argmax.
Explicit aging mechanism: the score must include a λa_i term, with the served cell's age reset and other ages incremented, to force eventual selection.
Tie-breaking/backoff: equal local scores or multiple local maxima need a deterministic or randomized tie-break to avoid loops.
Randomized token walk alternative: positive-floor local probabilities can make an irreducible walk that visits every cell infinitely often.
Formal no-starvation proof: show the aging term dominates bounded p/r and forces the token across every cut, or use irreducibility/recurrence.
● cluster (size=occurrence, hue=load) — edge (width=count, opacity=p) □ divergent route ◆ critique cell — hover for full text
cell signature — in: {prompt, n_seeds, lenses} · out: {graph_v1, graph_v2, judge, receipts} ·
clusters → value cells · edges → links with p as dial weight · judge.gaps → question-cells · critique nodes → next generation
repo: github.com/SuperInstance/cot-quilt · erised playground: erised-mirror.pages.dev