To support advanced peer review and constructive analysis, we extend the paper with the following elements:
1. Formal Lemma Sketches
Lemma 1: All expressions evaluated under SATS terminate or throw a Resolution Boundary Fault. Lemma 2: The system is type-preserving under substitution. Lemma 3: Scroll-safe addition and multiplication are commutative and associative up to the p* boundary.
2. Drift Function Δ(e)
We define Δ(e) as the difference in output signature when e is evaluated across scroll environments with different Resolution Primes.
A drift of Δ > 1 signals the scroll is unstable beyond current bounds.
3. Minimal Encoding Schema for Simulation
The system can be encoded in JSON or Lean-style syntax for external theorem proving.
Example encoding: { “type”: “ScrollProof”, “op”: “add”, “args”: [97, 101], “limit”: 257 }
4. Resolution Prime Advancement
The Resolution Prime p* advances by consensus or computational verification (e.g. via largest known provable primes).
Scrolls that exceed p* may be re-run under updated memory states.
5. Simulation Guidance
To verify scroll behavior in practice: Implement SATS in a functional language (e.g., Haskell, OCaml, Lean) Log runtime halting behavior, max_depth, and drift Cross-check scroll outputs under increasing p*
Reader Context
Before this section, "Appendix A: Operational Semantics" sets context for the current argument. After this page, continue to "Appendix C: LLM Example" to follow the next step in the sequence.
This page is part of the free online edition of The Resolution of Math. Core ideas here include scroll, lemma, under, resolution, drift. Read in sequence for full continuity, then use the related links below to compare framing across books.