Theorem Automation Bench

Formal Proof Decomposition & Verification

Audit how AI tactic models, symbolic automated solvers (SMT/Omega), and formal verification (Lean 4) crack mathematical theorems down to verified leaf axioms.

Formal Dependency DAG

Lemmas: 5
Verified: 0
AI Tactics: 0
Kernel State: Open

Active Lean 4 Goal

⊢ ∀ (x y : ℝ), x^2 + y^2 ≥ 2*x*y

Current Context & Hypotheses

h_real : x, y ∈ ℝ
h_diff_sq : (x - y)^2 ≥ 0
Initialized: Select target theorem or press "Run AI Tactic Search".

Automated Reasoning & Mathematics

When AI breakthroughs in automated theorem proving (such as AlphaProof, LeanCopilot, and DeepSeek-Prover) achieve medal-level performance at the International Mathematical Olympiad, the nature of mathematical labor transforms.

Instead of manual symbol manipulation, mathematicians act as proof architects: formulating definitions, decomposing conjectures into sub-lemmas, and letting neural policy networks and formal symbolic kernels verify the search space with absolute rigor.

Frequently Asked Questions

Why use formal proof kernels like Lean 4?

Unlike natural language LLMs that can hallucinate plausibly sounding proofs, formal proof assistants check every single deduction step against a minimal axiomatic kernel (Calculus of Inductive Constructions). A theorem is either 100% verified or rejected.

What role do AI tactic models play?

Mathematical proof search has an infinite branching factor. AI models serve as heuristics, predicting which lemmas, substitutions, or automated tactics (`linarith`, `ring`, `aesop`, `induction`) have the highest probability of closing open goals.

Can this tool export real code for theorem provers?

Yes. Clicking "Export Lean 4" generates syntactically valid Lean 4 theorem declarations and tactic blocks corresponding to the verified DAG decomposition.

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