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Numerical Analysis for Stable AI

Project description

Mapping the hidden vulnerabilities of AI

While AI is changing our world, weaknesses in algorithms can create risks. These include adversarial attacks and biased outcomes. The ERC-funded NumAStAI project aims to find, measure, and reduce these vulnerabilities through numerical analysis. The research focuses on understanding likely attack scenarios, enabling subtle edits and fixes, assessing risks to underrepresented data categories, exposing low-cost adversarial strategies, analysing errors from low-precision calculations, and producing clear results to guide AI legislation. By combining matrix analysis, optimisation, and probabilistic methods, the project seeks to uncover AI’s hidden weaknesses and improve ethical, secure, and reliable deployment. Ultimately, NumAStAI will help ensure AI is both effective and trustworthy.

Objective

From a numerical analysis perspective I will identify, quantify and mitigate vulnerabilities in current artificial intelligence (AI) algorithms.
Novel mathematical research will emerge along six overlapping axes:

Inevitability: rigorously understand the inescapable endgame of the attack-versus-defence paradigm. Under what conditions is it inevitable that adversaries will
succeed? Formalizing such conditions will allow us to understand and, where possible, overcome current AI instabilities.

Editability: study algorithms that stealthily change a small number of parameters. This scenario is highly pertitent when new AI is built on top of third-party, foundation models. It also opens up the
possibility of fixing errors on-the-fly without the need to re-train.

Targetability: examine whether under-represented categories in the training data are more susceptible to adversarial attacks. This topic raises a key,
and currently overlooked, issue in the ethical use of AI.

Universality: develop linear, sparse, low rank mappings that
create adversarial attacks. These new functions will expose novel, low-cost, threat
mechanisms, but will also give insights into the decision boundary landscape.

Roundability: use state-of-the art probabilistic rounding error analysis to
justify large-scale, low precision computations.
I will study (a) why current AI technologies appear to defy traditional worst-case
floating point error bounds, and (b) whether low precision can be exploited by
an adversary.

Legislatability: devise easy-to-interpret results and practical case studies that can inform public opinion and impact the design of appropriate AI legislation.

The project identifies high-profile open questions requiring tools from
matrix analysis, optimization, backward error analysis, condition number theory and
stochastic computation. Some of the proposed work is highly speculative and challenging,
but will significantly advance our understanding of AI vulnerabilities.

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Keywords

Programme(s)

Topic(s)

Funding Scheme

HORIZON-ERC - HORIZON ERC Grants

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Call for proposal

(opens in new window) ERC-2024-ADG

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Host institution

THE UNIVERSITY OF EDINBURGH
Net EU contribution
€ 2 498 941,00
Address
OLD COLLEGE, SOUTH BRIDGE
EH8 9YL Edinburgh
United Kingdom
Region
Scotland Eastern Scotland Edinburgh
Activity type
Higher or Secondary Education Establishments
Links
Total cost
No data

Beneficiaries (1)