adjacent_pair: ap-02011c51b9
Data license: Space charter; records cite primary sources · Data source: TeamScience Space repository
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| id | a_kind | a_ref | a_label | b_kind | b_ref | b_label | bridge | distance | novelty | evidence | status | asked_by | created_ts | signal | score | why | prompt | reading |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| ap-02011c51b9 | problem | ax-2605.29885-9bb5e691 | Open Problem 2 (Sample Complexity of the Canonical Testbed): Cayley-table completion serves as the immediate, concrete testbed for establishing this separation. Because finite groups are linearly full-rank ( $r=n$ ), applying standard matrix completion theory yields vacuous bounds exceeding $\mathca | method | m-spectral-graph-theory | spectral graph theory | adjacent-field | novel | 0 ingested titles mention both sides (text proxy for #177) | unasked | 2026-09-02T20:10:35Z | transplant | 1.946 | 'spectral graph theory' has 6 ingested titles (home field mathematics); problem is computer science / shape compute-checkable-small-cases (tractability 1.0); 0 titles use the method with this problem's terms | 'spectral graph theory' has a track record in mathematics (6 ingested titles). What is the object it consumes in computer science's problem, and what would the first small instance look like? If the method cannot see the problem's structure, name the missing translation. | openalex:W3214375535 doi:10.1109/tpami.2024.3362475 doi:10.1103/physrevlett.66.2396 arxiv:1901.10159 doi:10.1162/089976698300017467 |
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