MathLedger: A Verifiable Learning Substrate with Ledger-Attested Feedback

Fuente: arXiv
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Autore principale: Abdullah, Ismail Ahmad
Natura: Preprint
Pubblicazione: 2025
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author Abdullah, Ismail Ahmad
author_facet Abdullah, Ismail Ahmad
contents Contemporary AI systems achieve extraordinary performance yet remain opaque and non-verifiable, creating a crisis of trust for safety-critical deployment. We introduce MathLedger, a substrate for verifiable machine cognition that integrates formal verification, cryptographic attestation, and learning dynamics into a single epistemic loop. The system implements Reflexive Formal Learning (RFL), a symbolic analogue of gradient descent where updates are driven by verifier outcomes rather than statistical loss. Phase I experiments validate the measurement and governance substrate under controlled conditions. CAL-EXP-3 validates measurement infrastructure (Delta p computation, variance tracking); separate stress tests confirm fail-closed governance triggers correctly under out-of-bounds conditions. No convergence or capability claims are made. The contribution is infrastructural: a working prototype of ledger-attested learning that enables auditability at scale. Keywords: verifiable learning, formal verification, cryptographic attestation, reflexive feedback, fail-closed governance
format Preprint
id arxiv_https___arxiv_org_abs_2601_00816
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle MathLedger: A Verifiable Learning Substrate with Ledger-Attested Feedback
Abdullah, Ismail Ahmad
Artificial Intelligence
Cryptography and Security
Machine Learning
I.2.6; I.2.8
Contemporary AI systems achieve extraordinary performance yet remain opaque and non-verifiable, creating a crisis of trust for safety-critical deployment. We introduce MathLedger, a substrate for verifiable machine cognition that integrates formal verification, cryptographic attestation, and learning dynamics into a single epistemic loop. The system implements Reflexive Formal Learning (RFL), a symbolic analogue of gradient descent where updates are driven by verifier outcomes rather than statistical loss. Phase I experiments validate the measurement and governance substrate under controlled conditions. CAL-EXP-3 validates measurement infrastructure (Delta p computation, variance tracking); separate stress tests confirm fail-closed governance triggers correctly under out-of-bounds conditions. No convergence or capability claims are made. The contribution is infrastructural: a working prototype of ledger-attested learning that enables auditability at scale. Keywords: verifiable learning, formal verification, cryptographic attestation, reflexive feedback, fail-closed governance
title MathLedger: A Verifiable Learning Substrate with Ledger-Attested Feedback
topic Artificial Intelligence
Cryptography and Security
Machine Learning
I.2.6; I.2.8
url https://arxiv.org/abs/2601.00816