Most AI governance work today produces presentations. A team meets, discusses risk, fills in a template, and ships a slide deck. Months later, when something goes wrong or a regulator asks questions, no one can reconstruct what was actually decided, who decided it, or what evidence supported the decision. The slide deck is a summary of a conversation, not a record of a review.
SAFEMACHINE is the alternative. It is a structured tool that walks reviewers through a defined sequence of pillars, scores each one against published criteria, surfaces conditions that should stop a deployment, assigns named accountability, and produces a written record that can be archived, audited, and revisited when conditions change.
The platform is built on four modules. Each module addresses a different layer of the governance problem.
SAFEMACHINE is in active development. The underlying research is published. The tool itself is not yet generally available.
Every SAFEMACHINE review produces a written governance record. The record is structured, it follows the same pillar sequence every time, so two reviews of two different systems can be compared on the same axes. The record is scored, every dimension carries a value with criteria attached, so a later reviewer can see not just the verdict but the reasoning. The record is signed, named accountability is part of the document, not a separate organizational chart. And the record is revisable, when a system drifts or conditions change, the previous record becomes the baseline for reassessment rather than a discarded artifact.
SAFEMACHINE is not a product wrapped around a marketing claim. The four modules are based on published research synthesizing the EU AI Act, the OECD AI Principles, the NIST AI Risk Management Framework, ISO/IEC 42001, and adjacent regulatory and standards work. The papers are open access. The frameworks are auditable on their own merits before any tool sits on top of them.
Founder of Cinderpoint Systems LLC. M.S. Artificial Intelligence (MSAI), M.S. Management (MSM). Researches how systems fail under speed, opacity, and scale.