A fixed-atom proof of the transcendence of e^{π²} would not itself prove Schanuel’s Conjecture, and the all-order three-chain theorem cannot be treated as unconditional. First prove or replace the delta-domain continuation lemma; then prove a growing-family common-unit endpoint estimate and fraction-free normalized-Plücker assembly. Full Schanuel still needs the relative moving-Morse arithmetic-monodromy theorem.
Route status · Narrowed routeTranscendence theory · exponential algebra · algebraic independence
Schanuel’s Conjecture
Collaboration betaIf z1,…,zn are linearly independent over the rationals, must the numbers z1,…,zn and their exponentials together contain at least n algebraically independent quantities? The source develops conditional reductions and a fixed test case, but explicitly leaves both the test case and the full conjecture open.

Research problem
Exact mathematical statement
For complex numbers z_1,…,z_n that are linearly independent over , Schanuel’s Conjecture asserts
Revision v6 explicitly reports no proof. Its fixed e^{π²} atom is only a necessary test of one proposed arithmetic mechanism and would not by itself prove the universal conjecture.
Problem infographic
Problem at a glance

Current mathematical picture
Where work on Schanuel’s Conjecture stands
Selected route highlights from the mathematical source. This is not yet a complete mathematical inventory.
The general route derives differential and Gauss-field structure from a minimal defect-one counterexample, while the fixed-atom route assumes e^{-π²} algebraic, constructs a multiscale contact matrix, and seeks a primitive row-volume bound strong enough to force a boundary polynomial with too many double roots.
Evidence posture · Source-reported route statement · dependencies incompleteWe corrected the cited passages. We updated the highlighted open task or route. The mathematical claims and their status did not change.
Reader-facing record corrected; mathematics unchangedWork mapped so far
Schanuel’s Conjecture in numbers
- Argument development
- 2,223 · 85%
- Explored or eliminated routes
- 104 · 4%
- Computational analysis
- 33 · 1%
- Open obligations
- 126 · 5%
- Definitions and setup
- 144 · 5%
How this is measured
This measures retained mathematical investigation, not proximity to a proof. Code, data, logs, repeated text, operational instructions, and generated presentation copy are excluded.
Recommended next task
Close the delta-domain continuation lemma
Suggested move: Classify inverse singularities, exclude finite asymptotic values, track monodromy through the ramified point, and prove the selected cut-jump sign on a uniform delta-domain.
What would count as progress
- Supply a complete argument with every imported premise identified.
- Survive an independent attempt to falsify the proposed step.
Argument map and routes
How the current approaches connect
Claims, reductions, open questions, active routes, and narrowed alternatives in one mathematical map.
Visible working map
Research route map
Selected claims, active routes, useful failures, and open questions from the current research map. Arrows appear only for explicitly recorded relationships.
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Explored alternatives
Other routes
A fixed-atom proof of the transcendence of e^{π²} would not itself prove Schanuel’s Conjecture, and the all-order three-chain theorem cannot be treated as unconditional. First prove or replace the delta-domain continuation lemma; then prove a growing-family common-unit endpoint estimate and fraction-free normalized-Plücker assembly. Full Schanuel still needs the relative moving-Morse arithmetic-monodromy theorem.
Route status · Narrowed routeMore ways to contribute
Open questions
Additional prepared tasks for exploring this research frontier.
Sourced mathematical context
The known mathematical landscape
What the literature has established
Selected external milestones in reverse chronological order, with their evidence posture.
PreprintWaldschmidt proved strong algebraic-independence properties for almost all tuples in elliptic and quasi-elliptic settings; this metric result does not settle the universal exponential conjecture.[4] Authoritative summaryWaldschmidt surveyed the Four Exponentials Problem and Schanuel’s Conjecture, including equivalent algebraic-independence formulations and partial strategies.[3] Peer reviewedJames Ax proved Schanuel-type statements for exponentiation in a differential-algebraic setting, an influential analogue rather than the complex-number conjecture.[2] Historical sourceSerge Lang published the conjecture attributed to Stephen Schanuel in Introduction to Transcendental Numbers.[1]
Mathematical neighborhood
Related results and reusable starting points
Ax’s differential-field theorem proves a Schanuel-type transcendence-degree bound under differential hypotheses, not for arbitrary complex numbers with ordinary exponentiation.
[2]The Four Exponentials Problem is a central weaker consequence and testing ground in transcendence theory.
[3]Almost-all tuple results establish metric genericity but do not imply a statement for every rationally independent tuple.
[4]Formalization opportunities
Lean work can make these reusable foundations precise without being presented as a proof of the core problem.
- Formalization targetA checked statement must encode rational linear independence of arbitrary complex tuples and the transcendence degree of the field generated by inputs and exponentials.
- Formalization targetA formal account must distinguish ordinary complex exponentiation from Ax’s differential-field analogue and from model-theoretic or elliptic variants.
- Formalization targetThe private packet’s named standard imports, moving-Morse reduction, analytic continuation, determinant normalization, and relative primitive-volume theorem need exact statement alignment.
Research-record corrections
What changed in the research record
These notes describe corrections to cited passages, highlighted tasks, or connections between claims. The mathematical claims and their status did not change.
Corrected the research recordCorrection note
Corrected the research recordCorrection note
The initial argument structure appears separately. Uploads, model runs, and presentation changes do not count as mathematical updates.
Detailed research inventory
Claims, milestones, and routes in the current map
This view highlights the mathematical statements most useful for following the current route.
- theorem candidate
1 of 6 1 - reduction
3 of 6 3 - lemma
2 of 6 2
Current research mapThe conjecture, retained reductions, explored limitations, and open questions represented in this overview.20 displayed rows · 1 route included
- retained route statementDo n Q-linearly independent complex inputs force at least n algebraically independent coordinates among them and their exponentials?
- retained route statementCurrent reductionintermediate
- retained route statementClosing targetintermediate
- retained route statementTranscendence-degree targetintermediate
- retained route statementMinimal-counterexample structureintermediate
- retained route statementFixed e-to-pi-squared atomintermediate
- Recorded relationshipThe source reports this as a route toward the conjecture; missing or unaudited premises remain and the reduction does not itself prove the target.supports · reported by source
- Recorded relationshipThis source-reported claim supports the retained route only within its stated, unaudited scope.supports · reported by source
- Recorded relationshipThis source-reported claim supports the retained route only within its stated, unaudited scope.supports · reported by source
- Recorded relationshipThis source-reported claim supports the retained route only within its stated, unaudited scope.supports · reported by source
- DerivationThe source reports that completing the closing target would advance the reduction to the main conjecture; this remains an informal route, not a verified derivation.proposed
- Useful failureSource-reported limitationreported failure
- Research targetClose the delta-domain continuation lemmaopen
- Research targetProve common-unit global assemblyopen
- Research targetLift from the fixed atom to full Schanuelopen
- Research targetUniversal conjecture remains opensuperseded
- Research targetAll-order shifted-minor gapsuperseded
- Research targetNormalized-Plücker assembly gapsuperseded
- ComputationThe source lists exact rational symbolic expansions and determinant values, and warns never to infer a theorem from a finite sign pattern; no packet computation was executed in this staging lane.Reported finite identities support the local block algebra, but they do not establish all-order shifted minors, primitive row-volume bounds, e^{π²} transcendence, or Schanuel’s Conjecture. · reported unreproduced
- Narrowed routeSource-reported limitationA fixed-atom proof of the transcendence of e^{π²} would not itself prove Schanuel’s Conjecture, and the all-order three-chain theorem cannot be treated as unconditional. First prove or replace the delta-domain continuation lemma; then prove a growing-family common-unit endpoint estimate and fraction-free normalized-Plücker assembly. Full Schanuel still needs the relative moving-Morse arithmetic-monodromy theorem.
How to interpret these counts
A statement may be a lemma, conditional reduction, special case, documented limitation, or open target. These counts describe the work's structure; they do not estimate distance to a proof.
Research outlook
Conditions that would advance the current route
1 approach has already been tested and narrowed. The task above is the current priority within the larger open route.
A result can change the outlook by closing the bridge, narrowing its scope, or showing that the route cannot work.
- Supply a complete argument with every imported premise identified.
- Survive an independent attempt to falsify the proposed step.
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Schanuel’s Conjecture · ready to start
Receive an update when a route advances, an obstacle is clarified, or new evidence changes the mathematical picture.
If z1,…,zn are linearly independent over the rationals, must the numbers z1,…,zn and their exponentials together contain at least n algebraically independent quantities? The source develops conditional reductions and a fixed test case, but explicitly leaves both the test case and the full conjecture open.
- Exact question and boundaries
- Current routes and known obstacles
- What a useful result should report
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Sources and references4 cited works · next context review by Nov 14, 2026
The mathematical context was checked on Aug 14, 2026. Status can be refreshed sooner after a material result or claim.
- 1Introduction to Transcendental Numbersoriginal source · Serge Lang · Addison-Wesley · 1966 · accessed Aug 14, 2026
- 2On Schanuel’s conjecturespeer reviewed result · James Ax · Annals of Mathematics 93(2), 252–268 · 1971 · DOI 10.2307/1970774 · MR 0277482 · accessed Aug 14, 2026
- 3The Four Exponentials Problem and the Schanuel Conjecturesurvey or monograph · Michel Waldschmidt · Springer Lecture Notes in Mathematics 2313 · 2023 · accessed Aug 14, 2026
- 4Schanuel Property for Elliptic and Quasi-Elliptic Functionspreprint · Michel Waldschmidt · arXiv · 2025-04-18 · ARXIV 2504.14041 · accessed Aug 14, 2026
Important qualifications
- This source-separated metadata does not verify any mathematical claim in the private packet or grant review, credit, publication, or deployment authority.
- Ax’s theorem is a differential-algebraic analogue and does not prove the complex-number conjecture.
- Almost-everywhere algebraic-independence results do not prove the universal statement for every rationally independent tuple.
- The current work’s moving-Morse reduction, delta-domain lemma, normalized-Plücker program, and e-to-pi-squared atom require separate exact review.
- No checked formalization of the exact universal complex-number conjecture was identified in this bounded collection; this is not evidence of nonexistence.
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