The optimal emerges.
Path-integral optimization for multi-framework compliance. The engine computes probability amplitudes across the entire solution space — all overlapping requirements, all evidence paths — and converges on the minimal set of artifacts that satisfies every constraint at once.
NIST 800-53, ISO 27001, SOC 2, CMMC, and FedRAMP are not separate territories. They are different projections of one shared compliance ontology. The Feynman Engine resolves the entire surface from a single coordinated artifact set — invariant beneath every framework.
Five frameworks resolve from a single coordinated ontology.
Every control across every framework, attached to a shared evidence set.
Each artifact propagates instantly to every framework it satisfies.
NIST 800-53, ISO 27001, SOC 2, CMMC, and FedRAMP are not separate territories. They are different projections of one shared compliance ontology. The Feynman Engine resolves the entire surface from a single coordinated artifact set — invariant beneath every framework.
Five frameworks resolve from a single coordinated ontology.
Every control across every framework, attached to a shared evidence set.
Each artifact propagates instantly to every framework it satisfies.
Compliance is a graph of controls — thousands of nodes connected by evidence, attestations, and dependencies. The engine traverses that graph and returns the route that visits every required control with the least redundant work — one evidence artifact serving every framework that references it.
Compliance is a graph of controls. The engine traverses that graph and returns the route that visits every required control with the least redundant work — one evidence artifact serving every framework that references it.
Mapping a single piece of evidence to every applicable control across every framework is mechanical — and traditionally done by humans because tools could not reason about overlapping requirements. The engine collapses the matrix and expresses the entire requirement surface as a function of a small set of evidence primitives.
Submit once. Satisfies every framework it touches.
Overlapping requirements collapse to a single canonical record.
Every new artifact is immediately mapped across all frameworks.
Mapping a single piece of evidence to every applicable control across every framework is mechanical — and traditionally done by humans because tools could not reason about overlapping requirements. The engine collapses the matrix and expresses the entire requirement surface as a function of a small set of evidence primitives.
Submit once. Satisfies every framework it touches.
Overlapping requirements collapse to a single canonical record.
Every new artifact is immediately mapped across all frameworks.
Once mapped, an artifact propagates across the engine's surface. A single MFA policy attaches itself to every framework's identity control; a new SSP section ripples to every FedRAMP and CMMC requirement it satisfies — without human intervention or duplicate filing.
Once mapped, an artifact propagates across the engine's surface. A single MFA policy attaches itself to every framework's identity control; a new SSP section ripples to every FedRAMP and CMMC requirement it satisfies — without human intervention or duplicate filing.
Stationary-phase approximation: as candidate paths interfere, all but the path of least action cancel. The engine returns a single coordinated plan — minimum evidence, minimum effort, every constraint satisfied — ranked and explained alongside the reasoning that produced it.
What was intractable becomes routine — every trajectory considered in real time.
Returned by the engine, with the full reasoning attached as audit trail.
The full path-integral compute resolves before the meeting ends.
Stationary-phase approximation: as candidate paths interfere, all but the path of least action cancel. The engine returns a single coordinated plan — minimum evidence, minimum effort, every constraint satisfied — ranked and explained alongside the reasoning that produced it.
What was intractable becomes routine — every trajectory considered in real time.
Returned by the engine, with the full reasoning attached as audit trail.
The full path-integral compute resolves before the meeting ends.
The first principle is that you must not fool yourself — and you are the easiest person to fool.
The Feynman Engine is in research preview, available to select partners exploring the future of automated compliance. Onboarding is hands-on: we work directly with your team to scope your framework surface, calibrate the engine, and integrate it into your existing operating cadence.
The Feynman Engine is in research preview, available to select partners exploring the future of automated compliance.