You're pledging to donate if the project hits its minimum goal and gets approved. If not, your funds will be returned.
This project develops AURA Protocol, an open-source framework for AI alignment that treats alignment as a measurable, dynamic control problem. It introduces internal mechanisms for detecting and correcting agentic drift under uncertainty, long time horizons, and distributional shift, supported by formal metrics and reproducible experiments.
Goals:
Define alignment as a measurable internal property rather than a static rule set
Formalize the TRIAD kernel (Anchor, Ascent, Fold) as an internal alignment control mechanism
Develop quantitative metrics for detecting value drift and loss of intent coherence
Empirically test drift detection and correction in simulated agent environments
How they will be achieved:
Formal mathematical specification of alignment variables and stability conditions
Implementation of drift-detection logic inside controlled simulations
Stress-testing agents under long-horizon and adversarial scenarios
Publishing open-source code, documentation, and negative results for replication
Success is measured by reproducible evidence that AURA detects and mitigates misalignment earlier than baseline approaches.
Funding will be used to support focused research time, experimentation, and validation. Specifically, it enables deeper formalization of alignment mechanisms, implementation of simulations, and production of high-quality open documentation and tooling suitable for external review and reuse.
This project is currently led by me as an independent researcher.
My track record includes:
Designing and publishing a substantial open-source AI alignment framework
Producing formal specifications, mathematical models, and structured research artifacts
Sustained independent execution without institutional support
Public repositories demonstrating iteration, follow-through, and technical depth
The project already exists in working form; funding enables higher rigor, validation, and broader impact.
Most likely causes:
Alignment metrics do not generalize across agent classes
Drift signals are noisy under certain environments
Limited compute restricts experimental scope
Outcomes if it fails:
Clear documentation of why specific metrics or mechanisms failed
Publishable negative results that inform future alignment research
Open artifacts that others can build upon or improve
Even failure yields valuable information for the AI safety community.
$0.
This project has been entirely self-funded to date.
P.s
With minimum funding, I will complete formal specifications, implement a prototype drift-detection system, and publish initial experimental results. With full funding, I will extend experiments across multiple agent classes, improve robustness testing, and produce publishable-quality artifacts suitable for wider adoption.