NeuroVer
Justin Stefan Stoica Tica, David Ghiberdic, Vladimir Necula · Team Katena
Submitted to The Technical AI Governance Challenge. Sprint projects are early-stage work by participants, not Apart Research publications.
Zero-Knowledge verification that LoRA fine-tuning followed safety constraints — without revealing training data or model weights.
Reviews
Training verification is an important problem and exploring zero-knowledge proofs for this purpose is interesting. But most most important question remains unaddressed imo: Who ensures the weights committed to the proof are the actual training weights? I would suggest zooming in on that problem.
Some other comments: The weight norm bound needs justification as a safety constraint. Why does ‖ΔW‖_F ≤ C imply safe fine-tuning? Is there literature on that? If so it would be good to reference it. Also the differential privacy invariant would need much more explanation.
Generally, I suggest to zoom in on exactly one problem (e.g. verifying which base model was used XOR verifying model weight updates stay below a specific weight bound) but then going much more in depth on that one: What are all the steps where trust can break down? How can you address all of them? Once there is an argument that a ZK-proof actually fills a gap in a credible trust chain, you can go into full technical depth. But the context is crucial to make sure you're building sth that actually contributes to a solution.
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I like the idea of applying ZK proofs to LoRA fine-tuning compliance. The focus on LoRA, where proofs circuits are tractable, shows good feasibility judgment. The implementation appears to be conventional Python norm-checking rather than actual ZK-SNARK circuits, though--room for development here.
Cite this project
@misc{tica2026neurover,
title = {{NeuroVer}},
author = {Justin Stefan Stoica Tica and David Ghiberdic and Vladimir Necula},
year = {2026},
month = feb,
note = {Submitted to The Technical AI Governance Challenge, an Apart Research Sprint},
howpublished = {\url{https://apartresearch.com/sprints/projects/neurover-gg0w}},
url = {https://apartresearch.com/sprints/projects/neurover-gg0w}
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