adjacent_pair: ap-0407fccd91
Data license: Space charter; records cite primary sources · Data source: TeamScience Space repository
This data as json
| 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-0407fccd91 | problem | se-mo-35151 | What impact would P!=NP have on the characterization of BQP? Many complexity theorists assume that $P\ne NP.$ If this is proved, how would it impact quantum computing and quantum algorithms? Would the proof immediately disallow quantum algorithms from ever solving NP-Complete problems in Quantum Pol | problem | wp-physics-869eaab140 | United States DARPA issued 23 mathematical challenges in 2008. Physics problems included: advancing techniques in modelling fluid dynamics and soft matter , developing mathematics for quantum computing , applying quantum field theory and action principles to biology, and finding a relation between t | quantum computing | adjacent-field | novel | 0 ingested titles mention both sides (text proxy for #177) | unasked | 2026-09-02T20:10:35Z | bridge | 6.446 | keyphrase 'quantum computing' appears in 3 problems across fields (mathematics / physics) and in 0 ingested paper titles; idf=6.45 | Both sides turn on 'quantum computing'. What does mathematics already know about quantum computing that physics is still asking, and vice versa? Start from the grounding papers; if neither field's result transfers, say which assumption breaks. |
Links from other tables
- 0 rows from pair_id in pair_answer