Founder, Verifiable Proof Systems • Florence, Oregon
Building infrastructure for safe AI execution. Former systems engineer.
Focused on verification, accountability, and workforce development for the next 20 years of computing.
Local-firstNo cloud dependencyNo proof, no executionGhost ProtocolOffline-First PWA
We are done trusting AI outputs.
VibeKLR is not a chatbot, a copilot, or a creativity tool.
It is a verification-first execution system for AI-assisted work.
If an action cannot be proven safe, correct, and authorized,
it does not execute. There are no exceptions.
The problem
Modern AI systems are probabilistic.
Enterprises deploy them as if they were deterministic.
This mismatch has created a growing liability gap across software,
finance, healthcare, infrastructure, and government.
Hallucinated code, fabricated citations, unsafe automation,
and unverifiable decision paths are not edge cases.
They are structural failures.
We do not attempt to make AI "smarter."
We make execution conditional.
What VibeKLR does
Intercepts AI-proposed actions before execution
Classifies each action by side-effect risk
Blocks irreversible actions without human authorization
Enforces logic, schema, and invariant verification
Produces immutable audit artifacts for every decision
Unknown or ambiguous actions default to stop.
No proof, no execution.
No signature, no irreversible action.
Execution model
Epistemic — read-only, auto-approved
Mutable — reversible, logged
Effective — irreversible, human-gated
This is enforced in code, not policy documents.
Execution roadmap
This roadmap reflects committed execution phases.
Each phase advances only if its verification gates are met.
Q1 — Verification Floor
Deterministic CLI (local-first)
Side-effect ontology enforcement
Human-gated irreversible actions
Immutable audit artifacts
UI quality is secondary. Correctness is not negotiable.
Q2 — Workforce & Audit Scale
Verified content ingestion pipeline
Workforce-driven data curation
Merkle-based audit aggregation
Enterprise artifact export
Scale is allowed. Undefined behavior is not.
Q3 — Glass Box Licensing
Conditional liability transfer framework
Proof-carrying execution artifacts
Regulated environment onboarding
Formal audit acceptance workflows
If the proof fails, the system does not execute.
Q4 — Physical Enforcement
Hardware abstraction layer
Temporal execution guarantees
Hardware-backed kill-switch logic
Post-silicon execution readiness
Software remains subordinate to physical limits.
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Privacy by construction, not by promise
VibeKLR does not require surveillance to increase safety.
The system becomes less invasive as safety increases.
This is possible because we verify actions, not people.
What we explicitly do not collect
Biometric Data
❌ None
Location Tracking
❌ None
Behavioral Scoring
❌ None
Hidden Telemetry
❌ None
Trust Scores
❌ None
Continuous Monitoring
❌ None
Technical mechanism: How this actually works
1. Action-Centric Security (Not Identity-Centric)
Most systems ask: "Who is doing this?"
We ask: "What would happen if this executes?"
Every proposed action is classified into exactly one category:
Epistemic – read-only, no state change
Mutable – reversible state change
Effective – irreversible state change
If an action is Effective, it is blocked by default. This is enforced in code.
We don't need to monitor users continuously if the system cannot execute irreversible actions silently.
2. Zero-Knowledge Authorization
When human approval is required, the system does not store:
the human's identity
their history
their behavior profile
Instead, it stores a cryptographic proof that:
a valid authorization existed
at a specific time
for a specific action hash
"Prove that authorization occurred, without revealing who authorized or why."
3. Audit Without Surveillance
The audit log records: action hash, classification result, gate decision, proof reference.
It does not record: keystrokes, content of private communications, user intent beyond the formal action contract.
Auditors can verify correctness of enforcement without inspecting human behavior.
4. Local-First Execution
The system is designed to function offline, air-gapped, without cloud dependency.
If the system can't phone home, it can't spy.
Cited technical foundations
Zero-Knowledge Proofs
Goldwasser, S., Micali, S., & Rackoff, C. (1985). "The Knowledge Complexity of Interactive Proof Systems."
SIAM Journal on Computing, 18(1), 186-208.
Used in production: Zcash, zk-SNARK compliance systems, privacy-preserving authentication.
Proof-Carrying Code
Necula, G. C. (1997). "Proof-Carrying Code."
Proceedings of the 24th ACM SIGPLAN-SIGACT Symposium on Principles of Programming Languages.
Standard in avionics, medical devices, and safety-critical systems.
Capability-Based Security
Dennis, J. B., & Van Horn, E. C. (1966). "Programming Semantics for Multiprogrammed Computations."
Communications of the ACM, 9(3), 143-155.
Foundation for object-capability systems, used in Chromium sandboxing, seL4, and modern isolation architectures.
Local-First Computing
Kleppmann, M., et al. (2019). "Local-First Software: You Own Your Data, in Spite of the Cloud."
Proceedings of the 2019 ACM SIGPLAN International Symposium on New Ideas, New Paradigms, and Reflections on Programming and Software.
Safety does not require surveillance.
Surveillance is usually a shortcut taken when systems cannot prove correctness.
We chose the harder path.
Join the mission
We are building infrastructure for the next 20 years of safe AI execution.
This is not a startup hobby. This is a long-term commitment to accountability.
📋 Waitlist
Access is staged. Teams with real execution risk are prioritized.
💰 Support the Mission
Fund independent verification infrastructure. No VC strings. No donor influence over technical decisions.